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Annual Report 2011 - Indian Agricultural Research Institute

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<strong>Annual</strong> <strong>Report</strong><br />

<strong>2011</strong>-12<br />

<strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong><br />

(<strong>Indian</strong> Council of <strong>Agricultural</strong> <strong>Research</strong>)<br />

New Delhi-110 012<br />

ISSN 0972-6136


(Deemed University)<br />

<strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong><br />

New Delhi - 110 012


Printed : July, 2012<br />

Supervision and Guidance<br />

H.S. Gupta<br />

Director<br />

Malavika Dadlani<br />

Joint Director (<strong>Research</strong>)<br />

Compilation Committee and Publication Team<br />

A.K. Singh, T.K. Behera, R.K. Rattan, Rashmi Aggarwal, C. Vishwanathan<br />

V.C. Mathur, K.M. Manjaiah, R.L. Sapra, Kehar Singh and D.K. Parashar<br />

Correct citation : IARI. <strong>Annual</strong> <strong>Report</strong> <strong>2011</strong>-12, <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong>,<br />

Copies printed : 1500<br />

ISSN 0972-6136<br />

IARI website : www.iari.res.in<br />

New Delhi - 110 012, India.<br />

Published by the Director, <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong>, New Delhi - 110 012, India, and printed at Venus Printers and Publishers,<br />

B-62/8, Naraina Indl. Area, Phase-II, New Delhi, Ph.: 45576780, 9810089097, E-mail: pawannanda@gmail.com


PREFACE<br />

The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> was the harbinger of India’s ‘Green Revolution’ and continues its<br />

efforts to bring Evergreen Revolution for sustainable food security and alleviation of malnutrition in the<br />

country. During this year, the institute has developed new crop varieties and technologies to enhance the<br />

productivity and profitability, resource use efficiency, environmental sustainability, and climate resilience in<br />

agriculture.<br />

A number of crop varieties were developed with enhanced productivity, quality, and resistance to biotic and<br />

abiotic stresses. Two new basmati rice genotypes, namely, Pusa 1509-03-1-7-2 and Pusa 1509-03-3-9-5 superior to<br />

Pusa 1121 are in the final year of evaluation. A high yielding bread wheat variety Pusa Chaitanya (HD 3043) with<br />

stripe and leaf rusts resistance was released for cultivation under restricted irrigated conditions of North<br />

Western Plains Zone. In addition, three new wheat varieties HI 1572, HI 8704 and HS 514 have been identified<br />

for cultivation in different agro-climatic zones. Two extra bold chickpea varieties Pusa 5023 (Kabuli) and Pusa<br />

5028 (the first extra bold desi type) have been developed for release in the NCR. In mustard, variety, Pusa<br />

Mustard 28 with seedling stage heat tolerance was released for September sowing as an additional crop between<br />

kharif and rabi. In soybean, YMV, Rhizoctonia blight and bacterial pustule resistant and bold seeded variety Pusa<br />

12 was identified for Northern Plains Zone. In vegetables, an onion variety, Sel 126, a cauliflower variety Pusa<br />

Shukti, a ridge gourd variety Pusa Nutan and the first heat stress tolerant carrot variety Pusa Vristi were<br />

released during this year.<br />

Several genetic stocks possessing unique traits have been identified, characterized and developed in crops,<br />

microbes and insects. QTLs for grain number and quality in rice; leaf rust resistance in wheat; grain quality in<br />

maize; fertility restoration in pigeonpea; black rot resistance in cauliflower; and ToLCNDV resistance in tomato<br />

and sponge gourd were mapped. Novel techniques for diagnostics and management of crop pests, eco-friendly<br />

technologies for conservation agriculture, crops and resources management were developed. Significant<br />

achievements have been made in developing remote sensing and GIS-based methods for assessing and<br />

managing crops and resources. New farm machineries, namely, aqua-ferti-seed drill for chickpea, mechanical<br />

hydrogel applicator, mechanical carrot planter, semi-automatic and automatic metering system for garlic<br />

cloves, high capacity Pusa compost sieving machine and basmati rice thresher were developed.<br />

The <strong>Institute</strong> also made significant contribution by providing excellent human resource to NARS and<br />

CGIAR system, and continuing its leadership role in agricultural education. The Golden Jubilee Convocation of<br />

the <strong>Institute</strong> was held on February 20, 2012 with the Hon’ble Prime Minister of India, Dr. Manmohan Singh as<br />

the chief guest who was conferred with the D.Sc. (Honoris Causa) degree. During this year, the <strong>Institute</strong> received<br />

the prestigious “Sardar Patel Outstanding ICAR Institution Award” for the year 2010 for its outstanding<br />

contribution to agriculture, in addition to several awards and recognitions received by the scientists and<br />

students. The <strong>Institute</strong> made a special effort during this year to develop technologies and strategies for<br />

increasing the profitability and livelihood security of the small farmers and transfer these to the farmers<br />

through its extension programmes across the country in partnership with a number of SAUs, NGOs and other<br />

ICAR institutions.<br />

The report was compiled by a multidisciplinary team of the scientists under the guidance of Dr. Malavika<br />

Dadlani, Joint Director (<strong>Research</strong>). I express my appreciation to this team for bringing out this report.<br />

July 5, 2012 (H.S. Gupta)<br />

New Delhi Director


Preface<br />

IARI: An Introduction<br />

Executive Summary<br />

1. Crop Improvement<br />

2. Genetic Resources<br />

3. Crop and Resource Management and Environment<br />

4. Crop Protection<br />

5. Basic and Strategic <strong>Research</strong><br />

CONTENTS<br />

1.1 Cereals 9<br />

1.2 Millet 12<br />

1.3 Grain legumes 12<br />

1.4 Oilseed crops 13<br />

1.5 Fibre crop 14<br />

1.6 Vegetable crops 15<br />

1.7 Fruit crops 20<br />

1.8 Ornamental crops 21<br />

1.9 Seed science and technology 23<br />

2.1 Crop genetic resources 27<br />

2.2 Biosystematics and identification services 33<br />

3.1 Agronomy 36<br />

3.2 Soil management 40<br />

3.3 Water management 43<br />

3.4 Integrated nutrient management 46<br />

3.5 Nutrient management 49<br />

3.6 Orchard management 49<br />

3.7 Protected cultivation technology 50<br />

3.8 <strong>Agricultural</strong> engineering 55<br />

3.9 Rice-wheat cropping system 59<br />

3.10 Post-harvest technology and management 60<br />

3.11 Microbiology 64<br />

3.12 Environment science and climate resilient agriculture 70<br />

4.1 Plant pathology 75<br />

4.2 Entomology 80<br />

4.3 Nematology 84<br />

4.4 <strong>Agricultural</strong> chemicals 85<br />

4.5 Weed management 90<br />

5.1 Plant biotechnology 93<br />

5.2 Biochemistry 96<br />

1<br />

3<br />

9<br />

27<br />

36<br />

75<br />

93


5.3 Plant physiology 97<br />

5.4 Genetics 100<br />

5.5 <strong>Agricultural</strong> physics, remote sensing and GIS 103<br />

6. Social Sciences and Technology Transfer<br />

6.1 <strong>Agricultural</strong> economics 106<br />

6.2 <strong>Agricultural</strong> extension 111<br />

6.3 Technology assessment and transfer 116<br />

7. Empowerment of Women and Mainstreaming of Gender Issues<br />

7.1 Capacity building of self help groups for gender empowerment 130<br />

7.2 Impact of SHGs on women empowerment 131<br />

8. Post-Graduate Education and Information System<br />

8.1 Post-graduate education 132<br />

8.2 Information and database 139<br />

8.3 Library services 140<br />

9. Publications<br />

9.1 <strong>Research</strong>/symposia papers 141<br />

9.2 Books/chapters in books 141<br />

9.3 Popular articles 141<br />

9.4 Inhouse publications 141<br />

10. Commercialization and IPR Activities<br />

10.1 Intellectual property rights 143<br />

10.2 Technology commercialized 145<br />

10.3 Other activities 147<br />

11. Linkages and Collaboration<br />

12. Awards and Recognitions<br />

13. Budget Estimates<br />

14. Staff Position<br />

15. Miscellany<br />

Appendices<br />

Appendix 1: Members of Board of Management of IARI<br />

Appendix 2: Members of <strong>Research</strong> Advisory Committee of IARI<br />

Appendix 3: Members of Academic Council of IARI<br />

Appendix 4: Members of Extension Council of IARI<br />

Appendix 5: Members of Staff <strong>Research</strong> Council of IARI<br />

Appendix 6: Members of the Executive Council of IARI<br />

Appendix 7: Members of <strong>Institute</strong> Joint Staff Council (IJSC)<br />

Appendix 8: Members of Grievance Committee of IARI<br />

Appendix 9: Personnel<br />

106<br />

130<br />

132<br />

141<br />

143<br />

149<br />

150<br />

153<br />

155<br />

156


Originally established in 1905 at Pusa (Bihar) with<br />

the financial assistance of an American Philanthropist, Mr.<br />

Henry Phipps, the <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong><br />

(IARI) started functioning from New Delhi since 1936<br />

when it was shifted to its present site after a major<br />

earthquake damaged the <strong>Institute</strong>’s building at Pusa<br />

(Bihar). The <strong>Institute</strong>’s popular name ‘Pusa <strong>Institute</strong>’ traces<br />

its origin to the establishment of the <strong>Institute</strong> at Pusa.<br />

The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> is the<br />

country’s premier national <strong>Institute</strong> for agricultural<br />

research, education and extension. It has the status of a<br />

‘Deemed-to-be-University’ under the UGC Act of 1956,<br />

and awards M.Sc. and Ph.D. degrees in various<br />

agricultural disciplines.<br />

The growth of India’s agriculture during the past<br />

more than 100 years, is closely linked with the researches<br />

done and technologies generated by the <strong>Institute</strong>. The<br />

Green Revolution stemmed from the fields of IARI.<br />

Development of high yielding varieties of all major crops<br />

which occupy vast areas throughout the country,<br />

generation and standardization of their production<br />

techniques, integrated pest management and integrated<br />

soil-water-nutrient management have been the hallmarks<br />

of the <strong>Institute</strong>’s research. The <strong>Institute</strong> has researched and<br />

developed a large number of agrochemicals which have<br />

been patented and licensed and are being widely used in<br />

the country. Over the years, IARI has excelled as a centre<br />

of higher education and training in agricultural sciences<br />

at national and international levels.<br />

The mandates of the <strong>Institute</strong> are as follows:<br />

● To conduct basic and strategic research with a view<br />

to understanding the processes, in all their<br />

complexity, and to undertake need based research,<br />

that lead to crop improvement and sustained<br />

agricultural productivity in harmony with the<br />

environment<br />

● To serve as a centre for academic excellence in the<br />

area of post-graduate and human resources<br />

development in agricultural sciences<br />

IARI : AN INTRODUCTION<br />

1<br />

● To provide national leadership in agricultural<br />

research, extension, and technology assessment and<br />

transfer by developing new concepts and approaches<br />

and serving as a national referral point for quality<br />

and standards<br />

● To develop information systems, add value to<br />

information, share the information nationally and<br />

internationally, and serve as a national agricultural<br />

library and database<br />

The present campus of the <strong>Institute</strong> is a self-contained<br />

sylvan complex spread over an area of about 500 hectares.<br />

It is located about 8 km west of New Delhi Railway Station,<br />

about 7 km west of Krishi Bhavan, which houses the<br />

<strong>Indian</strong> Council of <strong>Agricultural</strong> <strong>Research</strong> (ICAR), and<br />

about 16 km east of Indira Gandhi International Airport<br />

at Palam. The location stands at 28.08 o N and 77.12 o E, the<br />

height above mean sea level being 228.61m. The climate<br />

is sub-temperate and semi-arid. The mean maximum daily<br />

temperature during the hot weather (May-October) ranges<br />

from 32.2 o C to 40 o C and the mean minimum temperature<br />

from 12.2 o C to 27.5 o C. June to September are rainy months<br />

during which about 500 mm of rainfall is received. Winter<br />

sets in from mid-November and is delightful. The mean<br />

maximum temperature during winter (November-March)<br />

ranges from 20.1 o C to 29.1 o C and the mean minimum<br />

temperature from 5.6 o C to 12.7 o C. During winter, a small<br />

amount of rainfall (about 63 mm) is received.<br />

The <strong>Institute</strong> has 19 divisions, 2 multi-disciplinary<br />

centres situated in Delhi, 8 regional stations, 2 off-season<br />

nurseries, one krishi vigyan kendra at Shikohpur, 2 all<br />

India coordinated research projects with headquarters at<br />

IARI, and 16 national centres functioning under the all<br />

India coordinated research projects. It has a sanctioned<br />

staff strength of 3073 comprising scientific, technical,<br />

administrative and supporting personnel. The revised<br />

budget estimates of the <strong>Institute</strong> constituted a total<br />

amount of ` 30323.98 lakh (Plan & Non-Plan) for the year<br />

<strong>2011</strong>-12.


Registrar &<br />

Jt. Director<br />

(Admn.)<br />

Comptroller<br />

Priortisation,<br />

Monitoring &<br />

Evaluation Cell<br />

ITMU<br />

ZTM & BPDU<br />

Publication<br />

Unit<br />

2<br />

Agronomy<br />

<strong>Agricultural</strong> Physics<br />

Soil Science & Agril. Chemistry<br />

Microbiology<br />

CESCRA<br />

Post Harvest Technology<br />

<strong>Agricultural</strong> Engineering<br />

Water Technology Centre<br />

Unit of Simulation and Informatics


The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> (IARI)<br />

maintained its pioneering role in agricultural research,<br />

education and extension, and developed several crop<br />

varieties, farm machineries and agro-technologies for<br />

crop production, crop protection and natural resource<br />

management. The significant contributions of IARI<br />

during the year <strong>2011</strong>-12 are summarized below:<br />

Crop Improvement programmes of the institute<br />

resulted in the development of an array of improved<br />

crop varieties and hybrids with enhanced productivity,<br />

quality, adaptability to different agro-ecosystems, and<br />

inbuilt resistance to biotic and abiotic stresses. In wheat,<br />

a bread wheat variety Pusa Chaitanya (HD 3043)<br />

possessing resistance to stripe and leaf rusts, and an<br />

average yield of 4.28 t/ha under restricted irrigated<br />

conditions was released for commercial cultivation in<br />

North Western Plains Zone. Another bread wheat<br />

variety, HI 1572 and a durum variety HI 8704 have been<br />

identified for rainfed and restricted irrigation<br />

conditions, and irrigated timely-sown conditions of<br />

Central Zone, respectively. In addition, a promising<br />

genotype HS 514 with a yield potential of 6.1 t/ha under<br />

irrigated and 4.5 t/ha under rainfed conditions has been<br />

identified for Northern Hills Zone.<br />

In rice, two elite basmati genotypes, namely, Pusa<br />

1509-03-1-7-2 and Pusa 1509-03-3-9-5, and two near<br />

isogenic lines in the background of Pusa Sugandh 5,<br />

namely, Pusa 1592-06-5-2 with bacterial blight<br />

resistance genes (Xa21 and xa13), and Pusa 1612-07-6-<br />

5 with blast resistance genes (Piz5 and Pi54) have been<br />

promoted to final year of testing in the All India<br />

Coordinated Rice Improvement Programme. In<br />

addition, two elite basmati lines in the background of<br />

PRR78, namely, Pusa 1601-05-1-46-1-1 with xa13 and<br />

Xa21 genes, and Pusa 1609-09-9-4 with Piz5 and Pi54<br />

genes were promoted to AVT 1-Basmati. A set of<br />

improved short grain aromatic rice lines and promising<br />

rice hybrids have also been developed, and are being<br />

tested in station trials.<br />

EXECUTIVE SUMMARY<br />

3<br />

In maize, several inbreds with high yield potential<br />

as well as TLB resistance have been identified. A MAS<br />

breeding programme for the development of QPM<br />

with altered starch and increased pro-vitamin A<br />

content is in progress. In barley, two elite genotypes,<br />

namely, BHS 398 and BHS 400 were promoted to the<br />

second year of testing under AVT-rainfed of All India<br />

Coordinated Trials. In pulses, seven promising<br />

chickpea genotypes and two pigeonpea genotypes<br />

have been nominated for testing in coordinated trials.<br />

Two extra bold seeded chickpea varieties were<br />

developed for NCR release.<br />

A mustard variety, Pusa Mustard 28 (NPJ 124),<br />

suitable for early sown (September), irrigated<br />

conditions in the states of Haryana, Rajasthan, Punjab,<br />

plains of J&K, Delhi and Western UP was released. It<br />

matures in 107 days with an average seed yield of 1.99<br />

t/ha. In soybean, a bold seeded high yielding variety<br />

Pusa 12 (DS 12-13) resistant to YMV, Rhizoctonia aerial<br />

blight and bacterial pustule was identified for release<br />

in Northern Plains Zone.<br />

In vegetable crops, an onion variety Sel 126 was<br />

identified for release by AINRP on Onion and Garlic,<br />

for commercial cultivation in the states of Delhi, UP,<br />

Haryana, Bihar, Punjab, Rajasthan, Gujarat, Madhya<br />

Pradesh, Chattisgarh and Orissa. It has compact, flat<br />

globe, and brownish colored bulbs with 17±2 0 Brix TSS<br />

and an average bulb weight of 70 to 100 g. A cauliflower<br />

variety Pusa Shukti (DC 5) with cream white, compact<br />

curd having semi-blanching of inner leaves has been<br />

developed for NCR. It is tolerant to downy mildew and<br />

black rot diseases and yields 42-44 t/ha in 80-85 days.<br />

One ridge gourd variety Pusa Nutan was also<br />

developed for cultivation in NCR. Pusa Vristi, the first<br />

high heat and humidity tolerant tropical carrot variety,<br />

was recommended for early sowing in July under north<br />

<strong>Indian</strong> plains. It yields 25 t/ha with an average root<br />

size of 150-200 g.


Three hybrids of grape, namely, BA × Per-75-32,<br />

Hur × Card-76-1 and (Hur × BE) × BS showed better<br />

performance in terms of berry maturity,<br />

competitiveness and other quality characters. In<br />

mosambi, selection MOS 1 was found to be promising<br />

for fruit weight, juice recovery and TSS, whereas MOS<br />

2 recorded highest fruit yield per plant.<br />

Gladiolus hybrids, Pusa Manmohak, Pusa Red<br />

Valentine and Pusa Vidushi were recommended for<br />

cultivation in NCR, Delhi. Pusa Manmohak is a midmaturing<br />

variety which flowers in about 100-105 days.<br />

This variety has saffron red florets and is excellent for<br />

vase decoration, bouquet preparation, floral<br />

arrangements and garden display. Pusa Red Valentine<br />

is also mid-maturing variety with straight and long<br />

spikes. The florets are brick or blood red in color with<br />

sun ray like small lines on the lower tepals. Pusa<br />

Vidushi is an early-maturing variety with straight spike<br />

and good rachis length. Its florets are purplish white<br />

in color with grey purple spots on the base of the throat.<br />

Inter-varietal lilium hybrids PKLH 1, PKLH 3 and<br />

PKLH 8 were found promising in flowering characters.<br />

Several genetic stocks possessing unique traits have<br />

been identified, characterized and developed in crops,<br />

microbes and insects. In rice, two improved lines of<br />

PRR 78, namely, Pusa 1602-06-24-5-45 with Piz5 gene<br />

and Pusa 1603-06-11-4-19 with Pi54 gene for blast<br />

disease resistance were developed. A predominately<br />

gynoecious line (PreGy 1) of bitter gourd with high<br />

female:male ratio (5:1 to 7:1) was developed. Two<br />

sponge gourd lines IC-0588956 and IC-0588957 resistant<br />

to Tomato leaf curl New Delhi virus (ToLCNDV) were<br />

registered with NBPGR. In chickpea, the first true<br />

breeding determinate genotype, BGD 9971 with bushy,<br />

compact, dwarf habit, and an extra bold seeded desi<br />

chickpea BGD 2608 have been developed.<br />

In fungal biodiversity eight new species, viz.,<br />

Asteridiella mellittiicola, Asterina homonoiae,<br />

Asterostomella enogeissil, Circosla listae, Maheshwaroncyces<br />

coclilii, Meliola dysoxyligena, M. mulabilides and M.<br />

premnigena were added. The fungal culture collection<br />

was further enriched with 58 new cultures including<br />

Coprinus disseminatum, Corynespora cassicola, Pyricularia<br />

setariae and Sporothrix fungorum. A new leafhopper<br />

species, Goniagnathus (Tropicognathus) keralaensis sp.<br />

4<br />

nov., and a new deltocephaline species Scaphoideus<br />

subsculptus sp. nov. were isolated from Kerala and<br />

characterized. A new species of entomopathogenic<br />

nematode, Steinerne maharryi n. sp. was recovered from<br />

a soil sample collected from Ambattur region of<br />

Chennai was characterized.<br />

The School of Crop and Resource Management<br />

focused its research on eco-friendly management of<br />

crops and resources for conservation agriculture and<br />

cropping systems. In mungbean-mustard cropping<br />

system, significantly higher mustard equivalent yield<br />

(>4.0 t/ha) was recorded under flat-bed with mulch,<br />

broad bed and furrow systems of planting as compared<br />

with conventional flat-bed planting. In wheat-based<br />

cropping systems, cotton gave almost three times more<br />

maize equivalent yield than maize, and about 1.5 to 2<br />

times more than pigeonpea. The yield of maize and<br />

cotton grown on flat-bed with zero tillage was<br />

equivalent to that of these crops grown on broad beds<br />

with residues. Preceding legume crop effected a saving<br />

of 50 kg N/ha in wheat. In maize-wheat cropping<br />

system, application of 25 kg ZnSO 4 /ha to both maize<br />

and wheat proved to be an effective Zn fortification<br />

strategy for wheat. Application of 60 kg K 2 O/ha<br />

through muriate of potash and 30 kg K 2 O/ha through<br />

FYM to both the crops maximized the productivity of<br />

maize-wheat cropping system.<br />

Application of super optimal NPK (150% NPK) or<br />

optimal NPK (100% NPK) + FYM continued to<br />

maximize the grain yield of maize and wheat, but the<br />

soil health was sustained in 100% NPK+FYM<br />

application. In pearl millet-wheat cropping system,<br />

instead of conventional 3-split application of N,<br />

replacing basal N for one additional top-dressing led<br />

to substantial increase in yield, agronomic efficiency<br />

and recovery efficiency of N in pearl millet and wheat.<br />

The highest grain yields of pearl millet (2.85 t/ha) and<br />

wheat (5.32 t/ha) were recorded under soil test crop<br />

response-based integrated fertilizer recommended<br />

dose plus 10 t FYM/ha.<br />

Planting of potato and cauliflower on flat-bed and<br />

irrigation in furrows resulted in significantly higher<br />

economic yields, water-use efficiency and B:C ratios.<br />

Onion crop geometry with 3 rows per bed recorded<br />

significantly higher average yield (21.05 t/ha) than that


with 2 rows per bed (19.05 t/ha) in L 28, Pusa Red, AFLR<br />

and Indam Synth 3 varieties.<br />

Protected cultivation technologies were developed<br />

for growing off-season vegetables and flowers. Insectproof<br />

net house cultivation method was developed to<br />

produce summer squash mosaic virus free crop in the<br />

summer season in north <strong>Indian</strong> plains. Cultivation of<br />

mint and coriander cultivation under shade net house<br />

during peak summer months and that of tomato<br />

cultivation under insect-proof net house during<br />

October to May was found to be techno-economically<br />

feasible.<br />

In micro-irrigation studies, highest productivity of<br />

baby corn, water use efficiency and nitrogen use<br />

efficiency were recorded in bi-weekly fertigation<br />

schedule followed by weekly fertigation schedule. In<br />

the drip-irrigated chrysanthemum, application of Pusa<br />

Hydrogel reduced the number of irrigations from 18<br />

to 12 during January to March. Drip fertigation system<br />

was optimized to produce healthy bulbs and cormels<br />

of gladiolus free of Fusarium wilt incidence.<br />

Laser leveling in 15 ha area led to the saving of<br />

about 15-20% water. In Mewat district, about 3.07 km<br />

underground pipeline (UGPL) was laid in the farmers’<br />

fields, which enhanced the water delivery efficiency<br />

and irrigated area by 40 and 45%, respectively, and<br />

reduced the irrigation time by 28%. Outputs of<br />

ClimGen and CROPWAT incorporated in AquaCrop<br />

model helped in precise estimation of future maize<br />

yields and irrigation water requirements under<br />

changing climatic conditions. Variably saturated model<br />

HYDRUS-1D and groundwater model MODFLOW<br />

evaluated the effect of climatic parameters on<br />

groundwater recharge and availability more effectively.<br />

New farm machineries, namely, aqua-ferti-seed<br />

drill for chickpea, mechanical hydrogel applicator,<br />

mechanical carrot planter, semi-automatic and<br />

automatic metering system for garlic cloves, high<br />

capacity Pusa compost sieving machine and basmati<br />

rice threshing machine were developed and evaluated.<br />

The farm operation service unit (FOSU) in collaboration<br />

with other divisions and Biomass Utilization Unit led<br />

to an efficient farm management with complete<br />

utilization of farm residues and other biomass on the<br />

5<br />

campus and their conversion to the compost/FYM. This<br />

initiative has led to self-sufficiency in terms of total<br />

compost/FYM requirement for the IARI experimental<br />

farm as well as resource generation.<br />

Value-addition and development of functional<br />

foods continued to be the thrust areas of post-harvest<br />

technology research. A technology was developed for<br />

production of functional ingredients from black carrots<br />

and capsicum, and its use to make bread enriched with<br />

carotenoids and anthocyanin. A ready-to-eat functional<br />

food was developed from quality protein maize and<br />

finger millet through extrusion processing. Technology<br />

for the production of fruit based carbonated beverages<br />

as “Pusa Sparkling Fruit Drink” was transferred for<br />

commercialization. A gamma radiation based method<br />

was developed to extend the shelf life of tomato.<br />

Bioprospecting of novel molecules and genes from<br />

microbes collected from extremely harsh environments<br />

of Sundarbans and Bhitarkanika mangroves led to the<br />

isolation of superoxide dismutase (SOD) gene that<br />

confers salt tolerance cyanobacteria SL-8. A HSP22 gene<br />

was isolated from heat and salt tolerant Chaetomium<br />

globosum. Microbial inputs-sustained organic farming<br />

in rice-based cropping systems resulted in significantly<br />

higher microbial biomass carbon, and enzyme activities<br />

as compared to integrated nutrient management and<br />

chemical fertilization. Trichoderma–Bacillus biofilm<br />

proved to be the most promising PGP and biocontrol<br />

agent for the cotton crop. Anabaena–Aspergillus awamori<br />

biofilm exhibited highest activity of �-1, 3 glucanase<br />

and ranked second in terms of chitosanase activity.<br />

Fungicidal activity was highest in Anabaena sp.- Bacillus<br />

and Anabaena–Psuedomonas biofilms. Glucosesupplementation<br />

was found to be the most promising<br />

strategy for generating high value biodiesel from algae<br />

because it significantly reduced poly unsaturated fatty<br />

acids and enhanced saturated fatty acids.<br />

Assessment of regional impact of climate change<br />

on rice yield using the InfoCrop-Rice model projected<br />

that irrigated rice yields in India may decrease by ~4%<br />

in 2020, 7% in 2050 and ~10% in 2080 scenarios. Rainfed<br />

rice yields in India are likely to be reduced by ~6% in<br />

2020 scenario, but in 2050 and 2080 scenarios they are<br />

projected to decrease only marginally (


use and application of 25% of additional nitrogen can<br />

offset the adverse impacts of climate change, and<br />

increase the rice production by 6-17% in irrigated and<br />

20-35% in rainfed conditions in future climate<br />

scenarios. Rice, chickpea, mustard, potato and green<br />

gram appears to be more suitable crops for future<br />

climatic scenarios with elevated temperature and CO 2 .<br />

Growing of direct-seeded rice followed by zero-till<br />

wheat can reduce global warming potential by 41% as<br />

compared to the transplanted-rice followed by<br />

conventionally tilled-wheat. Zero tillage, integrated<br />

nutrient management, use of nitrification inhibitor and<br />

site-specific nutrient management are recommended<br />

to reduce GHG emission in the Indo-Gangetic plains.<br />

The School of Crop Protection has developed novel<br />

techniques in diagnostics and management of crop<br />

pests. Genetic diversity studies using DNA markers in<br />

Puccinia species and Bipolaris sorokiniana infecting<br />

wheat; Fusarium spp. infecting rice and chickpea, and<br />

Rhizoctonia solani led to the development of specific<br />

diagnostic PCR markers. Multilocus sequence typing<br />

of Xanthomonas axonopodis pv. punicae, which causes<br />

pomegranate blight, revealed a single virulence lineage.<br />

Studies on the etiology of chirke disease of large<br />

cardamom led to the identification of a new virus<br />

species, Large cardamom chirke virus (LCCV).<br />

Resistance sources and effective chemicals were<br />

identified for integrated pest management in rice and<br />

soybean. Emamectin benzoate combined with neem<br />

baan proved effective against brinjal fruit borers.<br />

Laboratory rearing techniques for Spodoptera litura and<br />

cotton mealy bug parasitoid, Aenasius bambawalei were<br />

developed. Novel green labeled insecticides have been<br />

identified. Pasteuria isolated from Heterodera cajani<br />

showed attachment to Globodera spp., indicating cross<br />

generic affinity. A combined strategy of biofumigation,<br />

soil solarization and azadirachtin–A nano formulation<br />

was developed for effective management of nematodes.<br />

RNAi silencing of Famide like peptide (FLPs) genes,<br />

namely, FLP14 and FLP18, and one sub ventral<br />

esophageal gland specific gene 16D10 significantly<br />

reduced nematode attraction and penetration of the<br />

root-knot nematode, Meloidogyne incognita. Novel<br />

natural and synthetic molecules with antifungal and<br />

nematicidal activity were developed. Extracts from<br />

6<br />

Clerodendron infortunatum and Tagetes erecta were<br />

characterized and found to have antifungal activity.<br />

Regional thematic map was developed for<br />

prediction of yellow rust of wheat. Wheat yellow rust<br />

pathotype, 78S84 was reported for the first time from<br />

IARI, Regional station, Wellington. Non structural<br />

proteins (NSPs) were identified as suppressor of RNA<br />

silencing in ground nut bud necrosis virus (GrBNN).<br />

Analytical methods for pesticide residue analysis<br />

were standardized. Residue analysis for<br />

chlorantranipole on mustard and cabbage revealed a<br />

safe waiting period of 3 days, while a safe waiting<br />

period of 5 days is suggested for chlorfenapyr on<br />

brinjal. Metal oxides and nano-clay materials were<br />

developed to decontaminate pesticides and herbicides<br />

from water. Controlled release nano-formulation of<br />

azadirachtin-A prepared using polymer matrix<br />

effectively decreased Callosobruchus analis insect<br />

populations in soybean. In weed management studies,<br />

tank-mix application of pendimethalin with<br />

imazethapyr significantly reduced Cyperus rotundus in<br />

maize fields, giving higher weed control index.<br />

Combined application of clodinatop and carfentrazone<br />

significantly controlled weeds in wheat field.<br />

The School of Basic Sciences mapped/isolated<br />

genes for disease resistance, grain quality, grain<br />

number, fertility restoration and abiotic stress tolerance<br />

in different crops. Leaf rust resistance gene Lr45 was<br />

mapped in wheat. A single dominant gene in the<br />

genetic stock FLW 13 was found to confer resistance to<br />

stripe rust pt. 46S119 and 78S84 pathotypes. In<br />

cauliflower, a RAPD marker “RAPD 04833” linked to<br />

black rot resistance gene was identified. ToLCNDV<br />

resistance gene was mapped using interspecific crosses<br />

in tomato and two SCAR markers, namely, TGO 302<br />

and P6-6 that are linked to the ToLCNDV resistance<br />

gene were identified. Similarly, four SRAP (Sequencerelated<br />

amplified polymorphism) markers closely<br />

linked to ToLCNDV were identified in sponge gourd.<br />

These markers will be useful in the MAS breeding for<br />

disease resistance.<br />

In rice, 24 QTLs for various grain quality traits were<br />

mapped using a F 2 population from the cross between<br />

short grain aromatic landrace Sonasal with Pusa


Basmati 1121. Fine mapping of grains per panicle QTL<br />

in rice led to the narrowing down of this QTL within a<br />

30 kb region. In maize, mgussr061 and mgussr276<br />

markers were found to be closely linked to the sugary1<br />

(su1) and shrunken2 (sh2) locus, respectively, and hence<br />

useful for stacking these genes in MAS breeding. In<br />

pigeonpea, an SSR marker linked to male fertility<br />

restorer (MFR) gene was identified.<br />

High expression levels of HSFA4a (Heat Shock Factor<br />

4a), HSP17.3 and HSP101c were found be associated<br />

with heat tolerance in wheat. Complete coding<br />

sequence of HSFA4a from wheat and HSP17.3 from<br />

heat tolerant pearl millet were cloned and sequenced.<br />

Studies on VIGS (Virus-induced gene silencing)<br />

mediated silencing of Fatty Acid Desaturase 7 (FAD7)<br />

gene in tobacco showed that reduction in linolenic acid<br />

and increased linoleic acid content in the membranes<br />

is a potential approach to enhance thermotolerance of<br />

plants. Comparison of kinetic properties of soluble<br />

starch synthases (SSS) from wheat and maize grains<br />

revealed that maize SSS has a lower Km, higher Vmax<br />

and thus higher catalytic efficiency (Vmax/Km) as<br />

compared with wheat SSS.<br />

Soybean quality improvement studies focused on<br />

off-flavor reduction and development of low phytate<br />

soybean. Eleven off-flavor causing volatile compounds<br />

comprising of short chain aldehydes, ketones and their<br />

alcoholic counterparts were identified by using a Solidphase<br />

Micro-Extraction and GC-MS analysis. Gammaradiation<br />

treatment was found to significantly enhance<br />

anthocyanin content and decrease in the LOX activity,<br />

and thus reduced the off-flavor in dark-seeded<br />

soybeans. Gene constructs for silencing myo-inositol-3phosphate<br />

synthase 1 gene and over expression of<br />

PHYTASE specifically in seeds were made, and are<br />

being used for genetic transformation to develop low<br />

phytate soybean.<br />

Phenotyping for abiotic stress tolerance and<br />

nutrient use efficiency focused on development of high<br />

throughput phenotyping techniques, identification of<br />

contrasting genotypes and development of mapping<br />

populations that will be useful for mapping genes and<br />

genetic improvement. Hyperspectral remote sensing<br />

based high throughput, real-time and non-destructive<br />

methods were developed for phenotying for different<br />

7<br />

traits. Hyperspectral reflectance based continuum<br />

removal factor (CR � ) at 1450 and 1930 nm was found<br />

to be effective in measurement of relative water content<br />

of rice under lab conditions. A “red edge” technique<br />

based on hyperspectral remote sensing was developed<br />

for non destructive measurement of N stress in wheat.<br />

Similarly, pulsed NMR longitudinal relaxation time<br />

measurement technique was developed for nondestructive<br />

and high throughput phenotyping of<br />

drought tolerance of wheat.<br />

Evaluation of 71 rice genotypes for heat tolerance<br />

during summer season under field conditions resulted<br />

in identification of NERICA-L-44, which is more heat<br />

tolerant than Nagina 22 in survival, spikelet fertility<br />

and grain yield. Maize inbred lines with contrasting<br />

waterlogging tolerance were identified based on cup<br />

and field phenotyping of a set of 264 diverse maize<br />

inbred lines, and were used to make 16 different<br />

crosses. Phenotyping results of Vigna spp. showed that<br />

ricebean and urdbean were highly tolerant to<br />

aluminium (Al) stress, and hence interspecific crosses<br />

were made to transfer Al tolerance from these plants<br />

to mungbean. Phenotyping for organic acids exudation<br />

from roots that help solubilize non-available P in the<br />

soil led to the identification of PDM 139 in green gram.<br />

Twenty three wheat genotypes with high NUE were<br />

identified from field phenotyping of 110 wheat<br />

genotypes. A high affinity nitrate transporter from<br />

B. juncea was cloned and sequenced (GenBank #<br />

JQ305139.1).<br />

During this year several mapping populations<br />

were developed. In maize, based on waterlogging<br />

tolerance and genetic distance, crosses among the<br />

highly tolerant inbreds such as LM16 × Pant1393, LM16<br />

× HKI1105, LM16 × CML425, Pant122 × Pant 1393,<br />

Pant122 × HKI1105, Pant122 × CML425 and HKI1105 ×<br />

CML425 are selected for testing under multiple<br />

locations. In pearl millet, five mapping populations,<br />

namely, PPMI 683 × PPMI 627, 5054 × TPR 14, 5141 ×<br />

TPR 14, PPMI 627 × PPMI 813 and PPMI 813 × 15040<br />

for high iron and zinc content and spike thickness were<br />

advanced. In mustard, to develop ‘0’ and ‘00’ varieties,<br />

55 BC 3 F 1 were made based the genotypic data for<br />

glucosinolate and erucic acid. Further, phenotyping for<br />

erucic acid and glucosinolate content in a large number


of breeding lines led to the identification of 23 breeding<br />

lines with “double zero” trait.<br />

Geophysical and GIS techniques were developed<br />

for crop and natural resource management. Soil<br />

adjusted vegetation index was found to be a better<br />

measure for irrigation scheduling in wheat over large<br />

areas. In wheat, reduction of 18% irrigation water was<br />

found to improve both water use efficiency (WUE) and<br />

nitrogen use efficiency without yield loss. Further,<br />

“WUE Predictor” software was developed to predict<br />

WUE of wheat under water deficit stress.<br />

Hyperspectral signatures based green normalized<br />

difference vegetation index measured at milk stage was<br />

found to be useful to predict grain yield and protein<br />

concentration in wheat.<br />

A study on the impact of climate change,<br />

specifically the effect of increase in temperature on the<br />

crop water requirement (CWR), predicted that the<br />

CWR and net irrigation requirement will decline 4-7%<br />

in 2020-21 and 6-17% in 2050-51 due to high<br />

temperature stress induced reduction in crop<br />

phenophases. Yield gap analysis for major crops were<br />

carried out for western Uttar Pradesh by using<br />

geophysical and GIS techniques. This will help develop<br />

strategies to reduce yield gap in these area.<br />

The School of Social Sciences continued to make<br />

significant contributions in the areas of agricultural<br />

economics, extension and technology dissemination,<br />

transfer and assessment. Policy options for inclusive<br />

agricultural growth, regional trade, agricultural<br />

investments, energy use and development of non-farm<br />

sector were some areas in which economic analysis<br />

were undertaken. <strong>Research</strong> in the area of extension<br />

focused on assessing extension strategies and<br />

developing innovative and alternative approaches<br />

besides conducting research on entrepreneurship<br />

development. Dissemination of the IARI technologies<br />

and assessment of the performance of new technologies<br />

8<br />

in the field, training of farmers in production<br />

technologies and vocational enterprises, and<br />

dissemination of information were carried out by the<br />

CATAT, ATIC and KVK. The <strong>Institute</strong> also initiated a<br />

programme with an independent organization (ITC-<br />

Choupal Pradarshan Khet programme) for validation<br />

of its technologies at farmers’ fields in a large number<br />

of villages in U.P.<br />

The Golden Jubilee Convocation of the Post<br />

Graduate School of IARI was held on February 20, 2012.<br />

The Hon’ble Prime Minister of India, Dr. Manmohan<br />

Singh, was the chief guest. At this convocation, a total<br />

of 120 M.Sc. and 82 Ph.D. students were awarded<br />

degrees, and Dr. Manmohan Singh was conferred with<br />

the Degree of Doctor of Science (Honoris Causa). The<br />

first A.B. Joshi Award was conferred upon Dr. R.S.<br />

Paroda, former Director-General, ICAR & Chairman,<br />

Farmers’ Commission of Haryana for his outstanding<br />

contributions in agriculture research. The <strong>Institute</strong><br />

strengthened student amenities in a major way. Besides<br />

PG degree education, the <strong>Institute</strong> also conducted 127<br />

regular and short-term training courses. Agriinformation<br />

and bioinformatics continued to receive<br />

the <strong>Institute</strong>’s attention. The IARI Library continued<br />

to provide services to the students and the scientific<br />

community of IARI and other institutions in the<br />

country. The <strong>Institute</strong> brought out several quality<br />

publications in the form of scientific peer reviewed<br />

research papers, symposia papers, books/chapters in<br />

books, popular articles, regular and ad-hoc publications,<br />

both in English and Hindi, to disseminate information<br />

on the <strong>Institute</strong>’s mandated activities. During the year<br />

under report, the <strong>Institute</strong> won the Sardar Patel<br />

Outstanding ICAR Institution Award for the year 2010,<br />

as well as the Environment Leadership Award of<br />

Agriculture Today, <strong>2011</strong>. In addition to this, many<br />

faculties, scientists and students of the <strong>Institute</strong><br />

received prestigious awards and recognitions, and<br />

brought laurels to the <strong>Institute</strong>.


1. CROP IMPROVEMENT<br />

The crop improvement programme of the <strong>Institute</strong> is primarily targeted towards enhancing productivity in<br />

crops through judicious combination of conventional and molecular breeding approaches for genetic enhancement<br />

and pre-breeding, developing crops with resistance/ tolerance to biotic and abiotic stresses, improved nutritional<br />

quality and breeding crop varieties capable of coping with the changes in climate.<br />

1.1 CEREALS<br />

1.1.1 Wheat<br />

1.1.1.1 Variety released<br />

Pusa Chaitanya (HD 3043). A wheat variety, Pusa<br />

Chaitanya (HD 3043) with an average yield of 4.28 t/ha<br />

and a genetic potential of 6.6 t//ha was released for<br />

commercial cultivation under restricted irrigated<br />

conditions of North Western Plains Zone. HD 3043 has<br />

high level of resistance against stripe and leaf rusts. It<br />

has the best HMW sub-units combination for bread<br />

making with Glu-1 score, 8/10.<br />

Wheat variety Pusa Chaitanya<br />

9<br />

1.1.1.2 Varieties identified for release<br />

HI 1572. A wheat variety HI 1572 developed at<br />

Regional Station, Indore was identified for release for<br />

rainfed and restricted irrigation conditions of Central<br />

Zone. It is a widely adapted genotype combining early<br />

maturity with stable high yield. It gave 17% higher yield<br />

under rainfed and almost 10% higher under restricted<br />

irrigation over HI 1500 (Amrita), a popular bread wheat<br />

variety.<br />

HI 8704. A durum wheat variety HI 8704 was<br />

identified for release for irrigated, timely sown<br />

conditions of Central Zone. It is a widely adapted<br />

genotype with average yield of 4.9 t/ha, being 1.4 % to<br />

7.0 % higher over the checks, viz., HI 8498, MPO 1215,<br />

Lok 1 and HI 1544. It showed high levels of seedling<br />

and field resistance to stem and leaf rusts in addition<br />

to the African stem rust race ‘Ug99’ and its variants.<br />

1.1.1.3 Entries in coordinated trials<br />

A large number of wheat genotypes were tested in<br />

coordinated trials under various production conditions<br />

throughout the country.<br />

Trials Entry name/ number (Zone)<br />

Advanced Varietal AVT II: HD 3059, HD 3065 (NWPZ),<br />

Trials (AVT) HD 3070 (NWPZ & NEPZ), HD 3075 (SHZ)<br />

AVT I: HD 3075 (SHZ), HD 3076, HD 3078,<br />

HD 3079 (NEPZ), HD 3077, HD 3080, HD<br />

3081, HD 3091, HD 3098 (NWPZ), HD 3095<br />

(CZ), HD 3086 (NWPZ & NEPZ), HD 3090,<br />

HD 3093, HD 3096 (PZ)<br />

Durum: HI 8724(NWPZ, CZ & PZ), HI 8725<br />

(CZ & PZ), HI 8726 (CZ, NWPZ), HI 8728<br />

(NWPZ, CZ & PZ), HI8730 (CZ),<br />

HI 8731(CZ).


Trials Entry name/ number (Zone)<br />

National Initial NIVT-1A: HD 3104 (NWPZ), HD 3105,<br />

Evaluation Trials HD 3106, HD 3107, HD 3108, HD 3109,<br />

(NIVT) HD 3110 (All Zones)<br />

NIVT-1B: HD 3311, HD 3112, HD 3113,<br />

HD 3116 (All Zones)<br />

NIVT-2: HD 3114, HD 3115 (CZ & PZ)<br />

NIVT-3 : HD 3117 (NWPZ), HD 3118,<br />

HD 3119 (All Zones)<br />

NIVT-4 : HD 4727 (All Zones)<br />

NIVT-5A : HD 3120, HD 3121, HD 3122,<br />

HD 3123 (All Zones)<br />

1.1.1.4 Promising genotype identified<br />

A genotype HS 514 developed at Regional Station<br />

(Tutikandi), Shimla has shown a yield potential of<br />

6.1 t / ha under irrigated and 4.5 t/ ha under rainfed<br />

condition. It gave higher grain yield ranging from 8.8%<br />

to 28.7% against the checks, HS 240, VL 738, VL 804,<br />

VL 907 and TL 2942 under irrigated condition and also<br />

recorded a yield gain 5.8% to 27.7% against checks, TL<br />

2942, VL 804, VL 738, HS 240 and VL 907 under rain<br />

fed condition in three years of testing in Northern Hills<br />

Zone under AICW & BP. It has shown superiority over<br />

the checks for iron content and resistance against hill<br />

bunt and flag smut.<br />

1.1.1.5 Breeding for cropping system under<br />

different production conditions and<br />

conservation agriculture<br />

Thirteen entries selected for their adaptation to zero<br />

till condition under various cropping system, viz., ricewheat,<br />

maize–wheat and pearl millet-wheat were<br />

contributed for evaluation under a multi location trial<br />

Wheat under maize-wheat cropping system on permanent bed<br />

10<br />

across seven locations in the northern plain zone and<br />

four entries, namely, CSW1, CSW 15, CSW 16 and CSW<br />

18 were found to be promising.<br />

1.1.2 Rice<br />

1.1.2.1 Promising genotypes<br />

Pusa 1509-03-1-7-2 (IET21959), an elite Basmati<br />

genotype developed from the cross Pusa 1301/ Pusa<br />

1121 was tested in Advanced Varietal Trial 1-Basmati<br />

during kharif <strong>2011</strong> and has been promoted to<br />

Advanced Varietal Trial 2-Basmati. It has semi-dwarf<br />

plant stature (95 - 100 cm), 120 days seed to seed<br />

maturity and average yield of 4.14 t/ha. Pusa 1509-<br />

03-1-7-2 showed significant superiority over Taraori<br />

Basmati (32.87 %) across 10 locations in the Basmati<br />

growing region. In the panel test in the AICRIP, this<br />

entry was rated as first based on appearance<br />

cohesiveness, elongation and aroma comparable to<br />

Pusa Basmati 1 and Taroari Basmati, while in taste it<br />

was superior to the aforementioned check varieties.<br />

Compared to Pusa Basmati 1121, this genotype has<br />

an advantage of 20 days earliness, non-shattering and<br />

non-lodging habit.<br />

Pusa Basmati 1509 Pusa Basmati 1121<br />

Additionally, Pusa 1509-03-3-9-5 (IET21960), a<br />

sister line of Pusa 1509-03-1-7-2, was rated second in<br />

the grain and cooking quality traits in the coordinated<br />

trial. Based on its grain quality which is on a par with<br />

Pusa Basmati 1121 and added advantage of 20 days<br />

earliness, non-shattering and non-lodging habit and<br />

superior grain shape after cooking, these two entries<br />

have been promoted to final year of testing in the All<br />

India Coordinated Rice Improvement Programme.


1.1.2.2 Entries in coordinated trials<br />

Two Near Isogenic Lines (NILs) in the background<br />

of Pusa Sugandh 5, namely, Pusa 1592-06-5-2 (IET<br />

22289) possessing two bacterial blight resistance genes<br />

(Xa21 and xa13) and Pusa 1612-07-6-5 (IET 22290)<br />

possessing two blast resistance genes (Piz5 and Pi54),<br />

were tested in Advanced Varietal Trial 1-Basmati (NILs)<br />

during kharif <strong>2011</strong> and based on their desirable basmati<br />

quality and yield performance, and resistance to BLB<br />

and blast diseases, respectively, these two NILs have<br />

been promoted to second year of testing. Two elite lines<br />

with BB and blast resistance in the background of<br />

PRR78 namely, Pusa 1601-05-1-46-1-1 (IET 22777)<br />

possessing BB resistance genes xa13 and Xa21, and Pusa<br />

1609-09-9-4 (IET 22778) possessing blast resistance<br />

genes Piz5 and Pi54 were tested in Initial Varietal Trial<br />

- Basmati during kharif, <strong>2011</strong> and exhibited significant<br />

yield superiority over Pusa Basmati 1, Taroari Basmati<br />

and Pusa Basmati 1121. Based on yield, physicochemical<br />

quality and panel acceptability scores these<br />

two cultures have been promoted to Advanced Varietal<br />

Trial 1-Basmati.<br />

1.1.2.3 Development of dwarf high-yielding<br />

short grain aromatic rice lines<br />

Advanced breeding lines from the cross between<br />

Kalanamak and a semi-dwarf short grain aromatic rice<br />

breeding line, Pusa 1176 were raised and tested during<br />

kharif <strong>2011</strong>. Several single plant selections with earliness<br />

and dwarf growth habit, along with grain and cooking<br />

quality similar to Kalanamak have been identified for<br />

further evaluation. These lines will be further tested in<br />

order to identify promising cultures which could be<br />

utilized in enhancing the production and productivity<br />

of short grain aromatic rices in Kalanamak belt of Uttar<br />

Pradesh.<br />

1.1.2.4 Evaluation of newly identified potential<br />

hybrids<br />

A set of 19 hybrids identified during kharif 2010<br />

with more than 10% higher yield over the commercial<br />

hybrids Pusa RH 10, PA 6444 and PHB 71, were<br />

evaluated during kharif <strong>2011</strong> at two locations, namely,<br />

New Delhi and Hyderabad. The hybrid NPRH 5 and<br />

NPRH 11 have been identified promising, as their<br />

11<br />

performance was on a par with or better than the<br />

leading hybrid PA 6444.<br />

1.1.3 Maize<br />

1.1.3.1 Promising inbred lines and hybrids<br />

developed<br />

Two hundred fifty inbred lines, developed at the<br />

Regional Station, Dharwad, , were evaluated for their<br />

per se performance and Turcicum leaf blight (TLB). Ten<br />

inbreds, BM 91, BM 109, BM 127, BM 188, BM 196, BM<br />

253, BM 257, BM 258, BM 260 and BM 423 with yield<br />

potential of more than 3.5 t/ha and a TLB score of < 2.0<br />

were found promising for use in the production of<br />

single cross hybrids. In addition, three hybrids, viz.,<br />

TM 103, TM 124, TM 135 with 20.5 to 45.6% under late<br />

maturity group and three hybrids, viz., TH 302, TH<br />

269, TH 305 with 38.4 to 49.9% heterosis have been<br />

developed. Five sweet corn hybrids have been<br />

identified with 9.84 to 21.09% heterosis over popular<br />

sweet corn variety Priya.<br />

1.1.3.2 Maize improvement for nutritional<br />

quality and specialty traits<br />

A total of 184 different F 1 combinations were<br />

developed from inter-crosses between 100 diverse<br />

normal inbreds with two QPM donors (HKI 161 and<br />

HKI 193-1) for transferring QPM trait into maize.<br />

A set of 523 families/sub-families possessing<br />

variability for kernel colour, texture, plant types and<br />

maturity in sh2 and su1 background were advanced<br />

to S 3 .<br />

Diversity for plant architecture and ear colour, shape, texture<br />

among newly developed sweet corn inbreds


A set of 95 inbred lines were analyzed for the<br />

carotenoid content, the analysis indicated that <strong>Indian</strong><br />

inbreds are poor in beta-carotene and betacryptoxanthin,<br />

while they were rich in in lutein and<br />

zeaxanthin. The inbreds found to be rich in pro-vitamin<br />

A components are being used as donor in the provitamin<br />

A enrichment programme. A set of 18 F 1<br />

combinations were produced by crossing <strong>Indian</strong> inbreds<br />

positive for crtRB1 locus with CIMMYT inbreds having<br />

crtRB1 gene, for diversification of maize inbreds.<br />

1.1.4 Barley<br />

1.1.4.1 Entries in coordinated trials<br />

Two genotypes, namely, BHS 398 and BHS 400<br />

were promoted to second year of testing under AVTrainfed<br />

of All India Coordinated Trials. Four genotypes,<br />

viz., BHS 402, BHS 403, BHS 404 and BHS 405 under<br />

AVT-rainfed and six genotypes, viz., BHS 407, BHS 408,<br />

BHS 409, BHS 410, BHS 411 and BHS 412 under AVT<br />

dual purpose were entered in Northern Hills Zone on<br />

the basis of their agronomic superiority and disease<br />

resistance under AICW & BP.<br />

1.2 MILLET<br />

1.2.1 Pearl Millet<br />

1.2.1.1 Development of high yielding dual<br />

purpose hybrids with early maturity and downy<br />

mildew resistance<br />

Three hundred test crosses were attempted using<br />

different cytoplasmic male sterile lines and restorers<br />

High yielding pearl millet hybrids (from left to right Hybrid 7807,<br />

Proagro 9444 and hybrid 7893)<br />

12<br />

during kharif, 2010 and summer <strong>2011</strong>(off-season at<br />

ICRISAT), and were evaluated in Initial Station Trial<br />

during kharif, <strong>2011</strong> and 10 best hybrids were identified<br />

for further testing. One hundred fifty new hybrid<br />

combinations were also developed in line × tester fashion.<br />

1.3 GRAIN LEGUMES<br />

1.3.1 Chickpea<br />

1.3.1.1 Entries in coordinated trials<br />

Three entries, namely, BG 3012, BG 3021 and BG<br />

3022 were tested in IVT (extra-large seeded Kabuli) and<br />

four entries, namely, BGD 1063, BGD 1064, BG 3017,<br />

and BG 3018 were tested in IVT (late sown) in<br />

coordinated trials during rabi <strong>2011</strong>-2012.<br />

1.3.1.2 Development of high yielding desi and<br />

Kabuli genotypes resistant to Fusarium wilt<br />

A set of 469 wilt resistant single plants were<br />

identified from the segregating generations and the wilt<br />

resistant single plants were evaluated in progeny rows<br />

in two preliminary yield trials along with checks during<br />

rabi <strong>2011</strong>-12. Additionally, 222 lines F 6-8 wilt resistant<br />

progenies with >10% yield advantage over the best<br />

check, large to extra-large seed size and attractive seed<br />

color were promoted for testing in replicated yield trials<br />

during <strong>2011</strong>-12. Another set of 74 (39 desi and 35 Kabuli)<br />

entries were tested in advance trials during <strong>2011</strong>-12.<br />

1.3.1.3 Breeding high yielding extra-large seeded<br />

Kabuli genotypes<br />

In PYT-1, 121 large to extra-large seeded Kabuli<br />

chickpea lines (F 8 ), which were earlier than or as early<br />

as the check, were evaluated for phenology, seed size<br />

and yield along with 2 checks (BG 1108 and BG 5023)<br />

and 34 lines were found to be on a par with or better<br />

than the best check.<br />

1.3.1.4 Development of early maturing desi and<br />

Kabuli genotypes suitable for late planting<br />

A set of 115 early maturing lines were evaluated in<br />

an unreplicated yield trial along with checks (BG 372<br />

and JG 11) during 2010-11. Based on yield, seed size<br />

and seed color, 14 early maturing lines were identified<br />

for evaluation in station trial during <strong>2011</strong>-12 under<br />

normal and late sown conditions.


1.3.1.5 Promising large seeded short duration<br />

Kabuli chickpea genotypes<br />

At Regional Station, Dharwad, four large seeded<br />

Kabuli genotypes BGD 2207-14-1-SB-B-B, BGD 2601-20-<br />

B-B, BGD 2602-3-B-B, BGD 2602-22-B-B with high yield<br />

under rainfed residual moisture conditions were<br />

identified.<br />

1.3.2 Mungbean<br />

1.3.2.1 Promising genotypes<br />

Six mungbean genotypes, namely, Pusa 1131, Pusa<br />

1072, Pusa 1171, Pusa 1172, Pusa 1231 & Pusa 1232 were<br />

identified to be promising.<br />

1.3.2.2 Pre-breeding<br />

Sixty-three crosses including both inter-varietal<br />

and inter-specific were made to combine earliness with<br />

bold seed size and MYMV resistance.<br />

1.3.3 Lentil<br />

1.3.3.1 Promising genotypes<br />

Five lentil genotypes, namely, L 4588, L 4590, L<br />

4591, L 4706, L 4707 were found promising in the<br />

evaluation.<br />

1.3.3.2 Pre-breeding<br />

Forty-five crosses were made utilizing<br />

microsperma, macrosperma and mediterranean lines<br />

to combine earliness, bold seed size, wilt and rust<br />

resistance and higher Fe and Zn content.<br />

1.3.4 Pigeonpea<br />

1.3.4.1 Entries in coordinated trial<br />

Two genotypes, namely, Pusa <strong>2011</strong>-1 and Pusa<br />

<strong>2011</strong>-2 were tested under all <strong>Indian</strong> Pigeonpea<br />

Coordinated Trial during kharif <strong>2011</strong>-12.<br />

1.3.4.2 Hybridization and breeding<br />

In order to develop early variety and bold seeded<br />

material, 51 crosses were made during <strong>2011</strong>, out of<br />

which 14 crosses were promising for early maturity and<br />

higher seed yield while 7 crosses were promising for<br />

bold seed size. In F 2 generation, only 13 out of 33 crosses<br />

were found to be promising on the basis of seed yield<br />

and early maturity. At Regional station, Pusa, 333<br />

13<br />

desirable single plants and 55 lines were selected in F 5<br />

derived from progenies of different crosses.<br />

1.3.4.3 Breeding for development of hybrids<br />

Based on performance of F s for male fertility<br />

1<br />

restoration over environments GTR 11, GTR 9, AKPR<br />

100, AKPR 9, AKPR 417 were found to be stable<br />

restorer.<br />

BC 4 F 1 s were generated for transferring A 2<br />

cytoplasm into 16 genotypes and A 4 cytoplasm into 25<br />

genotypes. Male sterility has been incorporated into<br />

Pusa Dwarf. Parents involved in 12 highly heterotic<br />

crosses are being included in conversion programme.<br />

A total of 70 progenies of inter-specific crosses<br />

involving C. scarabaeoides × Pusa 33 including bold<br />

seeded lines were evaluated for identification of new<br />

A and R lines.<br />

1.3.4.4 Promising elite lines<br />

Six elite lines, namely, Df E.E.1, Df sel-3, Pusa <strong>2011</strong>-<br />

1 Pusa <strong>2011</strong>-2, Hbr-5 and IDT-5 were found to be<br />

promising and has been earmarked for evaluation in<br />

station trial.<br />

1.4 OILSEED CROPS<br />

1.4.1 Brassicas<br />

1.4.1.1 Variety released<br />

Pusa Mustard 28 (NPJ 124). This variety is suitable<br />

for early sown (September), irrigated conditions in the<br />

Pusa Mustard 28


states of Haryana, Rajasthan, Punjab, plains of J&K,<br />

Delhi and Western UP. It matures in 107 days with an<br />

average seed yield of 1.99 t/ ha. Its per day productivity<br />

is very high (18.63 kg/day/ha) in comparison to all<br />

released varieties with 41.5% oil content. It possesses<br />

high temperature tolerance at seedling and grain filling<br />

stage and fits well in multiple cropping system. This<br />

variety can be grown as an additional (catch) crop<br />

between kharif and rabi seasons in NWPZ when fields<br />

generally remain vacant during September (after<br />

harvest of kharif crops) to mid-December (sowing of<br />

rabi crops). It is a good substitute of toria.<br />

1.4.1.2 Entries in coordinated and common trials<br />

Entries were tested in coordinated and common<br />

trials.<br />

AICRP RM trial Entry designation<br />

IVT-Toria/ Early Mustard NPJ 162, NPJ 163<br />

(Irrigated/ Rainfed)<br />

IVT-Timely Sown Mustard NPJ 153, NPJ 156<br />

(Irrigated/ Rainfed)<br />

IVT - Late Sown Mustard NPJ 161<br />

IVT- Mustard Quality LES 44, LES 45<br />

AVT-I Mustard Quality LES 42, LES 43<br />

AVT-II Quality Mustard LET 36<br />

(Agronomic evaluation)<br />

1.4.1.3 Conversion of CMS and restorers for<br />

hybrid development<br />

Above 192 backcrosses were attempted to transfer<br />

different male sterility inducing cytoplasm, viz.,<br />

Moricandia arvensis, Diplotaxis erucoides and Diplotaxis<br />

berthautii in the nuclear background of 19 genotypes<br />

To transfer the fertility restorer genes, in Moricandia<br />

arvensis, Diplotaxis erucoides and Diplotaxis berthautii<br />

cytoplasms, in 8 genetic background, viz., NPJ 93, NPJ<br />

112, LES 1-27, LES 39, Pusa Jagannath, Pusa Agarni,<br />

RH 30, LET 17, and 313 BC 1 crosses were attempted in<br />

paired fashion.<br />

1.4.1.4 Promising short duration elite lines<br />

Out of 31 lines tested in Station Trial, four<br />

genotypes, viz., MSTE 11-1 (NPJ-102/PJ//NPJ102),<br />

MSTE 11-7 (SEJ-8/RGN-48), MSTE 1-26 (DHR-991/PA)<br />

14<br />

and MSTE 11-29 (DHR-991/PA) out yielded Pusa<br />

Mustard 28 with less than 100 days maturity.<br />

1.4.2 Soybean<br />

1.4.2.1 Variety identified<br />

Pusa 12 (DS 12-13). This variety was identified for<br />

release in Northern Plains Zone (comprising states of<br />

Delhi, Haryana, Punjab, Uttrakhand, U.P. and Bihar).<br />

It demonstrated significantly higher yield over the best<br />

check SL 688 (32.44%). DS 12-13 has resistance against<br />

yellow mosaic virus (YMV), Rhizoctonia arial blight (RAB)<br />

and bacterial pustule (BP). It is moderately resistant to<br />

stem fly, and defoliators. It is a bold seeded variety<br />

having 100-seed weight of 10.53 g, good seed longevity<br />

and high oil content (19.60%).<br />

Soybean variety Pusa 12<br />

1.4.2.2 Entries in coordinated trials<br />

In soybean, one entry DS 12 5 was promoted to<br />

AVT II in Northern Plains Zone and two entries DS<br />

2706 and DS 2708 to AVT I.<br />

1.5 FIBRE CROP<br />

1.5.1 Cotton<br />

1.5.1.1 Entry in coordinated trials<br />

Genotype ‘P 2151’ ranked 1 st in Central Zone and<br />

4 th in South Zone in national trial under rainfed


conditions. It produced 1.37 t/ ha seed cotton yield in<br />

Central Zone, out yielding zonal check by 48.4% and<br />

local check by 15.7%.<br />

1.5.1.2 Evaluation of advance genotypes<br />

A set of 92 promising genotypes were evaluated<br />

in station trials and P 11-1 was found to be one of the<br />

most promising with seed cotton yield of 2.90 t/ha,<br />

2.5% span length of 29.3 mm and 24.9 g/ tex fibre<br />

strength.<br />

A set of promising strains, namely, P 5616, P 5618,<br />

P 5623, P 5612, P 5630, P 5644, P 5634, P 5642 with<br />

high yield and superior fibre quality were identified.<br />

Additionally, 12 progenies in F 6 also showed good<br />

performance with high yield and superior fibre<br />

quality.<br />

1.6 VEGETABLE CROPS<br />

1.6.1 Cole Crops<br />

1.6.1.1 Cauliflower<br />

Variety released. A cauliflower variety Pusa Shukti<br />

(DC 5) was released by the Delhi State Seed Subcommittee<br />

for NCR Delhi. This variety has cream white,<br />

compact curd having semi-blanching of inner leaves.<br />

It takes 80-85 days to reach to marketable stage and<br />

duration of harvesting lasts for 14-15 days. It produces<br />

approx. 30-33 t/ha of curd yield and 42-44 t/ha of<br />

marketable yield. It is also tolerant to downy mildew<br />

and black rot diseases.<br />

Pusa Shukti<br />

15<br />

Promising genotypes. In early group, out of 282<br />

genotypes (including hybrids) evaluated from June<br />

transplanting, the hybrid CC-12 x Pusa Deepali<br />

recorded the highest marketable and curd weight (537<br />

and 433 g). Out of 116 hybrids evaluated from July end<br />

transplanting, VV × 41-5 was found to be the earliest in<br />

maturity (2 nd fortnight of September) with 570 g net<br />

curd weight. In mid-early group, out of 141 genotypes,<br />

CCM-5 × 310-22 P 4 recorded the highest marketable<br />

weight (2.37 kg). In mid-late group, out of 138<br />

genotypes CCM 8 × (PHJ × BR 2 × PHJ) gave the highest<br />

marketable yield of 113.58 t/ha. The curd yield,<br />

however, was found to be the highest in 8410 × PU P 1<br />

(57.45 t/ha). In snowball group, out of 9 F 1 hybrids<br />

evaluated, the highest marketable yield and curd yield,<br />

were recorded in KTH 27.<br />

At IARI Regional Station, Katrain, 3 CMS lines<br />

KTH 27 (68.6 t/ha) and KTH 52 (55 t/ha) and KTH 109<br />

(45.2 t/ha) were found to be promising.<br />

1.6.1.2 Cabbage<br />

Out of 14 F hybrids evaluated, KTCBH 651<br />

1<br />

recorded the highest head weight (2.45 kg) followed<br />

by KTCBH 883 (1.95 kg), whereas, hybrids KTCBH 997<br />

(1.84 kg) and KTCBH 621 (1.80 kg) have highly compact<br />

curds. The red cabbage hybrid KTCH 905 had the<br />

highest (130.52 mg/100 g fw) anthocyanin followed by<br />

KTCH 931 (125.42 mg/100 g fw).<br />

Two cabbage hybrids KTCBH 51 and KTCBH 81<br />

of IARI Regional Station, Katrain were promoted to<br />

AVT-II under the AICRP (VC) trials. KTCBH 81 gave<br />

the highest yield of 67.7 t/ha followed by KTCBH 51<br />

(61.4 t/ha) at the station in the AVT-I. One CMS based<br />

cabbage hybrid KTCBH 84 has been entered in IET<br />

under the AICRP (VC) trials during this year. In red<br />

cabbage, 11 hybrids were produced by using 4 CMS<br />

lines and hybrid 931 × RCGA was found to be the most<br />

promising.<br />

1.6.1.3 Other cole crops<br />

Variety released. A knol khol variety Pusa Virat<br />

developed at the Regional Station, Katrain was released<br />

by the H.P. State Seed Sub Committee. The variety has<br />

44% higher yield than ‘White Vienna’ and possesses<br />

little or no fibre at maturity. Harvesting can be started<br />

from 55 to 60 days after transplanting. A kale variety


KTK 64 were evaluated in IET under the AICRP (VC)<br />

trials. It gave the highest leaf yield of 57.6 t/ha. Five<br />

CMS lines were used to produce 7 hybrids of broccoli.<br />

Test hybrid BRH 2 gave highest head weight followed<br />

by BRH 6 and BRH 2. The CMS lines and their<br />

respective maintainers were suitably maintained.<br />

1.6.2 Cucurbitaceous Crops<br />

1.6.2.1 Bitter gourd<br />

Promising genotypes. Two entries (DBGS 37 and<br />

DBGS 57) were promoted to AVT-I under AICRP-VC<br />

trial. One variety DBGS 102 and two hybrids DBGH 12<br />

(gyn × mon) and DBGH 263 (mon × mon) were<br />

contributed to coordinated trials. Twelve new<br />

gynoecious × monoecious and 2 monoecious ×<br />

monoecious hybrids<br />

were evaluated and<br />

compared with 5<br />

hybrids of private seed<br />

companies. Among<br />

these hybrids, DBGy<br />

201 × S 2 (Gy × Mon)<br />

gave maximum yield<br />

(1.3 kg/plant) followed<br />

by S 2 × S 63 (Mon ×<br />

Mon; 1.1 kg/plant). The<br />

hybrid DBGy 201 × S 2<br />

produces fruits Fruits of DBGH 12<br />

two weeks earlier<br />

compared to monoecious × monoecious hybrids<br />

including hybrids of private seed companies. It requires<br />

only 48 days after sowing for the first female flower<br />

appearance.<br />

In BC 2 F 5 population derived from a DBGy-201<br />

(gynoecious) × Pusa Do Mausami (monoecious), one<br />

predominately gynoecious line (PDMGy) was extracted<br />

which had a very high percentage of pistillate (female)<br />

flowers and high yield potential. It was named as<br />

‘PreGy 1’ which showed high female: male ratio (5:1 to<br />

7:1) with a yield of 28.0 t/ha as against 18.8 t/ha in Pusa<br />

Do Mausami (check). The proposal for registration of<br />

this line as predominantly gynoecious line was<br />

submitted to NBPGR.Two earlier developed selections<br />

DBGS 32 and DBGS 54 were again evaluated and found<br />

promising for greenhouse cultivation as they produced<br />

16<br />

optimum fruit size without pollination. For attaining<br />

maximum fruit size, however, pollination is necessary.<br />

1.6.2.2 Cucumber<br />

Two selections DC 54 and DC 78 yielding 18.9 t/ha<br />

and 18.2 t/ha showed increase of 18.8% and 14.6 % over<br />

check Pusa Uday (15.9 t/ha), respectively. During kharif<br />

season, DC 82 was found promising with a yield of 19.3<br />

t/ha, an increase of 23.6 per cent over check Pusa Uday<br />

(15.6 t/ha) and it matures in 40-45 days. Two tropical<br />

gynoecious lines DGC 3 and DGC 10 showed stable<br />

performance at higher temperature. Two monoecious<br />

hybrid DCH 6 and DCH 9 and one gynoecious hybrid<br />

DCHG 10 yielded 21.8 t/ha, 20.9 t/ha and 21.3 t/ha,<br />

respectively.<br />

Under low cost polyhouse, individual plant<br />

selections on the basis of gynoecious parthenocarpic<br />

characters were carried out in F 3 generation they were<br />

advanced to F 4. . The parthenocarpic lines Sel. DPaC 6,<br />

DPaC 9 and DPaC 10, and gherkin lines DG 5, DG 8<br />

and DG 11 were observed to be highly promising.<br />

1.6.2.3 Luffa<br />

Fruits of PreGy 1 Cross section of Fruis of<br />

DBGS 54<br />

Variety released. One ridge gourd variety Pusa<br />

Nutan (DRG 2) was released by Delhi State Seed Subcommittee<br />

for NCR Delhi. Its fruits are<br />

long (25-30 cm), straight, attractive green with ten<br />

longitudinal angular ridges and average fruit weight<br />

is 105 g. It is suitable for spring-summer and kharif<br />

season. Average yield: 18.5 t/ha and 17.5 t/ha during<br />

spring summer and kharif. It is field tolerant to Luffa<br />

yellow mosaic virus.


Promising genotypes.<br />

Sponge gourd selections<br />

DSG 43 (15.9. t/ha), DSG 48<br />

(15.2 t/ha), DSG 104 (16.1 t/<br />

ha) and F 1 hybrids DSGH 3<br />

(17.1 t/ha) and DSGH 9 (16.7<br />

t/ha) were found to be<br />

promising. DSG 48, DSG<br />

104 and F 1 hybrids DSGH 3<br />

and DSGH 9 were<br />

promoted to AVT-1 of AICRP (VC) trial. The proposal<br />

of two Tomato leaf curl New Delhi virus resistant lines<br />

DSG 6 (IC-0588956 ) and DSG 7 (IC-0588957) was<br />

submitted to NBPGR for their registration as resistant<br />

source. In ridge gourd DRG74 was found promising<br />

having long light green fruits with an average yield of<br />

18.8 t/ha.<br />

1.6.2.4 Pumpkin<br />

In pumpkin, selections DPU 48, DPU 12 and DPU<br />

37 yielded 39.36 t/ha, 35.11 t/ha and 34.16 t/ha, showing<br />

an increase of 31.4%, 17.2% and 14.0 % over the check<br />

Pusa Vishwas (29.96 t/ha), respectively.<br />

1.6.2.5 Muskmelon and watermelon<br />

In muskmelon, selection DM 148 (23.2 t/ha)<br />

followed by DM 151 (22.4 t/ha) which gave about 22%<br />

and 18% higher yield over the check Pusa Madhuras<br />

(19 t/ha), respectively, were found promising. Sixteen<br />

newly developed F 1 hybrids were evaluated for yield<br />

and fruit quality, and DMH 3, DMH 5 and DMH 12<br />

were found promising. Three snap melon lines DSM<br />

10-5, DSM 11-2 and DSM 119-2 were identified as<br />

resistant for both wilt and virus. In watermelon, two<br />

lines PWMH 25-4 (7.6 mg/100 g) and IPWM 34-1(7.3<br />

mg/100 g) were selected for high lycopene content.<br />

1.6.2.6 Minor cucurbits<br />

Pusa Nutan<br />

In summer squash, selection DS 8 (15.8 t/ha) was<br />

found most promising and the yield advantage was<br />

27.4 % higher than that of the local check (12.4 t/ha). In<br />

long melon, selections DLM 27, DLM 34 and DLM 8<br />

yielded 27.69 t/ha, 25.63 t/ha and 23.32 t/ha showing<br />

an increase of 34.6%, 24.6% and 13.4% over the check<br />

Punjab Long melon (20.57 t/ha), respectively. In round<br />

melon, selections DRM 26, DRM 44 and DRM 3 yielded<br />

17<br />

7.38 t/ha, 7.02 t/ha and 5.77 t/ha showing an increase of<br />

49.26%, 41.96% and 16.78% over check Punjab Tinda<br />

(4.94 t/ha), respectively.<br />

1.6.3 Solanaceous Crops<br />

1.6.3.1 Brinjal<br />

In long fruited varietal trial, DBL 309 was found<br />

promising with an yield of 43.6 t/ha. Its fruits are long<br />

and white in colour. The line DBR 190, in round fruited<br />

varietal trial, yielded 42.9 t/ha and its fruits are green<br />

oval with an average fruit weight is 225 g. Out of 27 F 1<br />

combinations, tested in long fruited hybrid trial, DBHL<br />

115 and DBHL 150 were found better than the national<br />

check ARBH 201. F 1 combinations DBHR 49 and DBHR<br />

38 were found superior among all the combinations in<br />

round fruited hybrid trial. In resistance breeding trial,<br />

lines DBR 569 and Bl 1 were found tolerant against<br />

Phomopsis blight. Out of 34 lines/varieties/species<br />

tested, the highest total phenolics was found in Solanum<br />

torvum (234.5 mg GAE/100 g fw) and the highest<br />

flavonoids in S. incanum (25.9 mg/100 g fw). However,<br />

in cultivated brinjal, the highest total phenolics was<br />

found in green fruited line JBR-99 (90.8 mg GAE/100 g<br />

fw) and the highest flavonoids in a green fruited<br />

promising line Sel. G190 (12.7 mg/100 g fw).<br />

1.6.3.2 Tomato<br />

Fifty-four old and 13 new germplasm lines of<br />

tomato are being evaluated for yield, biotic and abiotic<br />

stresses. Two lines namely EC 717586 and EC 717587<br />

were found setting fruits at low temperature during<br />

December-January. These lines have been crossed with<br />

cultivated variety of tomato for the development of prebreeding<br />

material. Tomato breeding lines were<br />

screened for resistance against Tomato leaf curl virus<br />

(ToLCV). Lines TH 348-9, TH 348-4 and TH 348-3-7<br />

were found resistant to ToLCV under field conditions<br />

with good fruit yield. In cherry tomato, 20 selected lines<br />

were screened for setting fruits during kharif season<br />

and 2 were found resistant to ToLCV and could set<br />

fruits of good quality during October-November.<br />

Eighty-six F 1 s and 45 breeding lines of tomato were<br />

screened for setting fruits under low temperature<br />

regimes during December-January. Genotypes Pusa<br />

Sadabahar, Pusa Sheetal, FEB 2 and F 1 combinations


P.S. × Pusa Rohini, Lab. × FEB-2 and Lab. × BS were<br />

found setting fruits and ripening under low<br />

temperature conditions during December-January.<br />

Among 32 genotypes, antioxidant CUPRAC<br />

(� moltrolax/g fruit weight) value was the highest in<br />

Pusa Sadabahar × H-36 (5.47) followed by BS×H-24<br />

(4.64), PSH×699(4.51), Pusa Sadabahar (4.20) and TH<br />

348 (4.08).<br />

1.6.3.3 Chilli<br />

Out of 55 genotypes evaluated DCH 09-07, DCH<br />

09-09 and DCH 09-11 were found promising with yield<br />

of 20.5 t/ha, 19.38 t/ha and 18.85 t/ha, respectively. The<br />

cluster bearing and pendant fruited lines isolated from<br />

F 3 generation of Pusa Sadabahar × Pusa Jwala were<br />

advanced to F 4 generation.<br />

1.6.4 Root and Bulbous Crops<br />

1.6.4.1 Carrot<br />

Variety/hybrid released. One carrot variety Pusa<br />

Vristi (IPCHt2) and a temperate carrot hybrid Pusa<br />

Nayanjyoti were released by Delhi State Seed Subcommittee<br />

for NCR Delhi.<br />

Pusa Vristi is the first high heat and humidity<br />

tolerant tropical carrot variety. The roots are triangular<br />

in shape with purple pigmentation on shoulders and<br />

self-red coloured. It is suitable for early sowing<br />

beginning in July under North <strong>Indian</strong> plains. It takes<br />

90-95 days to harvesting. The average root size is<br />

150-200 g with 25 t/ha root yield.<br />

Pusa Vristi<br />

18<br />

The temperate carrot hybrid Pusa Nayanjyoti, the<br />

first F 1 hybrid of orange colour, is suitable for all carrot<br />

growing areas in temperate and tropical regions. The<br />

roots get ready for harvesting in 75-85 days. It is rich<br />

in �-carotene content (7.552 mg/100 g fw) with an<br />

average root yield of 39.6 t/ha.<br />

Promising tropical genotypes. Out of 21 genotypes<br />

evaluated in July sowing, the highest root weight was<br />

recorded in IPC 5 and Pusa Meghali Green Shoulder<br />

(125 g). Out of 10 hybrids, the highest root weight was<br />

recorded in IPC Ht-2 × IPC-116 (166.7 g). Thirty-five<br />

genotypes were evaluated under normal, the highest<br />

root weight was recorded in IPC 54 (215 g) followed<br />

by IPC 11 red (168 g each). The maximum root length<br />

was obtained in IPC 126 (24.8 cm) and root diameter in<br />

IPC 92 (4.72 cm) Out of 23 CMS lines evaluated for root<br />

weight, root length and root diameter, the root weight<br />

was the highest in IPC 55-1 P-2 (200 g). The maximum<br />

root length was noted in IPC 91-14 P-4 (25.20 cm) and<br />

root diameter in IPC 55-1 P-2 (4.36 cm). Among 105<br />

hybrid combinations evaluated, IPC-124-6 P-4 × IPC-<br />

16 Red (317 g) gave the highest root weight. Root length<br />

was maximum in IPC-11-1 Red P-11 × IPC-116 Red P-<br />

1 (33.17 cm) and root diameter in IPC-53-2 P-11 × IPC-<br />

96 Red (5.82 cm).<br />

Promising temperate genotypes. Out of the 13<br />

temperate carrot hybrids evaluated for root weight and<br />

root length, KTCH 750 and KTCH 813 (105 g) gave the<br />

highest root weight. The maximum root length was<br />

obtained in KTCH 122 (21.06 cm) followed by KTCH 8<br />

(20.06 cm).<br />

1.6.4.2 Radish<br />

Promising genotypes. Among 6 genotypes, Green<br />

Shoulder [DC (G-S)] gave the highest root weight (400<br />

g) followed by White White [DC (W-W)] (370.0 g),<br />

whereas, Pink Pink [DC (P i – P i )] and Purple Purple<br />

[DC (P u - P u )] genotypes gave average root weight<br />

(336.67, 236.67 g), root length (18.43, 17.13 cm) and<br />

root diameter (5.60, 5.00 cm), respectively. Out of 9<br />

genotypes, DC (P u -P u ) (8.51 mg/100 g fw) had the<br />

highest anthocyanin and maximum total carotenoids<br />

was recorded in Pink Pink [DC (P i – P i )] (1560 �g/100<br />

g fw) and ascorbic acid in Palam Hriday (56.94 mg/<br />

100 g fw).


1.6.4.3 Onion<br />

Variety identified. One variety Sel 126 was<br />

identified for release in the II nd group meeting of<br />

All India Network <strong>Research</strong> Project on Onion and<br />

Garlic, for commercial cultivation during rabi season<br />

in the zone III (Delhi, UP, Haryana, Bihar and<br />

Punjab), zone IV (Rajasthan and Gujrat) and zone V<br />

(MP, Chattishgarh and Orissa). It has compact, flat<br />

globe, and brownish coloured bulbs. The average<br />

equatorial diameter of bulbs ranges from 4.5 to 6.0<br />

cm, polar diameter ranges from 4.8 to 6.5 cm and<br />

single bulb weight ranges from 70 to 100 g.The<br />

variety has high TSS, average around 17 ± 2 0 Brix.<br />

The variety is suitable for storage, drying, processing<br />

and export.<br />

Sel 126<br />

The average yield recorded is 25 t/ha and the<br />

variety gave an average 64.08 % increase over check<br />

(15.26 t/ha).<br />

Promising genotypes. The genotype Sel 383 gave<br />

consistently the best performance at multi-locational<br />

trial with an average yield of 32.23 t/ha. The CMS based<br />

hybrids, H 60 showed the best performance with 39.3%<br />

yield increase compared to the best commercial hybrid<br />

Flare (33.50 t/ha) followed by H 9 (26.4% increase) and<br />

H 21 (23.13% increase). In bunching onion, Sel BO 4<br />

was found promising for year round availability of<br />

green onion with an average yield of 29.3 t/ha from a<br />

single harvest.<br />

19<br />

1.6.5 Leguminous Crops<br />

1.6.5.1 Garden pea<br />

In garden pea, GP 17 was identified as early<br />

maturing, high temperature tolerant with better plant<br />

stand and resistant to wilt with good horticultural traits.<br />

Five genotypes GP 17, GP 6, GP 55, GP 473, Sugar Bon<br />

and 4 crosses were found resistance against Fusarium<br />

wilt. An early maturing genotype GP 901 was identified<br />

as powdery mildew resistant along with better<br />

horticultural traits like attractive green colour, long<br />

curved pod with 8-9 seeds, and GP 473 was found<br />

resistant to powdery mildew. Two edible podded lines<br />

GPE 1 and GPE 4 were found promising for fresh<br />

consumption besides resistant to powdery mildew.<br />

1.6.5.2 Minor legumes<br />

In dolichos bean, 4 creeper types Sel 5(purple-red<br />

pod), Sel 7 (dark green with purple sutures), Sel 10 (long<br />

white straight pod), and Sel 9 (long green straight pod)<br />

were identified as promising genotypes. In cowpea, 11<br />

genotypes were found promising as vegetable type, 12<br />

resistant to mosaic virus, 10 resistant to Cercospora and<br />

10 were tolerant to cold. In Faba bean, a promising high<br />

yielding line Sel 1 (16.58 t/ha) was evaluated against<br />

Pusa Sumeet (check) (9.16 t/ha) having longer fleshy<br />

pods and almost double pod width as compared to that<br />

of Pusa Sumeet l.<br />

1.6.6 Malvaceous Crop<br />

1.6.6.1 Okra<br />

The genotype DOV 66 was found completely free<br />

form YVMV disease during whole cropping season,<br />

whereas, genotypes DOV 64 and DOV 62, and hybrids<br />

Sonal and 1004 recoded YVMV disease after 90 days<br />

of sowing. Seventy-nine IC & EC lines of wild okra were<br />

evaluated for YVMV resistance and 10 lines of two wild<br />

species (A. moschatus and A. tetraphyllus) were found<br />

resistant to YVMV.<br />

1.6.7 Leafy Vegetables<br />

1.6.7.1 Amaranth<br />

Eight amaranth genotypes were evaluated for 8<br />

nutritional/quality traits. The genotypes showed<br />

variation in anthocyanin ranging from 5.33 mg/100 g


(Renu Sree) to 40.81 mg/100 g (Pusa Lal Chaulai).<br />

Maximum ascorbic acid was recorded in CO 1 (81.2<br />

mg/100g leaf sample) followed by Pusa Kirti (78.4 mg/<br />

100g of leaf sample). The highest antioxidant activity<br />

was recorded in Pusa Lal Chaulai (13.157μ mol ascorbic<br />

acid/g sample) followed by Pusa Kirti (13.033μ mol<br />

ascorbic acid/g sample). Total phenolic content was<br />

recorded maximum in CO 1 (1411.62 μg gallic acid eq./<br />

g of sample) followed by Pusa Lal Chaulai (1138.5 μg<br />

gallic acid eq./g of sample).<br />

1.6.7.2 Lettuce<br />

The highest leaf weight was observed in Romaine<br />

Rouge D Hiver (1.03 kg, cos lettuce) followed by curled<br />

lettuce (1.01 kg, leaf lettuce) and Valmaine cos (0.93<br />

kg, cos lettuce). Maximum Vitamin C was found in<br />

Iceberg Dublin F 1 hybrid (2.55 mg/100 g). The total<br />

carotenoids content was maximum in Balmoral (47.63<br />

mg/100 g) followed by HRI 10:006619 (45.42) and<br />

maximum anthocyanin in Lolla Rosa (182.43 mg/100<br />

g). Total chlorophyll was the highest in NVRS 10:001818<br />

(1.68 mg/g fw) followed by Iceberg Dublin F 1 hybrid<br />

(1.86 mg/g fw).<br />

1.7 FRUIT CROPS<br />

1.7.1 Mango<br />

1.7.1.1 Evaluation of hybrids<br />

Twenty mango hybrids were evaluated for<br />

different physico-chemical parameters. Fruit weight<br />

ranged from 147.4 g in H 2-11 to 377.2 g in H 11-4. Pulp<br />

percentage ranged from 50.2 in H 2-11 to 71.5% in H<br />

11-2. Intense red pigmentation on fruit surface was<br />

observed in H 11-2. Hybrid H 3-2 also showed red<br />

colour on the fruit surface.<br />

1.7.2 Citrus<br />

1.7.2.1 Malta sweet orange<br />

Among 16 Malta accessions, heavier fruits were<br />

recorded in MS 3 (262.09 g) and MS 13 (252.3 g) as<br />

compared to Jaffa (108.5 g) and juice content varied<br />

from 47.29% in MS 18 to 62.82% in MS 16 as compared<br />

to 44.24% in Jaffa. Total soluble solids (TSS) content<br />

was found to be the highest in MS 2 (11.3%) as<br />

compared to Jaffa (8.4%), whereas, the lowest acidity<br />

20<br />

was recorded in MS 6 (0.89%) and highest in MS 18<br />

(1.34%). Ascorbic acid content was found highest in<br />

MS 13 (41.25 mg/100 ml juice) followed by MS 3 and<br />

MS 18 (40.7 mg/100 ml juice). The highest yield per<br />

plant was recorded in MS 13 (33.04 kg) followed by<br />

MS 8 (26.4 kg).<br />

1.7.2.2 Mosambi sweet orange<br />

The maximum fruit weight (178.3 g) was recorded<br />

in MOS 1 with the highest juice recovery (60.03%), TSS<br />

(11.7%) and the lowest acidity (0.74%). However, per<br />

plant yield was recorded the highest in MOS 2 (21.6<br />

kg) followed by MOS 1 (18.2 kg) as compared to 10.8<br />

kg in Malta Blood Red, 6.02 kg in Jaffa and 3.68 kg in<br />

Valencia. Seed number varied from 7.8 in MOs 4 to 11.7<br />

seeds/fruit in MOS 1.<br />

Promising sweet orange cultivars (MOS 1, MOS 13, MOS 7 and<br />

MOS 16)<br />

1.7.2.3 Acid lime<br />

The maximum fruit weight was recorded in ALC<br />

2 (94.32 g) followed by Konkan seedless (72.82 g), while<br />

the lowest weight was found in ALC 5 (44.35 g).<br />

However, ALC 5 had the highest juice recovery (51.1%),<br />

the lowest seeds (3.0 seeds/fruit), the highest acidity<br />

(5.62%) and the maximum fruits per plant (65).<br />

1.7.2.4 Grapefruit<br />

Among 6 grapefruit cultivars, the maximum fruit<br />

weight was found in Foster (444.7 g) followed by<br />

Duncan (400.6 g) and Imperial (363.5 g), whereas, juice<br />

recovery was recorded the highest in Marsh Seedless<br />

(50.9%).


Promising grapefruit cultivars (Star Ruby, Foster Seedless and<br />

Marsh Seedless)<br />

1.7.2.5 Pummelo<br />

Thirteen pummelo genotypes were evaluated for<br />

physico-chemical traits. The heaviest fruit was<br />

observed in P 7 (1402.60 g) and segment weight varied<br />

from 290.4 g in P 1 to 653.5 g in P 11. The number of<br />

seeds varied from 55 (P 8) to 160 (P 2). The TSS ranged<br />

between 8.57% (P-1) to 10.3% (P-11).<br />

1.7.3 Grape<br />

Nineteen cultivars along with hybrids were<br />

evaluated for their performance under Delhi<br />

conditions. Out of these, Tas-e-Ganesh and Centennial<br />

Seedless performed well. Three hybrids, namely, BA ×<br />

Per-75-32, Hur × Card-76-1 and (Hur × BE) × BS showed<br />

better performance in terms of berry maturity and other<br />

desired characters.<br />

1.7.4 Guava<br />

Hybrid_75-32<br />

Thirty-six genotypes were evaluated for different<br />

physico-chemical traits. The maximum fruit weight<br />

21<br />

was observed in Thai guava (354 g). Hundred-seed<br />

weight was minimum in AS 12 and NS 1(0.87g each).<br />

TSS was found to be the highest in Arka Amulya<br />

(11.88%) and total antioxidants (14.25 �mol Trolax g -1 )<br />

was the highest in Black guava.<br />

1.7.5 Papaya<br />

Sixteen genotypes of papaya were evaluated for<br />

their yield and fruit quality traits. The variety Sinta was<br />

the earliest (78 days after planting) flowering genotype<br />

followed by Pusa Nanha (89 DAP) and Pusa Dwarf<br />

(93 DAP).<br />

At IARI Regional Station, Pusa, Pusa Majesty had<br />

minimal plant height (1.30 m) while CO 6 was the tallest<br />

(2.14 m) cultivar. Maximal collar diameter was<br />

exhibited by CO 6 (15.18 cm) and minimal in CO 2<br />

(11.59 cm). Time required for flowering was minimal<br />

in Red Lady (55 days after transplanting) and maximal<br />

in CO 2 (69 days after planting). Flowering height was<br />

minimal in Pusa Nanha (44 cm) and maximal in Red<br />

Lady (81 cm). Fruiting height was minimal in Pusa<br />

Nanha (52 cm) and maximal in CO 7 (87 cm). Maximal<br />

fruit yield was obtained in Pusa Nanha (39.459 kg/<br />

plant) Minimal fruit yield was obtained in Pusa Majesty<br />

(14.063 kg/Plant). Average fruit weight was minimal<br />

in Pusa Majesty (815 g) and maximal in CO 2 (1055 g).<br />

1.8 ORNAMENTAL CROPS<br />

1.8.1 Rose<br />

1.8.1.1 Promising genotypes<br />

Two new seedlings were found promising. SD 6 is<br />

a Hybrid Tea seedling of the variety Queen Elizabeth<br />

with dark red coloured flowers, and SD 7 is a<br />

Floribunda seedling of the variety Andorra and with<br />

orange coloured flowers in clusters and is ideal for<br />

garden display.<br />

SD 6: Seedling of cv. Queen<br />

Elizabeth<br />

SD 7: Seedling of cv. Andorra


1.8.2 Chrysanthemum<br />

Six new seedlings, namely, chacko, gazania, magic,<br />

red spoon and S4 from cv Lal Pari and yellow seedling<br />

from cv Sadbhawana were successfully isolated using<br />

in vitro tools. The regeneration percentage was the<br />

highest in chocolate brown coloured seedling from cv<br />

Lal Pari. A large number of regenerated plantlets were<br />

transferred to the greenhouse conditions.<br />

1.8.3 Gladiolus<br />

1.8.3.1 Hybrids identified<br />

Three hybrids, namely, Pusa Manmohak, Pusa Red<br />

Valentine and Pusa Vidushi were identified by the IARI<br />

Variety Identification Committee.<br />

Pusa Manmohak. Pusa Manmohak is a selection<br />

among the progeny obtained from the cross of Mayur<br />

x Hunting Song. This is a mid-maturing variety<br />

flowering in about 100-105 days. The florets are saffron<br />

red (40B) with thin whitish stripes on the throat of two<br />

oppositely placed lower tepals. Spikes are more than<br />

93 cm in length with good rachis length (55 cm) and<br />

about 19-21 number of florets per spike. About 5-6<br />

florets remain open at a time making it excellent for<br />

vase decoration, bouquet preparation, floral<br />

arrangements and for garden display.<br />

Pusa Red Valentine. Pusa Red Valentine is a<br />

selection among the open pollinated population of the<br />

variety ‘Regency’. This is a mid-maturing variety<br />

flowering in about 95 days. Spikes are straight and long<br />

with good rachis length (50-55 cm) and has close<br />

arrangement of 18-19 florets on spike. Florets are brick<br />

or blood red (53B) in colour with sun ray like small<br />

lines on the lower tepals.<br />

Pusa Vidushi. Pusa Vidushi is a selection among<br />

the progeny obtained from the cross of Melody ×<br />

Pusa Manmohak Pusa Red Valentine Pusa Vidushi<br />

22<br />

Berlew. It is an early and mid-maturing variety,<br />

flowering in 80-85 days after planting. Spikes are<br />

straight with good rachis length and about 15-16<br />

number of florets per spike. Florets are purplish white<br />

in colour with grey purple spots on the base of the<br />

throat.<br />

1.8.4 Marigold<br />

1.8.4.1 Morphological characterization of male<br />

sterile lines<br />

Apetalous male sterile lines of marigold, i.e.,<br />

MS 5 and MS 8 were characterized based on<br />

morphological characters. MS 5 produces yellow<br />

flowers, whereas MS 8 produces orange flowers. Data<br />

for various vegetative and floral characters was<br />

recorded and documented.<br />

MS 5 MS 8<br />

1.8.4.2 Promising genotypes<br />

Among African marigold, selection Af/R-<br />

19-1(152.33) was found better producing maximum<br />

flower per plant followed by Af/R-47 (112.67). In French<br />

marigold, selections numbered as Fr./R-2 and Fr./R-5<br />

were found very promising and produced 197.3 and<br />

250.3 flowers per plant, respectively. They produced<br />

medium size compact flowers which were excellent for<br />

garland making.<br />

1.8.5 Lilium<br />

1.8.5.1 Promising hybrids<br />

At IARI Regional Station, Katrain inter-varietal<br />

lilium hybrids were developed first time in India and<br />

evaluated. Hybrids PKLH 1, PKLH 3 and PKLH 8 were<br />

found promising in respect of vegetative and flowering<br />

characters. Hybrid PKLH 1 (Pollyanna × Prato)<br />

produces orange coloured compact flowers (15.5 cm)


PKLH 1<br />

(Pollyanna × Prato)<br />

on long and sturdy spikes, and suitable for cut flower<br />

production. Hybrid PKLH 3 (Shiraj × Sumplon)<br />

produces pink with yellow tinted center coloured<br />

flowers (17.6 cm) compact arrangement on short and<br />

sturdy stem with good individual flower longevity. It<br />

is highly suitable for pot culture. Hybrid PKLH 8<br />

(Navona × Brunello) produces orange red flowers with<br />

medium plant height of 48.2 cm and suitable for cut<br />

flower production.<br />

1.8.6 Tulip<br />

PKLH 3<br />

(Shiraj × Sumplon)<br />

At IARI Regional Station, Katrain, tulip genotypes<br />

were evaluated for vegetative, floral and bulb related<br />

traits. Apeldoorn, Blushing Apeldoorn, Golden Melody<br />

Montecarlo and Pretty Women are the promising<br />

genotypes ideal for growing in Kullu-valley. One<br />

species of local tulip, i.e., Tulipa clusiana was collected,<br />

domesticated and utilized in tulip improvement<br />

program.<br />

Promising cultivars of tulip<br />

PKLH 8<br />

(Navona × Brunello)<br />

23<br />

1.9 SEED SCIENCE AND<br />

TECHNOLOGY<br />

1.9.1 Hybrid Seed Production Technology of<br />

<strong>Indian</strong> Mustard Hybrid, NRCHB 506<br />

Hybrid seed production technology for the first<br />

<strong>Indian</strong> mustard hybrid NRC Sankar Sarson, NRCHB<br />

506, released by the Directorate of Rapeseed-Mustard<br />

<strong>Research</strong>, Bharatpur in 2008 for cultivation primarily<br />

in Rajasthan and U.P. was standardized. The hybrid<br />

NRCHB 506 gave 9.4, 14.3 and 12.8 per cent higher seed<br />

yield over Maya, Kranti and Varuna, respectively.<br />

Hybrid seed production through sowing in the third<br />

week of October and following the planting ratio of<br />

2:8 (male: female) produced hybrid seed yield of 2 t/<br />

ha.<br />

1.9.2 Comparison of Hybrid Seed Production<br />

between Open Field and Insect Proof Net<br />

House Conditions in Bitter Gourd<br />

Hybrid seed production technology of bitter gourd<br />

hybrids, Pusa hybrid 1 and 2 was compared under open<br />

field and net house conditions. On an average, under<br />

net house conditions, 12-14 fruits/vine with fruit weight<br />

of 160-200 g were borne as compared to 8-10 fruits with<br />

fruit weight of 80-120 g under open conditions. The<br />

mean seed yield of 2.0-2.5 kg of hybrid seed/100 sq m<br />

area of net house can be harvested per season. A farmer<br />

can earn ` 10,000 [5 kg seed /year (2 seasons) @ ` 2000/<br />

kg of seed]. The net house can be retained for 3-4 years<br />

Production of hybrid seeds of bitter gourd hybrids under net house<br />

conditions


with minor repair, thus the returns on seed production<br />

increases in the following years. The estimated costbenefit<br />

ratio is 1:1.6.<br />

1.9.3 Standardization of Procedure for<br />

Maintenance of CMS Lines in Wheat<br />

In order to develop hybrid wheat seed production<br />

technology, 3 sets of CMS and corresponding<br />

maintainer lines (B line) were grown in different row<br />

ratios (1:1, 1:2, 1:3, 1:4) to study flowering time, stigma<br />

receptivity, pollen movement and seed set at different<br />

rows from pollen parent rows. Stigma receptivity in<br />

the CMS ear heads was found to be maximum on 5 th<br />

day after secondary floret opening. Maximum seed set<br />

in the CMS line was obtained with a planting ratio of<br />

1:2 (B:A).<br />

1.9.4 Development of Seed Standards for<br />

Kalonji<br />

Nigella is commonly known as kalonji or black<br />

cumin, used for food seasoning and also for various<br />

medicinal purposes. Seed standards as well as seed<br />

testing protocols formulated in seed spice, Nigella sativa<br />

L. (Ranunculaceae) were standardized which will be<br />

helpful in seed quality assurance, seed certification and<br />

seed trade.<br />

1.9.5 Identification of Molecular Markers to<br />

Assess Hybrid Purity in Brinjal<br />

Among the 110 brinjal SSR markers screened, nine<br />

markers were identified that could be used to ensure<br />

the genetic purity of brinjal hybrid (Pusa-9, Pusa-5 and<br />

Kashi Komal) seed lot.<br />

1.9.6 Evaluation of Vigour Tests to Predict<br />

Seedling Emergence in Carrot<br />

The emergence of eight commercial seed lots of<br />

carrot (Daucus carota L.) was compared by standard<br />

tests. Germination tests were conducted at standard<br />

(20 °C) and non-standard temperatures of 15 °C, 25 °C<br />

and 30 °C. The accelerated ageing (AA) and saturated<br />

salt accelerated ageing (SSAA) tests were performed<br />

using four relative humidities, viz., standard AA<br />

(RH100%), NaCl (RH75%), Mg(No 3 ) 2 (RH53%) and<br />

CaCl 2 (RH29%). The seedling emergence percentage<br />

24<br />

M 1 2 3 4 5 6 7 8 9 M<br />

SSR markers identified for ensuring the hybridity in hybrid seed<br />

lots of respective brinjal hybrids. M: Molecular marker (20bp)1:<br />

Female parent of Pusa-9, 2 : Male parent of Pusa-9, 3 : Pusa hybrid-<br />

9, 4: Female parent of Pusa-5, 5: Male parent of Pusa-5, 6 : Pusa<br />

hybrid-5, 7: Female parent of KK, 8: Male parent of KK, and 9:<br />

Kashi Komal (KK).<br />

of the seed lots in the field was positively and<br />

significantly correlated with standard germination (r=<br />

0.937**), germination at non-standard temperature of<br />

15 °C (r= 0.954**) and saturated salt accelerated ageing<br />

using NaCl-RH75% (r= 0.952**). The results suggested<br />

that non- standard temperatures of 15 °C and saturated<br />

salt accelerated ageing using NaCl (RH75%) could be<br />

used further to predict seedling emergence of carrot<br />

seed lots in the field conditions.<br />

1.9.7 Seed Production<br />

The Seed Production Unit (Delhi) and the <strong>Institute</strong>’s<br />

regional stations at Karnal, Indore, Pusa, Katrain,<br />

Dharwad and Wellington produced nucleus, breeder<br />

and IARI seeds of different crops during the year under<br />

strict quality control.<br />

Nucleus Seed Production of wheat (HD 2851) at IARI Regional<br />

Station, Karnal


Production of seeds and planting material (tonnes)<br />

Crop group Nucleus seed Breeder seed IARI seed Total seed<br />

Seed production Unit, Delhi<br />

Wheat - 5.146 1.582 13.937<br />

Paddy - 11.160 2.823 11.372<br />

Chickpea 0.484 - - 0.484<br />

Mustard - 0.181 11.717 11.888<br />

Vegetables 0.012 0.253 2.457 2.722<br />

Fruit saplings - - 1249 Nos. 1249 Nos.<br />

Regional station, Karnal<br />

Paddy 2.112 110.823 127.150 240.085<br />

Maize - 0.350 - 0.350<br />

Barley - - 0.370 0.370<br />

Bajra - 0.185 0.013 0.198<br />

Sorghum 0.043 2.201 - 2.244<br />

Berseem - - 0.062 0.062<br />

Mustard 0.013 0.950 0.480 1.443<br />

Pulses 0.101 5.901 0.319 6.321<br />

Dhaincha - - 0.620 0.620<br />

Vegetables 0.253 11.325 4.006 15.584<br />

Regional Station, Indore<br />

Bread wheat - 1.103 - 1.103<br />

Durum wheat - 1.618 - 1.618<br />

Maize - 0.010 - 0.010<br />

Soybean - 0.036 - 0.036<br />

Papaya - 0.006 - 0.006<br />

Regional Station, Pusa<br />

Wheat 3.025 96.040 9.376 19.283<br />

Paddy - 0.110 20.769 20.879<br />

Maize - 0.257 4.885 5.142<br />

Papaya - - 0.024 0.024<br />

Tobacco 0.002 - 1.225 1.227<br />

25


Crop group Nucleus seed Breeder seed IARI seed Total seed<br />

pulses 0.051 0.430 1.326 1.807<br />

Toria - - 1.454 1.454<br />

Vegetables 0.0005 - 0.0565 0.057<br />

Regional Station, Katrain<br />

Vegetables - 0.100 3.349 3.449<br />

Regional Centre, Dharwad<br />

Pearlmillet - - 0.030 0.030<br />

Chickpea - 0.280 - 0.280<br />

Regional Station, Wellington<br />

Wheat - 6.000 - 6.000<br />

Monitoring of seed production in maize (CM 150)<br />

26<br />

Seed production of rice (Pusa Sugandh 5) at IARI Regional<br />

Station, Karnal


3. CROP AND RESOURCE MANAGEMENT<br />

AND ENVIRONMENT<br />

Green revolution during the mid-sixties, followed by the progress made in crop improvement and production<br />

research led to the achievement of food security of the country. However, intensive use of land and water, the two<br />

key natural resources, over a period of time resulted in decline in total and partial factor productivity; and<br />

deterioration of soil, water and environmental quality. Enhanced mechanization, application of higher rates of<br />

pesticides and reduced availability of organics accentuated the degradation of the natural resource base. With a<br />

commitment to achieve sustainable food, nutritional, environmental and livelihood security, IARI has in place a<br />

strong programme on sustainable management of key natural resources, soil, water, energy (in particular renewable<br />

energy) and climate.<br />

3.1 AGRONOMY<br />

3.1.1 Combined Application of Phosphorus<br />

and Zinc for Improved Productivity of<br />

Aerobic Rice<br />

A field experiment conducted during kharif <strong>2011</strong><br />

in an aerobic rice-wheat sequence showed that rice<br />

hybrid PRH 10 responded significantly to the P and<br />

Zn application. Highest yield was recorded at 80 kg<br />

P 2 O 5 and 10 kg Zn/ha, which was on a par with 80 kg<br />

P 2 O 5 and 5 kg Zn/ha. In general, magnitude of response<br />

to phosphorus was more than that of zinc.<br />

3.1.2 Effect of Legume on Nitrogen Economy,<br />

Soil Properties and System Productivity of<br />

Wheat-based Cropping System<br />

A fixed-plot field experiment was conducted for<br />

two consecutive years (2009-10 to 2010-11) to evaluate<br />

the effect of legumes and incorporation of their stover<br />

on wheat-based cropping system. Grain yield of wheat<br />

after groundnut or soybean was significantly superior<br />

to the yield obtained after maize. Stover incorporation<br />

further increased grain yield of wheat over no-stover<br />

incorporation. Mean effect of N was significant up to<br />

150 kg/ha. Significant interaction was noted between<br />

N levels and preceding crops and management of their<br />

residues.A preceding legume crop effected a saving of<br />

50 kg N/ha in wheat. Incorporation of the residues of<br />

36<br />

the preceding legume crop improved microbial<br />

biomass carbon, dehydrogenase activity, organic C<br />

content and bulk density compared to maize residues.<br />

In terms of system productivity, groundnut-wheat with<br />

groundnut stover incorporation @ 5 t/ha was found to<br />

be superior to all other systems.<br />

3.1.3 Fortification of Wheat through<br />

Micronutrient Application in Maize-Wheat<br />

Cropping System<br />

In a field experiment four treatments of Zn (Control<br />

or no-Zn; soil application of 12.5 kg ZnSO 4 /ha; soil<br />

application of 25 kg ZnSO 4 /ha; and foliar application<br />

of 0.5% ZnSO 4 at flag-leaf stage and one week after Ist<br />

spray) applied to maize hybrid PEHM 2 and a similar<br />

set of treatments were superimposed in succeeding<br />

wheat (DBW 17) and (PBW 343) to assess the<br />

productivity and quality of wheat. Grain and total<br />

biological yield of both the varieties of wheat increased<br />

significantly due to direct application of 25 kg ZnSO 4 /<br />

ha. Direct application of 25 kg ZnSO 4 /ha to wheat<br />

significantly increased gluten strength in DBW 17.<br />

Grain concentration of Fe, Zn, Cu and Mn in both the<br />

varieties of wheat was significantly higher due to soil<br />

application of ZnSO 4 to preceding maize crop and<br />

direct application of ZnSO 4 to wheat. The highest<br />

concentration of the micronutrients was recorded with<br />

the application of 25 kg ZnSO 4 / ha, followed by 12.5 kg


ZnSO 4 /ha and foliar application. Among varieties, PBW<br />

343 was more responsive and had contained higher<br />

levels of Fe, Zn and Cu whereas, Mn content was higher<br />

in DBW 17.<br />

At the IARI Regional Station, Indore, Madhya<br />

Pradesh, application of 10 kg Zn/ha in wheat recorded<br />

significantly higher biomass yield (12.3 t/ha), grain<br />

yield (4.28 t /ha) and crude protein content (13.6%) over<br />

5.0 kg Zn/ha and control. Similarly, application of 2.0<br />

kg B/ha increased the biological (13.4 t/ha) and grain<br />

yield (4.97 t/ha) which was significantly higher than<br />

that obtained from 1.0 kg B/ha and control.<br />

3.1.4 Effect of Integrated Potassium<br />

Fertilization on Yield and Quality of Maize–<br />

Wheat Cropping System<br />

The effect of potassium application on the yield<br />

and rhizospheric parameters of maize-wheat cropping<br />

system was studied. Significant response to K<br />

application was observed in both maize and wheat<br />

crops; all the K treatments were superior to control with<br />

respect to grain, straw and biological yields of maize<br />

and wheat. Significantly higher grain and stover yields<br />

of maize were recorded when 60 kg K 2 O/ha was applied<br />

through muriate of potash (MOP) and an additional<br />

dose of 30 kg K 2 O/ha was applied through FYM in<br />

comparison with other treatments. Superior root<br />

growth (length, volume, dry weight and average<br />

diameter) of maize at 0-15 cm depth was recorded and<br />

the population of soil bacteria, P solubilizers,<br />

actinomycetes and cellulose degraders was found to<br />

be significantly higher in this treatment. Activities of<br />

acid and alkaline phosphatase, FDA, dehydrogenase<br />

and �-glucosidase were also enhanced with the<br />

Effect of potassium fertilization on rhizospheric microbes in maize<br />

37<br />

application of 60 kg K 2 O/ha through MOP and 30 kg<br />

K 2 O/ha through FYM or application of 30 kg K 2 O/ha<br />

through MOP and 30 kg K 2 O/ ha through FYM.<br />

Application of 60 kg K 2 O/ha through MOP and 30<br />

kg K 2 O/ha through FYM to the wheat crop and to<br />

preceding maize, gave significantly higher grain and<br />

total biological yields of wheat. Similarly, wheat<br />

fertilized with 30 kg K 2 O/ha through MOP and 30 kg<br />

K 2 O/ha through FYM and preceding maize fertilized<br />

with 60 kg K 2 O/ha through MOP produced almost<br />

equal yields of wheat as were obtained from 60 kg K 2 O/<br />

ha through MOP and 30 kg K 2 O/ha through FYM given<br />

to wheat only and no K applied to preceding maize.<br />

3.1.5 Performance of Mungbean-Mustard<br />

Cropping System under Various Nutrient<br />

and Moisture Conservation Practices<br />

In mungbean-mustard cropping system<br />

significantly higher mustard equivalent yield (>4.0 t/<br />

ha) was recorded under flat-bed with mulch, broad bed<br />

and furrow systems of planting compared to<br />

conventional flat planting during kharif 2010-11.<br />

Application of 15 kg N+30 kg P 2 O 5 /ha + biofertilizer<br />

(PSB+VAM) to mungbean gave significantly higher<br />

grain yield of both mungbean and mustard. Direct<br />

application of 60 kg N + 60 kg P 2 O 5 /ha gave significantly<br />

higher grain yield of mustard than control and 30 kg<br />

N + 30 kg P 2 O 5 /ha.<br />

3.1.6 Nutrient Management and Moisture<br />

Conservation Studies in Pearl Millet and<br />

Cluster Bean under Sole and Intercropping<br />

Systems in Rainfed Conditions<br />

A field experiment was conducted to identify ideal<br />

sole/ intercropping system for rainfed areas under<br />

various moisture conservation and nutrient management<br />

practices. Pearl millet (Pusa composite 443) and cluster<br />

bean (HG 563) were planted as sole and intercropping<br />

systems (1:1 ratio) under two moisture conservation<br />

practices in main plots. Four nutrient management<br />

treatments, viz., control, 100% recommended dose of<br />

fertilizer (RDF), leaf and cow dung mixture compost (10<br />

t/ha) and leaf-compost (10 t/ha) were applied in sub-plots.<br />

Higher pearl millet equivalent yield (3.35 t/ha) was<br />

recorded when pearl millet was intercropped with cluster


ean compared to the sole pearl millet and sole cluster<br />

bean. Among nutrient management practices, leaf<br />

compost produced higher pearl millet equivalent yield<br />

than the rest of the treatments.<br />

3.1.7 Water Economization through Planting<br />

and Irrigation Methods<br />

3.1.7.1 Potato<br />

Field experiment conducted during rabi 2010-11<br />

showed that planting on flat-bed and irrigation in<br />

furrows recorded significantly higher tuber yield (33.1<br />

t/ha) and water-use efficiency (853.16 kg/ha/cm);<br />

consumptive use of water (CUW) was less (38.8 cm)<br />

and net return and B:C ratio were higher under this<br />

treatment. Further, irrigation at 50 mm cumulative pan<br />

evaporation (CPE) recorded significantly higher tuber<br />

yield (31.3 t/ ha). However, CUW was less where<br />

irrigation had been applied at 70 mm CPE (41.3 cm)<br />

resulting in the higher water-use efficiency (WUE). Net<br />

return was higher with irrigation at 70 mm CPE. Potato<br />

yield was significantly higher (32.4 t/ha) with irrigation<br />

at 6.0 cm depth. However, CUW was less under 4.0 cm<br />

irrigation depth, resulting in the higher WUE. Net<br />

return and B:C ratio were higher under the treatment<br />

where 6.0 cm irrigation was applied.<br />

3.1.7.2 Cauliflower<br />

Planting cauliflower on flat bed and irrigation in<br />

furrows recorded significantly higher curd yield (22.1<br />

t/ha). Consumptive use of water (CUW) was less in this<br />

treatment (crop consumed 27.5% less water), but WUE<br />

was higher. Net return and B:C ratio were higher under<br />

this treatment. Irrigation at 25 mm CPE recorded<br />

significantly higher curd yield (22.2 t/ha), net returns<br />

and B:C ratio. However, WUE was higher in this<br />

treatment. Irrigation at 6.0 cm depth recorded<br />

significantly higher curd yield (22.7 t/ha). However,<br />

CUW was less under 4.0 cm irrigation depth but WUE<br />

was higher with 6.0 cm irrigation depth. Net return<br />

and B:C ratio were higher under the treatment where<br />

6.0 cm irrigation was applied.<br />

3.1.8 Response of Newly Released Soybean<br />

Varieties to Date of Sowing<br />

A field investigation was carried out over a period<br />

of three years (kharif 2009 to <strong>2011</strong>) to assess the response<br />

38<br />

of soybean varieties to different weather conditions by<br />

sowing the crop at variable dates. During all the study<br />

years, July 5 and July 20 sown crops produced<br />

significantly higher seed yield than the June 5 and June<br />

20 sown crops. Between July 5 and July 20, seed yield<br />

obtained from July 5 sown crop was significantly higher<br />

during 2010 and <strong>2011</strong>, but the trend was reverse during<br />

2009 (drought year). Mean seed yield (1.37 t/ha) was<br />

also the highest with July 5 sowing date, which was<br />

significantly higher than yield recorded with June 5<br />

and June 20 sowing dates. Net returns followed the<br />

same trend as yield. On an average DS 9814 (1.30 t/ha)<br />

produced 18 and 4.4% higher seed yield than PS 1347<br />

and SL 525, respectively. The net returns were also the<br />

highest with this. Interaction effects of sowing dates<br />

and varieties were significant for average (average of 3<br />

years) yield and economics. The yield and net returns<br />

from PS 1347 were the highest when sown on July 20,<br />

while SL 525 and DS 9814 gave the highest yield and<br />

net returns when sown on July 5. Thus, it may be<br />

concluded that under climatic conditions of Delhi, first<br />

week of July is the right sowing time for all the three<br />

varieties though the sowing of DS 9814 and PS 1347<br />

can be delayed up to July 20 without significant yield<br />

reduction.<br />

3.1.9 Conservation Agriculture for<br />

Improving Resource-Use Efficiency and<br />

Productivity of Wheat-Based Cropping<br />

System<br />

With an objective to diversify the rice-wheat<br />

cropping system, three major non-rice cropping<br />

systems, viz., maize-wheat, cotton-wheat, pigeonpeawheat<br />

were assessed in an experiment with<br />

conservation agriculture practices. Among the three<br />

kharif crops, cotton was the best in terms of maize<br />

equivalent yield (11.2 t/ha), followed by pigeonpea (6.4<br />

t/ha) and maize (3.53 t/ha). Cotton gave almost three<br />

times more maize equivalent yield than maize, and<br />

about 1.5 to 2 times more than pigeonpea. Growing of<br />

maize and cotton on flat bed with zero tillage was<br />

comparable to growing of these crops under broad beds<br />

with residues, and all the methods of sowing were<br />

better than the conventional flat sowing of these crops<br />

except pigeonpea. Per cent increase in yields of maize,<br />

cotton and pigeonpea under zero till flat bed without


and with residues was 46.4 and 55.1, 71.3 and 73.7 and<br />

2.2 and 8.0, respectively, over that of the conventional<br />

till flat sown crops.<br />

3.1.10 Yield Evaluation Trial of<br />

Recommended and Popular Late Sown<br />

Varieties of Wheat in Eastern India<br />

Evaluation trials of the late sown wheat varieties<br />

recommended for north Bihar, conducted at the IARI<br />

Regional Station, Pusa, Bihar, revealed that the varietal<br />

group comprising of HD 2985, HD 2643, PBW 373,<br />

HUW 234 and K 9533 were higher yielders with the<br />

yields varying from 4.38 to 4.86 t/ha; inter-varietal yield<br />

differences within this group were statistically nonsignificant.<br />

But the other group comprising of NW 2036,<br />

DBW 17 and HP 1633 varieties were significantly lower<br />

yielders as compared to HD 2985, the highest yielder<br />

of the first group. These results offer options to the<br />

farmers to go in for the potentially higher yielding<br />

varieties depending on availability of their seed.<br />

3.1.11 Field Performance of Maize Hybrids<br />

in Different Seasons<br />

Five Vivek hybrids of maize recommended for<br />

north Bihar were evaluated in spring and kharif seasons<br />

against common local hybrids of maize at the IARI<br />

Regional Station, Pusa, Bihar. During spring of <strong>2011</strong>,<br />

all the five Vivek hybrids attained physiological<br />

maturity between 90-95 days and produced<br />

significantly higher yield than local hybrids Shaktiman<br />

1 and Shaktiman 3 with the exception of VQPM 9. Vivek<br />

Hybrid 25 produced highest yield of 10.4 t/ha and<br />

Shaktiman 3 produced the lowest yield of 7.16 t/ha.<br />

During kharif season, yield levels were uniformly lower<br />

compared to spring season. Vivek Hybrid 25 produced<br />

the highest yield of 4.52 t/ha, followed by Vivek Hybrid<br />

43, Vivek Hybrid 21 and Vivek Hybrid 17. Shaktiman<br />

1 produced the lowest yield of 3.66 t/ha.<br />

3.1.12 Performance of Wheat Varieties under<br />

Early Sown Conditions in Madhya Pradesh<br />

Five wheat varieties, viz., HD 4672, HI 1531, HI<br />

8627, HI 8638, and Lok 1 were evaluated on farmers’<br />

fields at Dhar and Kannaud districts to identify suitable<br />

varieties for very early (October 1 st week ) sowing for<br />

the optimum utilization of available irrigation water<br />

39<br />

as most of the irrigation sources in central India dry<br />

out by December-January. At Dhar, grain yield of HI<br />

1531 (3.51 t/ha) and HI 8627 (3.41 t/ha) was statistically<br />

on a par but was significantly higher than others. At<br />

Kannaud, HI 8627 gave the highest grain yield (3.04/ t<br />

ha) which was significantly higher than the grain yield<br />

of Lok 1 (1.67 t/ha) and on a par with others.<br />

3.1.13 Effect of Sowing and Closure Dates<br />

on Forage and Seed Yield of Berseem<br />

Influence of sowing dates and closure date on<br />

forage and seed yield of berseem (Trifolium alexenderium)<br />

was studied at the IARI Regional Station, Karnal during<br />

rabi 2010-11. Reduction in green forage yield was 19.7%<br />

and 37.4% in 15 th and 25 th November sown crops,<br />

compared to the 25 th October sown one. Highest green<br />

forage yield was recorded with 5 th May closure date for<br />

forage, whereas highest seed yield was obtained when<br />

closure date for forage crop was 15 th April.<br />

3.1.14 Agronomic Performance of Rice<br />

Variety Pusa 1509<br />

Agronomic trials were conducted during kharif<br />

seasons of 2010 and <strong>2011</strong> with three transplanting dates<br />

(5 th July, 20 th July and 5 th August), three spacings<br />

Influence of transplanting dates, spacing and nitrogen on<br />

seed yield of rice cultivar Pusa 1509<br />

Treatment Plant height (cm) Seed yield (t/ha)<br />

Transplanting date<br />

5th July 76.9 4.82<br />

20th July 67.5 3.73<br />

5th August 57.9 2.73<br />

CD (P = 0.05)<br />

Spacing<br />

2.72 0.19<br />

15 cm × 20 cm 67.6 3.89<br />

20 cm × 20 cm 67.9 3.75<br />

25 cm × 20 cm 68.8 3.63<br />

CD (P = 0.05)<br />

Nitrogen rate<br />

NS 0.17<br />

40 kg/ha 66.3 3.35<br />

80 kg/ha 68.5 3.98<br />

120 kg/ha 69.5 3.95<br />

CD (P = 0.05) 2.47 0.18


(15 cm × 20 cm, 20 cm × 20 cm and 25 cm × 20 cm) and<br />

three doses of nitrogen (40, 80 and 120 kg N/ ha) in<br />

split plot design with three replications. Significantly<br />

higher yield was recorded on 5 th July transplanted crop<br />

which was 22.6% and 43.4% higher than 20 th July and<br />

5 th August transplanted crops, respectively. Spacing of<br />

15 cm × 20 cm was superior to 25 cm × 20 cm ,whereas<br />

it was on a par with 20 cm × 20 cm spacing. Highest<br />

yield was recorded at 120 kg N/ha which was on a par<br />

with the yield obtained at 80 kg N/ha.<br />

3.2 SOIL MANAGEMENT<br />

3.2.1 Generation of Soil Information<br />

Database of IARI Farm<br />

Grid soil samples from IARI farm were collected<br />

from 297 grid intersection points in 100 m × 100 m grid<br />

from surface (0-15 cm) and sub-surface (15-30 cm) layer<br />

using Trimble GPS and analyzed for important soil<br />

properties.<br />

Map of IARI’s research farm with block boundary. The yellow<br />

points are locations of grid (100 m × 100 m) samples<br />

Data generated on various soil properties indicated<br />

that most of the soils are alkaline and non-saline.<br />

Interestingly, a spatial movement of CaCO 3 (soil free<br />

and nodules) were noticed, which is contrast to earlier<br />

soil survey report (1976) of the farm. The range of soil<br />

40<br />

properties estimated in the grid samples collected from<br />

the IARI farm is given below:<br />

Variability in soil properties of IARI farm<br />

Soil properties Range<br />

pH of surface soil 5.9 – 9.1<br />

EC (dS/ m) of surface soil 0.08 – 1.04<br />

Bulk density (Mg/m 3 ) of surface soil 1.50 – 1.60<br />

Bulk density (Mg/m 3 ) of sub-surface soil 1.60 – 1.75<br />

Hydraulic conductivity (mm/hr) of surface soil 8.0 – 10.0<br />

Hydraulic conductivity (mm/hr) of sub-surface soil 3.0 – 7.0<br />

Organic carbon (g/kg) of surface soil 0.6 – 11.1<br />

Organic carbon (g/kg) of sub-surface soil 0.3 – 7.6<br />

Microbial biomass carbon (g/kg) of surface soil 158 – 778<br />

Dehydrogenase activity (�g TPF/ g/hr) of surface soil 1.4 – 14.0<br />

3.2.2 Crop Productivity and Soil Health<br />

under Long-term Fertilizer Experiment<br />

In a long-term experiment at IARI farm since 1971,<br />

effect of different nutrient management practices<br />

comprising sub-optimal (50% of recommended rate)<br />

to super-optimal (150% of recommended rate) doses<br />

of NPK, NP or N alone, NPK supplemented with FYM,<br />

S or Zn, and unfertilized-control on crop productivity<br />

and soil health was evaluated. Optimal (RDF) NPK for<br />

maize or wheat was 120-26-33 kg NPK/ha. Farmyard<br />

manure @15 t/ha was applied to maize, and ZnSO 4<br />

@ 10 kg/ha was applied to wheat each year. The grain<br />

yield trends of maize and wheat computed for the last<br />

five years revealed that application of super optimal<br />

NPK or optimal NPK + FYM out-yielded the rest of the<br />

treatments. The yields in these treatments were<br />

significantly higher than the optimal (recommended)<br />

NPK indicating the inadequacy of the present fertilizer<br />

recommendations. Over the years, crop response to<br />

P and K, and enhanced rate of NPK application showed<br />

substantial increase, whereas the response to FYM<br />

remained almost consistent. These data indicate the<br />

emerging inadequacy of P and K in the soil owing to<br />

continuous nutrient mining, which could be offset only<br />

through an enhanced rate of NPK application or<br />

inclusion of FYM in the fertilizer schedule. Soil organic<br />

C was either maintained at initial level (0.44%) or<br />

showed a build-up in all the treatments, except for 50%


NPK, N alone or unfertilized plots. The highest organic<br />

C (0.54%) was recorded under NPK+FYM, followed by<br />

0.51% under 150% NPK. Soil bulk density (BD) was<br />

lowest under NPK+FYM, followed by 150% NPK<br />

whereas highest BD was recorded in the control plot.<br />

The microbial biomass carbon and dehydrogenase<br />

activity were the highest under NPK+FYM, followed<br />

by 150% NPK plots.<br />

3.2.3 Effect of Nano-Clay on Humus Stability<br />

in Soil<br />

A chemical method was developed to assess the<br />

stability of humus carbon in soil consisting shaking a<br />

certain amount of clay–humus complex with sodium<br />

hydroxide-pyrophosphate solution and replenishing<br />

with fresh extractant every two hours and analyzing<br />

humus desorbed in each extraction. Carbon content of<br />

a clay humus complex, C t , at a time t, after desorption<br />

of humus from clay-humus complex was fitted to the<br />

following first order equation:<br />

Soil nano-clay and humus stability under rice-wheat and maize-wheat cropping systems<br />

41<br />

C t = C 1 exp(-k 1 t) + C 2 exp(-k 2 t) + C 3 exp(-k 3 t)<br />

where, C 1 , C 2 and C 3 are different carbon pools with<br />

desorption rate coefficients, k 1 , k 2 and k 3 , respectively.<br />

Inverse of a rate constant, having dimension of time<br />

taken was an index of the stability of a particular<br />

carbon pool. This method was applied to assess the<br />

stability of clay-humus complexes from two soil<br />

profiles under long-term cultivation of rice-wheat and<br />

maize-wheat cropping system. The two systems<br />

showed contrasting differences in humus stability<br />

trend along the depth of the profiles. On an average,<br />

rice-wheat system showed more humus stability than<br />

the maize-wheat system.<br />

3.2.4 Effects of Short-Term Resource<br />

Conserving Technologies on Soil Carbon<br />

Retention under Irrigated Wheat-Based<br />

Cropping Systems<br />

In a maize-wheat-green gram rotation, plots under<br />

residue incorporation had about 9% higher total C in<br />

Soil XRD- small angle band (SAB) Organic Stability Stability of Stability<br />

Depth (Mg/air-dry) carbon of labile intermediate of resistant<br />

(cm) (g /kg) pool (hr) pool (hr) pool (years)<br />

Peak Band Particle size Fractional area<br />

position (2�����) width(2�����) (nm) of small<br />

angle band<br />

Rice-wheat system<br />

0-7.5 6.37 4.73 1.8 0.467 24.1 1.35 7.8 204<br />

7.5-15 6.09 2.93 2.9 0.358 18.8 1.20 37.0 0.14<br />

15-30 6.22 2.13 4.1 0.237 8.8 0.75 5.6 114<br />

30-45 6.26 1.99 4.4 0.229 8.3 0.91 11.4 1141<br />

45-60 6.40 2.02 4.4 0.172 9.0 0.25 3.8 1141<br />

60-75 6.40 1.98 4.4 0.169 12.3 0.37 3.7 114<br />

Maize-wheat system<br />

0-7.5 6.27 3.67 2.3 0.409 21.2 0.25 4.2 114<br />

7.5-15 6.03 3.65 2.3 0.392 17.1 0.25 4.3 114<br />

15-30 6.07 3.22 2.6 0.408 12.2 0.60 8.3 114<br />

30-45 6.15 2.72 3.2 0.382 8.5 0.71 7.1 114<br />

45-60 6.13 3.08 2.8 0.382 9.0 0.81 14.3 114<br />

60-75 6.18 2.12 4.1 0.38 6.3 0.71 11.1 114


the 0-5 cm soil layer compared to no-residue treated<br />

plots (7.6 g /kg in 0.05) in total C content over<br />

conventionally tilled plots. However, zero tillage and<br />

bed planting had no impact on total C content in the<br />

15-30 cm soil layer even after three and a half years. In<br />

another experiment under a rice-wheat system, plots<br />

under direct seeded rice (DSR) + green gram residue<br />

had about 11% higher very labile C than the plots under<br />

transplanted rice (with no residue) in the 0-5 cm soil<br />

layer (0.53 g/kg bulk soil) after rice harvest (second year<br />

of a rice-wheat rotation). Plots under DSR + brown<br />

manuring had labile and recalcitrant pools to the plots<br />

under DSR + green gram residue incorporation. The<br />

above-mentioned treatments had no impact on soil<br />

bulk density, total C and total soil organic C content in<br />

42<br />

the 0-5 and 5-15 cm soil layers even after growing three<br />

crops in sequence.<br />

3.2.5 Prediction of Solubility of Zinc, Copper,<br />

Nickel, Cadmium and Lead in Metal<br />

Contaminated Soils<br />

Free metal ion activity in contaminated soils<br />

represents the bioavailability and eco-toxicity of metals<br />

to a large extent. In a study the free ion activity of Zn,<br />

Cu, Ni, Cd and Pb in the metal-contaminated soil was<br />

predicted as a function of pH, extractable metals and<br />

soil organic carbon content.<br />

Free metal ion activities expressed as pZn 2+ , pCu 2+ ,<br />

pNi 2+ , pCd 2+ and pPb 2+ as estimated by Baker soil test<br />

ranged from 5.44 to 11.7, 8.62 to 15.2, 8.11 to 14.5, 7.04<br />

to 14.6 and 8.12 to 13.5, respectively. Results indicated<br />

that solubility model as a function of pH, Walkley and<br />

Black carbon and EDTA extractable metals explained<br />

59, 56, 46, 52 and 51% variation in pZn 2+ , pCu 2+ , pNi 2+ ,<br />

pCd 2+ and pPb 2+ , respectively. Over all, the<br />

predictability of solubility model based on EDTA was<br />

superior to that based on DTPA or CaCl 2 extractable<br />

metals.<br />

Model parameters for prediction of free ion activity of Zn, Cu, Ni, Cd and Pb in soil as a function of pH, Walkley and<br />

Black organic carbon and extractable metals


3.2.6 Effect of Lime on the Release of Zinc,<br />

Copper, Nickel, Cadmium and Lead from<br />

Contaminated Soils<br />

In an incubation study, the effect of lime on the<br />

release of metals from contaminated soils was studied<br />

at varying levels of temperature and moisture. For this<br />

purpose, two surface (0-15 cm) soil samples were<br />

collected from the agricultural lands irrigated with<br />

industrial effluents emanating from ATLAS cycle<br />

factory, Sonepat, Haryana and Zn-smelter areas,<br />

Debari, Udaipur, Rajasthan. At the end of each<br />

incubation period, soil was extracted with 0.5 M<br />

Ca(NO 3 ) 2 solution and data on calcium nitrate<br />

extractable metal content in soil were fitted to the<br />

exponential equation. Results indicated that potential<br />

extractable metal (M 0 ) content in soils was reduced due<br />

to application of lime; extent of reduction being 25.5,<br />

20.8, 18.4 and 5.96% in case of Zn, Cu, Ni and Pb,<br />

respectively in the Sonepat soil. In case of Debari soil,<br />

23.1, 10.6, 2.59, 26.5 and 3.81% reduction in M 0 was<br />

recorded in case of Zn, Cu, Ni, Cd and Pb, respectively.<br />

Increase in temperature from 20 to 35 °C had negative<br />

effect on potential extractable Zn in the lime-treated<br />

soil, while potential extractable Cu, Cd and Pb were<br />

increased due to increase in temperature. As compared<br />

to lime and temperature, the effect of moisture on M 0<br />

was more metal-specific.<br />

3.2.7 Effect of Irrigation with Multi-Quality<br />

Waters on Soil Quality and Yield of <strong>Indian</strong><br />

Mustard<br />

A field experiment was conducted to study the<br />

effect of irrigation with multi-quality waters on soil<br />

quality and yield of <strong>Indian</strong> mustard (Brassica juncea var.<br />

Pusa Jagannath) during rabi 2010-11. Six irrigation<br />

treatments, viz., irrigation with 100% tubewell water<br />

(T 1 ), irrigation with 100% wastewater (T 2 ), irrigation<br />

with 100% saline water with EC-8.0 dS /m (T 3 ),<br />

irrigation with 50% tubewell water + 50% wastewater<br />

(T 4 ), irrigation with 50% saline water + 50% tubewell<br />

water (T 5 ), irrigation with 50% saline water + 50%<br />

wastewater (T 6 ) were tested. The results revealed that<br />

bulk density, saturated hydraulic conductivity and pH<br />

were not significantly influenced by the different<br />

quality water. However, available N, P and K content,<br />

43<br />

Effect of irrigation with multi-quality water on seed yield of <strong>Indian</strong><br />

mustard<br />

soil organic C and microbial biomass carbon (MBC)<br />

were significantly higher in the waste water treatments<br />

than in tubewell and saline water. Seed yield of mustard<br />

was also significantly higher under the wastewater<br />

treatment (T 2 ). Initial investigations indicate that<br />

mixing of saline water with waste water has more<br />

positive effects than mixing of saline water with<br />

tubewell water for dilution.<br />

3.3 WATER MANAGEMENT<br />

3.3.1 Irrigation Water Management<br />

3.3.1.1 Evaluation of maize hybrids for water use<br />

efficiency<br />

A field experiment was conducted to evaluate 24<br />

maize hybrids for water use efficiency (WUE) under<br />

irrigated and rainfed conditions. Based on total<br />

biomass/plant, the hybrids were categorized into three<br />

groups, viz., biomass 300 g (III). Under irrigated conditions, most<br />

of the hybrids got grouped under class II while only<br />

one fell in class I (Super 900) and three in class III (PHM<br />

1, HQPM 7 and HQPM 1). However, under rainfed<br />

conditions the distribution of hybrids followed entirely<br />

different pattern, i.e., 5 were in group I, 11 in group II<br />

and 8 in group III. This indicates that under normal<br />

irrigated conditions the genetic potential in biomass<br />

or WUE could not be expressed whereas under waterdeficit<br />

conditions potential was expressed fully.<br />

Cultivars PHM 1 and HQPM 1 showed higher biomass<br />

under both the conditions, while hybrid Prakash<br />

showed moderate biomass under irrigated conditions<br />

and higher biomass under rainfed conditions.


3.3.1.2 Effect of quantity and quality of irrigation<br />

water on growth and yield of tomato under<br />

partial root zone drying condition<br />

Field investigations were carried out in a sandy<br />

loam soil to study the suitability of tomato var. Pusa<br />

Rohini under partial root drying (PRD) irrigation<br />

system. The results indicated that PRD system was<br />

successful for tomato. The PRD irrigation conditions<br />

improved the fresh fruit weight under fresh water<br />

irrigation; however, fruit numbers were not affected<br />

by PRD. The PRD irrigation system also increased the<br />

irrigation water use efficiency (IWUE) by about 100%,<br />

over the other irrigation treatments compared to the<br />

conventional deficit irrigation.<br />

3.3.1.3 Determination of optimum crop geometry<br />

and maximum water use efficiency for onion<br />

A field experiment was conducted to determine<br />

optimum crop geometry and maximum water use<br />

efficiency (WUE) of onion under two irrigation<br />

methods, three-crop geometries and four-varieties of<br />

onion. Results showed that the crop geometry with 3<br />

rows per bed recorded significantly higher yield (21.05<br />

t/ha) than the crop geometry with 2 rows per bed (19.05<br />

t/ha). However, these were not significantly different<br />

from the crop geometry with 4 rows per bed (21.03 t/<br />

ha). The variety Indam Synth 3 yielded a minimum of<br />

17.67 t/ha compared to the other varieties, viz., L 28,<br />

Pusa Red, AFLR which yielded 21.66, 19.67, 22.50 t/ha,<br />

respectively. Average bulb size was not significantly<br />

affected by either the irrigation systems or the crop<br />

geometry. Variety Indam Synth 3 recorded significantly<br />

less bulb size (58.6 g) compared to the varieties L 28<br />

(91.3 g) and AFLR (76.2g).<br />

Effect of crop geometry and variety on bulb yield (t/ha) of<br />

onion crop<br />

Crop geometry Variety<br />

L28 Pusa AFLR Indam Mean<br />

Red Synth 3<br />

2 rows/bed 21.36 18.15 20.18 16.50 19.05 a<br />

3 rows/ bed 21.03 20.13 23.70 19.20 21.05 b<br />

4 rows/bed 22.55 20.73 23.66 17.23 21.03 b<br />

Mean 21.66 c 19.67 b 22.50 c 17.67 a 20.37<br />

Means followed by same letter are not significantly (P < 0.05) different<br />

according to Duncan’s Multiple Range Test.<br />

44<br />

3.3.2 Climate Change and Modeling<br />

3.3.2.1 Hydrological drought pattern of Dhar<br />

(MP) and Mewat (Haryana) districts and<br />

introduction of water related interventions<br />

Hydrological drought pattern of Dhar and Mewat<br />

districts was studied to assess venerability to climate<br />

change by analyzing the change in the groundwater<br />

levels of the study area through a Standardized<br />

Groundwater Level Index (SWI), which was computed<br />

by dividing the difference between the seasonal ground<br />

water level and its long-term seasonal mean, by<br />

standard deviation. The SWI maps developed using<br />

last 10 years pre- and post-monsoon ground water level<br />

data were used for prioritizing blocks affected with<br />

hydrological drought.<br />

Using this information, suitable interventions for<br />

enhancing usable water supplies and efficient water<br />

utilization techniques were introduced in these<br />

districts. Laser leveling in 15 ha area led to a saving of<br />

about 15-20% water. Laying of about 3.07 km<br />

underground pipeline (UGPL) in the farmers’ field in<br />

the Mewat district was associated with an increase in<br />

water delivery efficiency and a 40% saving in irrigation<br />

water, 45% increase in irrigated area and 28% reduction<br />

in the irrigation time. Deepening of open wells, rain<br />

gun, sprinkler and drip systems, were also introduced<br />

in the Dhar district.<br />

3.3.2.2 Prediction of maize yield under future<br />

water availability scenarios using AquaCrop<br />

Model<br />

An effort was made to integrate AquaCrop model<br />

with a climatic data generator, ClimGen, and an<br />

irrigation water requirement predicting model,<br />

CROPWAT, to simulate grain yield predictions of kharif<br />

maize. It was observed that sowing date of the crop<br />

played a significant role in the maize yield variations,<br />

under future climate change scenarios. The ClimGen<br />

generated rainfall depths during the years 2012 (739<br />

mm) and 2014 (596 mm), resulted in significant<br />

variations (from 1.60 to 5.67 t/ha) in yield of kharif<br />

maize under rainfed conditions with full fertilization<br />

levels. This variation may be attributed to the amount<br />

of rainfall and its distribution during entire crop


growing season in general and sensitive crop growth<br />

stages in particular pertaining to the same sowing date<br />

(22 nd July) of 2009 and 2010. During sensitive maize<br />

growth stages, viz., tasseling and flowering, the<br />

predicted rainfall depths are 5 and 57 per cent of the<br />

total rainfall during the entire growth period of 2012<br />

and 2014, respectively. Maize yield predicted by the<br />

ClimGen-CROPWAT-AquaCrop modes, for the year<br />

<strong>2011</strong>, was 5.46 t/ha. The grain yield under rainfed<br />

condition predicted for 2012 is less than that of <strong>2011</strong><br />

due to probably lower rainfall during the grain<br />

formation stage in 2012. The predicted maize grain<br />

yield, under full irrigation condition will be 5.8 t/ha<br />

during the year 2014. Thus, combining the outputs of<br />

ClimGen and CROPWAT in AquaCrop model was<br />

observed to be a novel technique for estimating future<br />

maize yields and irrigation water requirements under<br />

changing climatic conditions.<br />

3.3.2.3 Climate variability, crop water<br />

requirement and groundwater<br />

Time series analysis of important climatic<br />

parameters, viz., minimum and maximum<br />

temperature, relative humidity, wind speed and<br />

sunshine hours; that control the crop water<br />

requirement, was done to investigate the change in local<br />

climate and its impact on the crop water requirement<br />

of an agriculturally dominant South-West District of<br />

National Capital Territory of Delhi. Mann-Kendall test<br />

and Auto Regressive Integrated Moving Average<br />

(ARIMA) models were used to establish the trend and<br />

predict the weather parameters in 2030s. CROPWAT<br />

model was used to estimate the water requirement of<br />

the major crops and cropping systems, under the<br />

climate change scenarios for the study area. The<br />

scenarios considered predicted changes in climatic<br />

parameters during 2030s using local weather data<br />

(ARIMA prediction), INCCA predictions for 2030s and<br />

IPCC predictions for 2100s.<br />

The ARIMA predictions for 2030s showed an<br />

increase in the average temperature by 0.26 o C, relative<br />

humidity by 4%, and a decrease in wind speed and<br />

daily sunshine hours. Crop water requirement under<br />

all climate change scenarios increased except that<br />

45<br />

under the scenario generated using local climatic<br />

parameters. Variably saturated model HYDRUS-1D<br />

and groundwater model MODFLOW were calibrated<br />

to assess the effect of climatic parameters on<br />

groundwater behaviour. The study area was divided<br />

into 11 land units based on the land use, soil type and<br />

salinity levels using ArcGIS 9.3.1. The HYDRUS-1D<br />

was used to simulate recharge flux from each land<br />

unit. Simulations were done on daily basis to predict<br />

groundwater recharge during pre-monsoon and postmonsoon<br />

periods. The recharge fluxes obtained from<br />

HYDRUS-1D simulations were given as input in<br />

MODFLOW to predict the water table elevations.<br />

Comparisons of observed and predicted water table<br />

elevations (hydraulic heads) in different land units<br />

and cells showed that they were fairly close and that<br />

these models can be used to evaluate the effect of<br />

climatic parameters on groundwater recharge and<br />

availability.<br />

3.3.3 In-situ Moisture Conservation in<br />

Rainfed Area<br />

3.3.3.1 Moisture and crop water stress based<br />

evaluation of bio-engineering conservation<br />

techniques for enhancement of productivity in<br />

pearl millet-mustard cropping system under<br />

rainfed condition<br />

An experiment on evaluation of in-situ moisture<br />

conservation techniques was started during kharif <strong>2011</strong><br />

in WTC farm using bio-engineering measures, viz.,<br />

trench-cum-bund (20 cm depth of trench and 20 cm<br />

height of bund), bund (30 cm height), ridge and furrow<br />

(15 cm height), skip row (3:1), basin tillage (45 cm × 45<br />

cm) and control with three replications, so that moisture<br />

stress and ultimately crop stress could be reduced and<br />

productivity of the system enhanced. The test crops<br />

were pearl millet in kharif and mustard in rabi and plot<br />

size was 20 m × 3 m. It was found that basin tillage<br />

method was better followed by ridge and furrow,<br />

trench-cum-bund, bund, skip row and control in that<br />

sequence with respect to availability of soil moisture,<br />

less crop water stress, high relative water content and<br />

grain and biomass yield. Crop water stress index of<br />

0.42 was lowest and relative water content of 80.5%


Grain and biomass yield of pearl millet under various in-situ<br />

moisture conservation measures<br />

was highest in case of basin tillage method. Similarly,<br />

grain and biomass yield of pearl millet in basin tillage,<br />

ridge and furrow, trench-cum-bund, only bunds and<br />

skip row was 80.7 and 66.3%; 58.8 and 55.9%; 51.5 and<br />

26.7%; 38.5 and 4.0%; and 12.3 and 1.3%, respectively,<br />

higher than control. Root length was highest in control<br />

followed by skip row and was lowest in basin tillage.<br />

Surface area and volume of root were highest in ridge<br />

and furrow followed by skip row and control and was<br />

lowest in basin tillage.<br />

3.3.4 Micro-Irrigation Studies<br />

3.3.4.1 Water management and fertigation in<br />

bottle gourds through micro-irrigation<br />

Micro-irrigation has been considered worldwide<br />

as a way of maximizing water use efficiency (WUE)<br />

by enhancing productivity. Optimal crop geometry<br />

was developed to minimize lateral length and<br />

system cost without affecting the crops yield. The<br />

optimal crop geometry for bottle gourd (1.2 m × 0.60<br />

m) was associated with the maximum overall<br />

reduction of the cost of the drip system. The highest<br />

yield of bottle gourd was recorded under weekly<br />

fertigation (37.6 t/ ha) with 60% of crop ET c in microirrigation<br />

system.<br />

3.3.4.2 Yield of baby corn (Zea mays L.) under<br />

different drip operating pressures and<br />

fertigation schedules<br />

Field experiments were conducted during October<br />

2010- January <strong>2011</strong> and April <strong>2011</strong>-July <strong>2011</strong> to evaluate<br />

46<br />

drip irrigation vis-à-vis furrow irrigation on<br />

productivity of baby corn (hybrid maize, HM 4).<br />

Highest yields of cob (8.98 t/ha), baby corn (1.82 t/ha)<br />

and fodder (6.31 t/ ha) were recorded in bi-weekly<br />

fertigation schedule followed by weekly fertigation<br />

schedule (8.7, 1.76 and 6.22 t/ha), respectively. The<br />

lowest yields of cob, baby corn and fodder were 7.64,<br />

1.49 and 6.00 t/ha, respectively) under fortnightly<br />

fertigation frequency. The higher values of WUE were<br />

recorded during October 2010 to January <strong>2011</strong> season.<br />

The highest value of WUE was 6.3 kg/ha/ mm under<br />

bi-weekly fertigation frequency schedule. Highest<br />

fertilizer nitrogen use efficiency of 6.9 kg yield/kg urea<br />

was recorded under the same fertigation frequency<br />

schedule during April <strong>2011</strong>- July <strong>2011</strong>.<br />

3.4 INTEGRATED NUTRIENT<br />

MANAGEMENT<br />

3.4.1 Enhancing N-Use Efficiency in Pearl<br />

Millet-Wheat System<br />

A field experiment was conducted with pearl<br />

millet-wheat cropping system to study the effect of<br />

different organic manures, viz., FYM or sulphitation<br />

pressmud (SPM) at 10 t/ha, or Sesbania green manuring,<br />

N rates (pearl millet: 0, 40, 80 and 120 kg N/ha and<br />

wheat: 0, 80, 120 and 180 kg N/ha) and N scheduling<br />

(i.e. conventional and modified N-split) on N use<br />

efficiency (NUE) on a sandy loam Typic Haplustept of<br />

IARI Farm. The results indicated that instead of<br />

conventional N application in 3-splits, i.e., basal<br />

dressing + 2 top-dressings, skipping of basal N for one<br />

additional top-dressing led to substantial increase in<br />

yield, agronomic efficiency and recovery efficiency of<br />

N in pearl millet and wheat. The yield of crops also<br />

increased with different organic manures and the<br />

highest grain yield was recorded with SPM followed<br />

by green manuring. The optimum rate of fertilizer N<br />

was relatively smaller with the modified N splits as<br />

also with inclusion of organics. The mineral N content<br />

of surface soil was higher under modified N scheduling<br />

compared to conventional application, wherein NO 3 -<br />

N moved to deeper soil layers.


Effect of organics, N rates and N scheduling on the yield of pearl millet and wheat<br />

3.4.2 Effect of Integrated Nutrient Supply on<br />

Yield, Nutrient Uptake and Soil Health<br />

under Maize-Wheat Cropping System<br />

Effect of different manures, viz., vermicompost,<br />

NADEP compost and FYM on crop productivity and<br />

soil health was evaluated after completion of 4 th<br />

cropping cycle under maize-wheat cropping system.<br />

Treatments consisted of T 1 : Control; T 2 :<br />

Recommended dose of NPK fertilizers (100%); T 3 :<br />

Vermicompost @ 5 t/ha; T 4 : NADEP compost @ 5 t/<br />

ha; T 5 : FYM @ 5 t/ ha; T 6 : 50% RDF + Vermicompost<br />

47<br />

@ 5 t/ha; T 7 : 50% RDF + NADEP compost @ 5 t/ha;<br />

and T 8 : 50% RDF + FYM @ 5 t/ha. Integrated use of<br />

manure and 50% RDF (recommended dose of<br />

fertilizers) was superior to 100% RDF as far as<br />

nutrient uptake and yield of crops were concerned.<br />

Addition of composts and chemical fertilizers<br />

improved Walkley and Black C (WBC), microbial<br />

biomass C (MBC), labile C (LBC) and mineralizabale<br />

C as well as biological properties like dehydrogenase<br />

activity (DHA), �-glucosidase activity and<br />

fluorescein diacetate hydrolase activity (FDA)<br />

compared to control at harvest of both the crops.


Soil organic carbon pools as affected by value-added organic manures and chemical fertilizers in a maize-wheat cropping<br />

system (after 4 cropping cycles)<br />

Treatment Walkley Microbial biomass C Labile C Mineralizable C<br />

Black C (%) (mg/ kg) (mg/ g) (mg /kg/ d)<br />

Maize Wheat Maize Wheat Maize Wheat Maize Wheat<br />

T1 0.36 0.38 212 217 0.96 0.80 8.9 8.7<br />

T2 0.53 0.54 262 284 0.84 1.06 12.7 11.3<br />

T3 0.61 0.63 282 290 1.19 1.17 18.7 15.1<br />

T4 0.59 0.62 276 284 1.20 1.40 15.5 13.8<br />

T5 0.60 0.63 277 281 1.74 1.19 18.1 12.9<br />

T6 0.65 0.64 292 298 1.88 1.55 19.7 16.4<br />

T7 0.62 0.63 283 288 0.96 0.92 17.5 15.6<br />

T8 0.63 0.60 302 305 1.85 1.01 18.4 13.5<br />

CD (P=0.05) 0.06 0.17 33 37 0.12 0.11 1.78 1.31<br />

T : Control; T : Recommended dose of NPK fertilizers (100%); T : Vermicompost @ 5 t/ ha; T : NADEP compost @ 5 t/ha; T : FYM @ 5 t/ha; T : 50% RDF +<br />

1 2 3 4 5 6<br />

Vermicompost @ 5 t/ha; T : 50% RDF + NADEP compost @ 5 t/ha; T : 50% RDF + FYM @ 5 t/ha<br />

7 8<br />

3.4.3 Evaluation of STCR-Based Fertilizer<br />

Recommendations for Targeted Yields of<br />

Pearl Millet–Wheat Cropping Sequence<br />

In a field experiment, soil test crop response (STCR)<br />

correlation based fertilizer recommendations for<br />

targeted yield were evaluated in pearl millet–wheat<br />

cropping system. The treatments were T 1 : 20 t FYM/ha<br />

in each crop; T 2 : STCR-based integrated fertilizer dose<br />

with 10 t FYM/ha; T 3 : STCR-based fertilizers dose; and<br />

T 4 : Control. The results indicated that increase in grain<br />

yield due to treatments T 1 , T 2 and T 3 over control was<br />

121, 203 and 159%, respectively. The highest grain<br />

yields of pearl millet (2.85 t/ha) and wheat (5.32 t/ha)<br />

were recorded under STCR-based integrated fertilizer<br />

recommended dose plus 10 t FYM/ha (T 2 ). The STCR–<br />

based fertilizer recommendation (T 3 ) alone failed to<br />

attain the targeted grain yield (5.0 t/ha) of wheat, which<br />

fall short by 7% of the target.<br />

3.4.4 STCR-Based Fertilizer Prescription for<br />

Aromatic Hybrid Rice<br />

In a field trial, mean nutrient requirement for<br />

producing one quintal of grain of hybrid rice (variety<br />

48<br />

PRH 10) was worked out as 1.93 kg of N, 0.33 kg of P<br />

and 0.21 kg of S. The mean per cent contributions from<br />

soil N, P and S were computed as 25.8, 35.9 and 15.8,<br />

respectively; the corresponding figures for applied<br />

fertilizers were 35.6, 34.81 and 31.7. The mean per cent<br />

contributions of N, P and S from FYM were 22.1, 10.7<br />

and 11.0, respectively. Based on these basic data, STCRbased<br />

fertilizer prescription equations for aromatic<br />

hybrid rice (PRH 10) were developed for Inceptisol,<br />

New Delhi.<br />

Soil test based fertilizer prescription equations involving<br />

IPNS for targeted yield of aromatic hybrid rice<br />

Nutrient supply Fertilizer prescription equation<br />

NPS alone FN = 5.41 T – 0.72 SN<br />

FP = 0.94 T – 1.03 SP<br />

FS = 0.67 T – 0.50 SS<br />

NPS + FYM FN = 5.41 T – 0.72 SN – 0.62 FYMN<br />

FP = 0.94 T – 1.03 SP – 0.31 FYMP<br />

FS = 0.67 T – 0.50 SS – 0.35 FYMS<br />

Note: FN, FP and FS – fertilizer N, P and S in kg/ha, respectively; T- target<br />

yield in q/ ha; SN, SP and SS – Alkaline KMnO – N, Olsen’s-P and 0.15%<br />

4<br />

CaCl extractable S in kg/ha, respectively; FYMN, FYMP and FYMS - FYM<br />

2<br />

N, P and S in kg/ha, respectively.


3.4.5 Enrichment of <strong>Indian</strong> Spinach (Beta<br />

vulgaris) with Soil Application of Zinc along<br />

with Organics<br />

In a greenhouse experiment, effect of four levels<br />

of Zn (0, 5, 50 and 100 mg/kg soil) and three levels of<br />

organics (control, 3% FYM and 3% sewage sludge) was<br />

evaluated on Zn content in shoot of <strong>Indian</strong> spinach<br />

grown on acid and alkaline soils. Results indicated that<br />

shoot Zn content increased to the tune of 1.49, 4.08,<br />

and 5.01 fold due to application of 5, 50 and 100 mg<br />

Zn/kg, respectively over control. As far as dry matter<br />

yield is concerned, the crop responded positively to<br />

application of 5 mg Zn/kg in alkaline soil, while such<br />

response was conspicuously absent in acid soil. In case<br />

of alkaline soil, significant reduction in dry matter yield<br />

occurred only at 100 mg Zn/kg, whereas such reduction<br />

in acid soil was recorded even at 50 mg Zn/kg.<br />

Application of Zn even at highest level in alkaline soil<br />

proved to be safe in relation to risk associated with the<br />

consumption of this Zn-enriched spinach by humans.<br />

In acid soil, Zn application rate should to be restricted<br />

to below 50 mg/kg.<br />

3.5 NUTRIENT MANAGEMENT<br />

3.5.1 Standardization of Leaf Colour Chart,<br />

SPAD and Fieldscout CM 1000 Meter for<br />

Fixed Time Adjustable Nitrogen<br />

Management for Aromatic Hybrid Rice<br />

Leaf colour chart (LCC) and non-destructive<br />

chlorophyll meters (SPAD and Fieldscout CM 1000<br />

chlorophyll meter) were evaluated for site-specific<br />

nitrogen management in aromatic rice hybrid PRH 10.<br />

For this purpose, a field experiment was conducted<br />

with four levels of nitrogen (0, 70, 140 and 210 kg/ha).<br />

A positive and significant (R 2 =0.98,) quadratic response<br />

between N levels and grain yield was observed.<br />

Quadratic equation was used to determine economic<br />

optimum grain yield (6.39 t/ha) corresponding to<br />

economic optimum dose of 144 kg N/ha for PRH 10.<br />

Nitrogen concentration in fully expanded youngest leaf<br />

correlated significantly and positively with LCC score,<br />

Minolta SPAD value, Fieldscout CM 1000 value and<br />

total chlorophyll content at tillering, panicle initiation<br />

and flowering. Two chlorophyll meters were calibrated<br />

49<br />

and a significant linear response was obtained as ‘CM<br />

1000 reading = 10.71SPAD – 195.6’ (R 2 =0.84) based on<br />

observations at three critical growth stages. The average<br />

optimum LCC score, Minolta SPAD, CM 1000 values,<br />

chlorophyll content and leaf N concentration to fetch<br />

economic optimum yield were found to be 4.4, 45.1,<br />

279.2, 2.0 mg/g fresh weight and 2.8%.<br />

3.6 ORCHARD MANAGEMENT<br />

3.6.1 Ameliorating Salt Stress in Kinnow<br />

using Triazole Compounds<br />

To examine the comparative protective potential<br />

of triazole compounds in mitigating the salinity stress<br />

in Kinnow plants. One and a half-year-old Kinnow<br />

(Citrus nobilis × C. deliciosa) plants budded on Jatti khatti<br />

(Citrus jambhiri Lush) were irrigated with 0 or 50 mM<br />

NaCl with or without triazoles compounds.<br />

Paclobutrazol (PBZ) at 100 mg L -1 and triazole (TRZ),<br />

tria-dimefon (TDM) and hexaconazole (HEX) at 20 mg<br />

L -1 were soil-drenched one week prior to NaCl<br />

treatment. Leaf area was reduced by triazoles<br />

treatments, while LWR increased under both<br />

conditions. Maximum (1.4-fold) improvement in LWR<br />

was observed in the PBZ-treated plants in the presence<br />

of NaCl. PBZ, TRZ and TDM were equally effective in<br />

preventing chlorophyll degradation under NaCl stress.<br />

The improvement in catalase (CAT) activity was higher<br />

in the TRZ- and TDM-treated plants under stress, while<br />

TRZ, PBZ and TDM were equally effective on<br />

superoxide dismutase (SOD) activity. Influence on the<br />

peroxidase (POX) activity was more in the TDM-treated<br />

plants. Application of TDM and HEX had more<br />

pronounced effect on up-regulation of proline content<br />

under stress. Triazole compounds increased<br />

accumulation of K + and Ca 2+ ions and inhibited<br />

accumulation of Na + and Cl - ions. In the PBZ-treated<br />

plants, K + /Na + and K + /Cl - ratios in leaf tissues increased<br />

by 2.4 and 2.1-fold, respectively, compared to plants<br />

treated with NaCl alone, while HEX had more striking<br />

effect on Ca 2+ upregulation and caused 1.5-fold increase<br />

in the leaf Ca 2+ content. Among different triazole<br />

compounds, PBZ and TRZ seem to be more effective<br />

in protecting Kinnow plants budded on Jatti khatti<br />

under NaCl stress.


3.7 PROTECTED CULTIVATION<br />

TECHNOLOGY<br />

3.7.1 Vegetable Crops<br />

3.7.1.1 Evaluation of insect-proof net house for<br />

hybrid seed production in summer squash<br />

Seed production of summer squash is limited to<br />

the hills of Himachal Pradesh and Uttarakhand mainly<br />

because of the problem of summer squash mosaic virus<br />

incidence during summer season in northern plains of<br />

India. Therefore, insect-proof net house and open field<br />

conditions were evaluated for seed production of<br />

summer squash. Twenty-day old seedlings of summer<br />

squash (var. Australian Green) were transplanted on<br />

12 th February , <strong>2011</strong> under insect- proof net house and<br />

open field conditions on raised beds equipped with<br />

drip fertigation system. Insect-proof net house grown<br />

seed crop was found to be completely free from the<br />

incidence of summer squash mosaic virus, whereas<br />

there was 60% incidence of summer squash mosaic<br />

virus under open field seed crop. Insect-proof net house<br />

50<br />

grown seed crop produced significantly higher number<br />

of fruits per plant (1.2 fruits/plant), seed yield per fruit<br />

(57.7 g/fruit), seeds per fruit (406.6 seeds/fruit) and seed<br />

yield (692 kg/ha) compared to the seed crop grown<br />

under open field condition. Open field grown seed crop<br />

could produce only 0.5 fruits /plant, 23.05 g seed yield/<br />

fruit, 144 numbers of seeds/fruit and 115 kg seed yield/<br />

ha. It was concluded that summer squash seed can be<br />

produced successfully under northern plains of India<br />

during summer season under Insect-proof net house<br />

conditions.<br />

3.7.1.2 Techno-economic feasibility of shade net<br />

house for mint and green coriander cultivation<br />

during peak summer season<br />

Techno-economic feasibility of shade net house<br />

fabricated by covering black colour shade net of 60%<br />

shading intensity was evaluated for mint cultivation<br />

during peak summer months (April to July) of <strong>2011</strong>.<br />

Mint and coriander crops were planted on 5 th April,<br />

<strong>2011</strong> on raised beds equipped with drip fertigation<br />

system. Harvesting of mint was started in the 2 nd week<br />

Open field cultivation of summer squash Insect-proof net house cultivation<br />

Virus infestation in open field Fruit development under net house


of May and continued up to 2 nd week of July <strong>2011</strong>.<br />

Harvesting of green coriander was started on 20 th May,<br />

<strong>2011</strong> and continued up to 15 th June, <strong>2011</strong>. Total period<br />

of mint harvesting was 75 days, whereas it was only 25<br />

days for green coriander. Total green leaf yield of mint<br />

was 4.06 t/ ha, whereas as it was 3.20 t/ha in green<br />

coriander. Mint and coriander cultivation under shade<br />

net house during peak summer months is highly<br />

profitable, giving a cost benefit ratio of 1:2.50 and 1:2.4,<br />

respectively, in the northern plains of India.<br />

Mint cultivation under shade net house<br />

3.7.1.3 Techno-economic suitability of insectproof<br />

net house for tomato cultivation<br />

Insect-proof net house, fabricated in a design of a<br />

greenhouse only with less than half of the fabrication<br />

cost spent on a naturally ventilated greenhouse, was<br />

evaluated for its techno-economic suitability for tomato<br />

cultivation. Thirty-day old tomato (var. G.S. 600)<br />

seedlings were transplanted on 26 th October 2010 on<br />

raised beds equipped with drip irrigation system like<br />

greenhouse at a spacing of 40 cm × 50 cm. Tomato plants<br />

were vertically trained and pruned like greenhouse<br />

tomato crop. October-transplanted tomato crop<br />

51<br />

Insect proof net house design<br />

Tomato cultivation in insect proof net house<br />

continued up to the end of May <strong>2011</strong> and produced<br />

7.0 t of tomato fruit yield in around 7 months duration<br />

from 1000 m 2 insect- proof net house with a cost benefit<br />

ratio of 1:2.40. In conclusion tomato cultivation under<br />

insect-proof net house (fabricated in greenhouse<br />

design) is highly suitable and economical for tomato<br />

cultivation during October - May in northern plains of<br />

India.<br />

3.7.1.4 Management of root-knot nematodes in<br />

greenhouse tomato<br />

An experiment was undertaken to address the<br />

problem of root-knot nematode, Meloidogyne incognita,<br />

of tomato in greenhouse with the application of FYM<br />

and three fumigants, namely, STTC, metam sodium<br />

and dazomet either alone or in combination with each<br />

other. Results revealed that the combined treatment of<br />

FYM and fumigants significantly reduced the mortality<br />

including root gall index caused by Meloidogyne<br />

incognita. Treatment with metam sodium gave<br />

significant results wherein the gall index was reduced<br />

significantly at 2.27 compared to 4.93 in control. The


final nematode population was the least in the<br />

treatment of metam sodium + FYM at 1.17 /cm 3 soil<br />

compared to 4.77/ cm 3 soil in control.<br />

3.7.1.5 Evaluation of parthenocarpic cucumber<br />

varieties under newly designed naturally<br />

ventilated greenhouse<br />

Four varieties of parthenocarpic cucumber, viz.,<br />

Kian, Satis, Asma and Aviva were evaluated in a newly<br />

designed naturally ventilated greenhouse equipped<br />

with low pressure drip fertigation system during rainy<br />

and winter seasons. The rainy season crop was<br />

transplanted on 5 th July <strong>2011</strong>. Out of four varieties, Kian<br />

took minimum period for first harvesting (30 days)<br />

after transplanting and produced highest fruit yield<br />

(2.08 kg/plant and 74.9 t/ha) with maximum cost benefit<br />

ratio of 1:2.20 compared to other three varieties during<br />

rainy and post-rainy seasons. On the other hand, Satis<br />

produced highest fruit yield (1.70 kg/plant and 61.2 t/<br />

ha) with maximum cost benefit ratio of 1:2.12 during<br />

winter season.<br />

Cucumber cultivation in newly designed naturally ventilated<br />

greenhouse<br />

3.7.1.6 Evaluation of summer squash varieties<br />

under plastic low-tunnels during winter season<br />

Six summer squash varieties, viz., Australian<br />

Green, Pusa Alankar, Ducato (long-shaped fruits),<br />

Chand, Chandrika and DS 8 (round-shaped fruits) were<br />

evaluated under plastic low-tunnels for their off-season<br />

cultivation during winter season. Twenty five-day old<br />

seedlings of all the varieties/hybrids were transplanted<br />

52<br />

on raised beds equipped with drip fertigation system<br />

on 15 th December <strong>2011</strong> and same day plastic low tunnels<br />

were stretched over the beds in the afternoon. The<br />

plastic of low tunnels was removed from the crop in<br />

first week of February. Among the long-fruit shaped<br />

varieties, hybrid Ducato produced highest fruit yield<br />

(68 t/ha), whereas among the round-shaped varieties,<br />

hybrid Chand produced highest fruit yield (40 t/ha)<br />

compared to other varieties/hybrids.<br />

3.7.2 Flower Crops<br />

3.7.2.1 Evaluation of chrysanthemum varieties<br />

suitable for cut flowers<br />

Thirty-two chrysanthemum (10 standard and 22<br />

spray type) cultivars were evaluated for cut flower<br />

production under low cost polyhouse condition.<br />

Cultivars, Casagranda, Silk Brokect, Kangriku, Frosty<br />

Wisher, Diamond Jubilee and Yellow Star recorded the<br />

required stem length (> 60 cm) and flower size (>55<br />

cm 2 ). However, among the spray type varieties, Jaya,<br />

Liliput, Little Orange, Pusa Anmol, Sunny and Yellow<br />

Charm proved to be suitable, followed by Haldighati,<br />

Aprajita and Little Pink.<br />

3.7.2.2 Standardization of techniques for rooting<br />

of cuttings in chrysanthemum<br />

In chrysanthemum 5-7 cm long soft terminal<br />

cuttings were taken from healthy mother stock plants<br />

during June-July. Basal leaves were removed and upper<br />

leaves retained for photosynthetic activities. The basal<br />

ends of terminal cuttings were treated with rooting<br />

hormone indole butyric acid (IBA) (500 ppm) for 20<br />

minutes and planted in a four different types of<br />

media,viz., T 1 : Coco peat, vermiculite and perlite mixed<br />

in 3:1:1 ratio (v/v), filled in multi-celled plastic protrays;<br />

T 2 : Soil + sand + FYM (1:1:1); T 3 : Sand; and T 4 :<br />

Soil. Minimum of 70% relative humidity was<br />

maintained. Out of four treatments tried, terminal<br />

cuttings propagated in media consisting of coco peat,<br />

vermiculite and perlite in 3:1:1 ratio (T 1 ) gave the best<br />

results with 95-100% survival rate of the rootings. These<br />

artificial media being porous in nature provides better<br />

aeration to roots, maintain optimum moisture level and<br />

maintain sustained supply of nutrients for healthy<br />

growth of cuttings.


Rooted cuttings being raised in multi-celled plug trays<br />

3.7.2.3 Evaluation of gladiolus varieties under<br />

drip fertigation<br />

Three varieties of gladiolus, viz., Spic and Span<br />

(pink), Amsterdam (white), and Peter-Pears (peach)<br />

were evaluated for production of corms and cormels<br />

under drip fertigation on raised beds under open field<br />

conditions during winter season.<br />

Comparative performance of gladiolus varieties under Delhi conditions<br />

Variety Plant Days to Days to Duration of No. of Floret Spike Rachis<br />

height spike first floret flowering florets/ size (cm) length length<br />

(cm) initiation opening (days) spike (cm) (cm)<br />

(days) (days)<br />

Peter Pears 87 84 103 17 14.2 11.0 79 47<br />

Amsterdam 112 91 105 13 15.2 10.5 90 49<br />

Spic and Span 99 96 104 10 16.2 10.8 85 48<br />

Evaluation of gladiolus production parameters of corms and cormels<br />

Variety/Flower No. of No. of Weight of Weight of Corm<br />

colour Corms/plant Cormels/plant corms/plant (g) cormels/plant (g) diameter (cm)<br />

Peter Pears (Peach) 1.4 16.8 32.25 2.48 4.22<br />

Amsterdam (White) 1.4 23.2 36.96 3.21 4.06<br />

Spic and Span (Pink) 1.6 22 39.42 3.71 4.28<br />

Out of these varieties, Amsterdam produced<br />

good number of cormels (23) and quality flowers<br />

with spike length of 90 cm with rachis length of 49<br />

cm compared to other varieties. It is concluded that<br />

healthy bulbs and cormels can be produced with no<br />

incidence of Fusarium wilt under drip fertigation in<br />

gladiolus crop.<br />

53<br />

3.7.2.4 Effect of shading on tuberose flower<br />

production<br />

Effect of 50% shading on tuberose flower crop (var.<br />

Prajwal) was assessed during summer and rainy season<br />

under drip fertigation system. Results revealed that the<br />

crop under 50% shading delayed flowering (Aug. -<br />

Nov.) compared to control (without shading). The other<br />

major impact of shading observed was in terms of<br />

minimum emergence of weeds during rainy season<br />

compared to control. Thus, providing shade may be a<br />

beneficial technology for farmers to control enormous<br />

Effect of shading on tuberose crop during summer and<br />

rainy seasons<br />

Particulars Weed intensity Months Flowering<br />

Control (No shade net) High July - Oct. Early (July<br />

to Oct.)<br />

50% Shade net Very low July - Oct. Delayed<br />

(Sept. to Dec.)<br />

growth of weeds; it also helps in regulating flower<br />

supply to avoid surplus of cut flower in the market.<br />

3.7.3 Drip Irrigation<br />

3.7.3.1 Studies on evaporation control measures<br />

at lined-reservoir<br />

Experiments were carried out in the lined-reservoir


located at the CPCT farm for evaporation control<br />

measures during peak summer of May and June, <strong>2011</strong>.<br />

Cetyl alcohol was tested along with black and white<br />

shade net and control condition. Black shade net<br />

followed by white shade net was found to be most<br />

effective in controlling evaporation from the linedreservoir<br />

during peak summer. Black shade net was<br />

able to control up to 50 per cent while white shade up<br />

to 30 per cent evaporation in comparison to open<br />

control condition. Cetyl alcohol was not able to<br />

significantly control evaporation due to breaking of film<br />

on the top surface of the reservoir due to frequent<br />

strong winds blowing during the peak summer.<br />

Experimental set up and results for evaporation control measures<br />

study<br />

3.7.3.2 Standardization of crop water<br />

productivity (CWP) and fertigation scheduling<br />

of brinjal<br />

The total crop water requirement (CWR) was found<br />

to be 2430 m 3 /ha for brinjal cv. Pusa Uttam grown under<br />

pressurized drip fertigation system. Two sets of<br />

tensiometers installed at the depth of 30 and 60 cm were<br />

found to be suitable for fertigation-scheduling of one<br />

hectare area. Fertigation dosage and scheduling were<br />

standardized. The total number of irrigations during<br />

the entire duration of crop were 34. The crop water<br />

productivity was found to be 16.67 kg /m 3 and the total<br />

yield was 40 t/ha.<br />

3.7.3.3 Studies on soil-less cultivation for<br />

vegetables in greenhouse<br />

Hydroponic studies in the form of soil-less<br />

cultivation of tomato, capsicum and cucumber were<br />

conducted in greenhouse. Black plastic trays were filled<br />

with coco-peat, perlite and vermiculite in the ratio of<br />

90:5:5, respectively. Drip fertigation was laid out in the<br />

80 cm wide tray. Two rows of crops were laid out with<br />

two laterals of 16 mm line with 2 lph dripper. The total<br />

54<br />

Layout of soil-less system for growing vegetables in a greenhouse<br />

crop water requirement was found to be 60, 50 and 15<br />

cm, which was 3.0, 2.5 and 3.0 times higher than crop<br />

water requirement, respectively, for soil-less tomato,<br />

capsicum and cucumber grown in winter season (Nov.<br />

- Jan.) under protected cultivation.<br />

3.7.3.4 Effect of Pusa Hydrogel on drip-irrigated<br />

chrysanthemum<br />

Trials were conducted to study the response of<br />

Pusa Hydrogel on drip irrigated chrysanthemum var.<br />

White Star and Thia Chen Queen. Pusa Hydrogel was<br />

basally applied @ 10 g/hole before the planting of the<br />

rooted cuttings. Planting geometry was maintained at<br />

15 cm × 15 cm and one lateral per row was used with<br />

dripper discharge of 2.0 lph. The volumetric moisture<br />

content (�) was found to be about 10 per cent higher in<br />

the soil applied with Pusa Hydrogel. The tensiometer<br />

reading (centi bars) was found to be about 9-10 per cent<br />

lower in the soil treated with hydrogel.<br />

Experimental layout for Pusa Hydrogel on drip irrigated<br />

chrysanthemum


Effect of Pusa Hydrogel on soil characteristics under drip irrigated chrysanthemum<br />

Date With Pusa Hydrogel Without Pusa Hydrogel<br />

Volumetric EC(dS m -1 ) Soil moisture Volumetric EC(dS m -1 ) Soil moisture<br />

moisture tension moisture tension<br />

content (�����) (centi bars) content (�����) (centi bars)<br />

15-1-12 20.3 1.20 21 18.5 1.25 23<br />

24-1-12 19.2 1.28 20 18.7 1.29 22<br />

05-2-12 21.5 1.18 22 20.2 1.20 24<br />

20-2-12 21.4 1.16 22 20.3 1.24 23<br />

04-3-12 21.6 1.18 21 20.2 1.20 24<br />

15-3-12 21.5 1.17 22 20.1 1.20 23<br />

3.8 AGRICULTURAL ENGINEERING<br />

3.8.1 Development of Aqua-Ferti-Seed Drill<br />

for Chickpea<br />

In a laboratory experiment, the Rhizobiuminoculated<br />

seeds and uncoated seeds were sown at three<br />

levels of moisture content of 100, 75 and 50% of field<br />

capacity. At the 50% field capacity, the time of emergence<br />

was prolonged to 8-12 days. Aqua-fertilizer seed drill<br />

was evaluated for chickpea using both coated and<br />

uncoated seeds. Physical properties of uncoated and<br />

biofertilizer coated chickpea seeds were determined for<br />

design of metering mechanism. Uncoated and<br />

biofertilizer coated chickpea seeds had length, breadth<br />

and thickness of 9.01±0.62 mm, 7.059±0.69 mm, 6.57±0.54<br />

mm and 9.06±0.44 mm, 7.14±0.90 mm, 6.90±0.22 mm,<br />

respectively; roundness and sphericity 87.23±2.13%,<br />

87.36±2.72% and 81.6±3.07%, 82±4.15%; geometric mean<br />

diameters 7.32±0.45 mm and 7.33±.45 mm; angle of<br />

repose for mild steel surface 26.9±5.61 and 29.51±4.23<br />

degree, respectively. For uncoated seed, average visible<br />

seed damage was 6.16, 7.28 and 12.3% for nylon,<br />

wooden and mild steel rollers, respectively; whereas<br />

for coated seed, average visible damage was 7.56, 8.38<br />

and 14.0%, respectively. The average field capacity and<br />

field efficiency of the machine was 0.32 ha/h and 71%,<br />

respectively.<br />

3.8.2 Development of Mechanical Hydrogel<br />

Applicator<br />

Physical properties of hydrogels relevant to<br />

machine design were determined for designing suitable<br />

55<br />

mechanical hydrogel applicator. The hopper was<br />

designed based on average angle of repose, coefficient<br />

of friction and bulk density of the different sizes of<br />

hydrogel granules and sand. Free flow of granules in<br />

the hopper was influenced by angle of repose and<br />

coefficient of static friction. Geometric mean diameter<br />

was maximum of 1.41±0.06 mm for MS18 size hydrogel<br />

and it was 1.17±0.10 mm and 0.66±0.06 mm for MS25<br />

and MS36, respectively. A mechanical hydrogel<br />

applicator was designed and developed for uniform<br />

application of hydrogel at the rate of 3.0 kg/ha. In<br />

laboratory, three metering mechanisms, namely, star<br />

wheel, screw feed and brush feed were tested for three<br />

treatments, viz., hydrogel mixed with soil, fertilizer and<br />

sand, respectively. The screw feed made of nylon rod<br />

(48 mm × 50 mm) having nine grooves, was the best<br />

metering mechanism for optimum application of<br />

hydrogel. The other components of the hydrogel<br />

applicator, viz., power transmission, ground wheel,<br />

hydrogel feed hopper, and transparent hydrogel feed<br />

tubes were also designed. The applicator was finally<br />

mounted with the existing aqua-ferti-seed drill and<br />

calibrated with different combinations of hydrogel<br />

mixed with sand, soil and fertilizer. The hydrogel and<br />

sand mixture was the best among three levels of<br />

mixture based on the performance of uniform<br />

scattering of granules over sticky belt. The average<br />

granules obtained per ha for the screw feed metering<br />

mechanism were 2667, 2917 and 2942 g when hydrogel<br />

and sand mixture were used. The effect of hydrogel on<br />

crop growth and yield parameter was significant. The<br />

average hydrogel size of MS36 maximized the yield


Mechanical Hydrogel Applicator Carrot Planter in operation<br />

and crop growth parameters. The applicator was<br />

evaluated for sowing of wheat variety WR 544 (Pusa<br />

Gold). The forward speed of tractor machine system<br />

was 3.0 km/hr with sowing depth of 5 cm; and<br />

recommended practices of wheat cultivation were<br />

followed. Yield of wheat with hydrogel mixed with<br />

sand was 180% higher than that of control plot.<br />

3.8.3 Evaluation of Carrot Planter<br />

The mechanical carrot planter was field-evaluated<br />

for its performance with uncoated carrot (S 1 ), biogas<br />

slurry coated (S 2 ) and thirame coated (S 3 ) seeds. It<br />

recorded a draft of 3.78 kN during the operation as the<br />

machine was single bed only. The average depth of seed<br />

placement was 2.03 cm, against the recommended<br />

depth of 2.50 cm; average field capacity 0.22 ha /hr for<br />

continuous operation at an average speed of 1.56 kmph<br />

and field efficiency of 76.4 per cent. The multiple and<br />

missing indices both were large (15.7%) for the<br />

treatment S 1 .<br />

For the treatment S 3 , the quality of feed index was<br />

higher (82.9%) with the coefficient of variation of 0.032<br />

and standard deviation of 2.63. The optimum plant<br />

population per meter length of bed was 72 for biogas<br />

slurry-coated seed (S 2 ) against theoretical population<br />

of 80 plants per meter length of bed. The higher carrot<br />

root dimensions (length and diameter) were observed<br />

56<br />

for treatment S 2 (21.92 cm and 3.37 cm) as t-test showed<br />

significant difference between all the treatments. There<br />

was a significant difference in the yield between the<br />

treatments S 1 and S 2 , S 2 and S 3 . The highest yield of 20.14<br />

t/ha was observed for treatment S 2 . Saving of 56% in<br />

the cost of planting was obtained in comparison to<br />

manual planting.<br />

3.8.4 Development of Semi-Automatic and<br />

Automatic Metering System for Garlic<br />

Cloves<br />

The semi-automatic system was developed for<br />

precision metering of garlic cloves. Two types of seed<br />

plates were tested over sticky belt for quality of feed<br />

index, multiple index, miss index and clove damage.<br />

The seed plates were 235 mm in diameter and 24 mm<br />

in thickness having 21 equally spaced cells. One plate<br />

had 17.5 mm × 17.5 mm square cells and second plate<br />

had 15.5 mm circular cells. The quality of feed index<br />

was more than 90% for both the seed plates without<br />

any seed damage. The miss index for the seed plate<br />

with circular hole was 4% compared to 9% for the seed<br />

plate with square holes. Though the singulation of<br />

garlic cloves was achieved by the metering system, the<br />

operational difficulties for change of seed plates while<br />

the machine is still in operation makes the use of<br />

automatic metering system more favourable. Hence,


the automatic metering system was designed using<br />

inclined plate. The cell size was designed considering<br />

the shape and size of the garlic cloves. The automatic<br />

metering system was tested over sticky belt and the<br />

clove spacing was recorded. The quality of feed index<br />

obtained was 81%, the miss index and multiple indexes<br />

were 8 and 11%, respectively. The inclined plate<br />

metering system has been selected for use in the final<br />

prototype development.<br />

3.8.5 High Capacity Pusa Compost Sieving<br />

Machine<br />

Compost making by heap method and its handling<br />

needed to be mechanized. The mechanization of unit<br />

operations like mixing of different substrates including<br />

water and microbial culture for fast decomposition and<br />

turning of heap of cow dung and biomass and other<br />

Seed plates of the semi-automatic metering system<br />

Testing of automatic metering system over greased belt<br />

57<br />

materials were accomplished earlier by developing<br />

compost mixer cum turner, tractor front mounted<br />

loader and sieving machine with low capacity. These<br />

equipments were intensively used in biomass<br />

enrichment centre. During the year <strong>2011</strong>-12 the machine<br />

for sieving the compost for separating the finer grades<br />

with 5 t per day capacity was developed. The machine<br />

is provided with automatic belt feeding mechanism,<br />

compost separator unit and hopper for safe feeding and<br />

belt conveyor based unit for conveying the finished<br />

quality compost. The specifications of the machine were<br />

as follows:<br />

Utility: Sieving of compost for separating the finer<br />

grade from coarse grade<br />

Power source: Three-phase electric motors (2 hp, 3 hp<br />

and 3 hp)


Pusa Compost Sieving Machine Basmati Rice Thresher<br />

Capacity (estimated): 5 t per day<br />

Approximate Cost: Rs. 5,00,000/-<br />

Advantages: Separation in different sizes for value<br />

addition (smaller grades are used in pots)<br />

Payback period (estimated): 30 months<br />

3.8.6 Development of Basmati Rice<br />

Threshing System<br />

The basmati rice cultivar is very sensitive to<br />

mechanical abuses. Considering the operational<br />

(labour, time and quality) as well as economic aspects<br />

of basmati threshing, Basmati Rice Threshing system<br />

has been developed. It is an axial flow type threshing<br />

system. In order to minimize mechanical injury to rice<br />

kernel, spike tooth type HDPE lined beater was<br />

optimized. Thresher was tested for different<br />

operational parameters, e.g., cylinder rotation speed,<br />

concave grate clearance, blower speed to optimize<br />

operational parameters for the best performance. It was<br />

found that 610 rpm with 5 degree gradual decreased<br />

concave grate clearance of 8 mm and 5.2 m/s air speed<br />

of cylinder rotation and concave grate clearance and<br />

air velocity of blower, respectively was optimum for<br />

threshing and separation. The through put capacity of<br />

thresher was found to be 1600 to 1800 kg/hr. It could<br />

be operated through tractor PTO so that threshing<br />

could be completed at field. It reduces the cost of<br />

transportation of harvested mass as well as reduces the<br />

transportation and handling losses. The threshed<br />

58<br />

product was assessed with X-ray radiography for<br />

internal injury level. The x-ray radiographic analysis<br />

depicted that the thresher was able to control the<br />

mechanical abuses during threshing efficiently.<br />

3.8.7 Farm Operation Services<br />

3.8.7.1 Farm operation management<br />

The farm operation service unit (FOSU) acquired<br />

experimental plot combine harvester (Zurn make)<br />

which is able to harvest and thresh simultaneously<br />

many crops such as rice, wheat, soybean, mungbean,<br />

urdbean and pearl millet. The combine was tested and<br />

used successfully in the kharif season of <strong>2011</strong> and rabi<br />

season of <strong>2011</strong>-12 for wheat, gram, etc.<br />

Experimental Plot Combine Harvester in operation


3.8.7.2 Irrigation system management<br />

The FOSU has reduced the dependence on canal<br />

water through development and renovation of old tube<br />

wells at IARI farm. For efficient distribution of<br />

irrigation water and to improve the conveyance<br />

efficiency of irrigation system at IARI farm,<br />

construction of 2850 m of pucca channel with check<br />

gates at every 10 m was completed. These channels<br />

would save 20 to 30% of irrigation water which was<br />

wasted due to seepage/conveyance of water in unlined<br />

field channels. Further, the FOSU introduced online<br />

indenting facility through IARI intranet for operations<br />

of farm machinery/equipments and irrigation system<br />

on the IARI experimental farms.<br />

3.8.7.3 Biomass /crop residue management<br />

The FOSU, with close collaborative efforts of<br />

Divisions of Agronomy and <strong>Agricultural</strong> Engineering,<br />

has initiated work on collection and transportation of<br />

crop residues and other biomass produced at the IARI<br />

experimental farm for preparing compost/FYM.<br />

Approximately 1000 t of crop residue/biomass from<br />

various corners of IARI farm was lifted and<br />

transported to the site of “Biomass Utilization Unit”,<br />

IARI for value addition. This innovation has led to<br />

the complete utilization of farm residues and other<br />

biomass on the campus and their conversion to the<br />

compost/FYM. This initiative has led to selfsufficiency<br />

in term of periodic need of compost/FYM<br />

for the IARI experimental farm.<br />

3.9 RICE-WHEAT CROPPING<br />

SYSTEM<br />

3.9.1 Influence of Nutrient Management and<br />

Growing Conditions on Rhizospheric Traits,<br />

Productivity and Quality of Rice Varieties<br />

in Rice–Wheat Cropping System<br />

A field experiment was conducted to evaluate the<br />

effect of growing conditions (puddled and aerobic) and<br />

nutrient management (control, 100% RDF and 50% RDF<br />

+ 50% N through FYM) on productivity and<br />

rhizospheric environment of three rice varieties, viz.,<br />

PRH 10, Pusa Sugandh 5 and IR 64) grown in rice-wheat<br />

cropping system.<br />

59<br />

A comparative view of direct seeded and transplanted rice<br />

Higher grain yield of rice was recorded under<br />

transplanted (puddled) condition (4.8 t/ha) compared<br />

to direct seeded (aerobic) rice (4.58 t/ha). The highest<br />

grain yield was recorded under the treatment which<br />

was supplied 50% RDF+50% N through FYM (5.18 t/<br />

ha) compared to 100% RDF (5.10 t/ha) and the yield<br />

was lowest in control (3.79 t/ha). Among rice varieties,<br />

the highest grain yield was recorded with PRH 10 (5.08<br />

t/ha) followed by Pusa Sugandh 5 (4.75 t/ha) and IR 64<br />

(4.24 t/ha).<br />

Higher activity of acid and alkaline phosphatase<br />

enzyme were found under transplanted rice (TPR) than<br />

direct seeded rice (DSR), while higher dehydrogenase<br />

activity was recorded under DSR compared to TPR.<br />

The highest activity of acid phosphatase and<br />

dehydrogenase were found in 50% RDF+50% N<br />

through FYM application compared to 100% RDF and<br />

it was lowest in control. Highest activity of alkaline<br />

phosphatase was recorded in the conjoint use of 50%<br />

RDF and 50% N through FYM followed by control and<br />

100% RDF. The acid phosphatase activity was the<br />

highest in Pusa Sugandh 5 grown soil followed by PRH<br />

10 and IR 64, while alkaline phosphatase activity was


the highest in PRH 10 grown soil followed by IR 64<br />

and was lowest under Pusa Sugandh 5. The<br />

dehydrogenase activity was the highest under IR 64<br />

and Pusa Sugandh 5 grown soil. The higher root length,<br />

root volume and root surface area were recorded in<br />

DSR compared to TPR; however, the root diameter<br />

followed the reverse trend. The highest root length, root<br />

diameter and root volume were recorded with 50%<br />

RDF+50% N through FYM compared to control; the<br />

shortest roots were recorded with 100% RDF. Among<br />

varieties, the maximum root length was found in Pusa<br />

Sugandh 5 and the minimum in IR 64.<br />

3.9.2 Conservation Agriculture for<br />

Improving Resource-Use Efficiency and<br />

Productivity in Rice-Based Cropping System<br />

In an experiment studied in 2010, the performance<br />

of several conservation agriculture practices like directseeded<br />

rice (DSR) with or without Sesbania brown<br />

manuring, rice residues mulch in wheat and summer<br />

mungbean grown for grains and stover incorporated<br />

as green manure was compared. In the rice-wheat<br />

cropping system, rice yields obtained under<br />

conventional puddled transplanted rice (TPR) – zerotill<br />

wheat (ZTW); TPR – conventional till wheat (CTW);<br />

mungbean residues (MBR) + DSR - ZTW + rice residues<br />

(RR) + summer mungbean (SMB); DSR + brown<br />

manuring (BM) - ZTW + RR; and DSR – zero-till wheat<br />

(ZTW) were comparable among themselves, but higher<br />

than other treatments, indicating that DSR with suitable<br />

practices could be a possible alternative to TPR. Sesbania<br />

for brown manuring in DSR, producing about 12 t/ha<br />

biomass (fresh weight) and 1.5 t/ha (dry weight) at 25<br />

days of growth had shown smothering effect on weeds,<br />

but also slightly suppressed the initial seedlings growth<br />

of rice, which resulted in relatively lower yields than<br />

in DSR without Sesbania. However, the yield was<br />

improved considerably when this very treatment was<br />

supplemented with rice residues. Similar result was<br />

obtained with mungbean residues (MBR) incorporation<br />

+ DSR - ZTW + RR + relay mungbean (RMB) treatment,<br />

where rice residue was supplemented. TPR required<br />

twice more irrigation water and had lower irrigation<br />

water productivity than that of DSR. It had three times<br />

greater global warming potential than the direct-seeded<br />

crop.<br />

60<br />

3.9.3 Global Warming Potential of Direct<br />

Seeded Rice – Zero Till Wheat Cropping<br />

System<br />

In a field experiment it was observed that direct<br />

seeded rice (DSR) reduced methane emission compared<br />

to conventionally transplanted rice (TPR). Nitrous oxide<br />

emission increased marginally under DSR. Zero till<br />

wheat reduced emission of carbon dioxide but increased<br />

emission of nitrous oxide and lowered the global<br />

warming potential (GWP) compared to conventionally<br />

tilled wheat. Residue incorporation reduced the nitrous<br />

oxide emission. Cumulative GWP in the rice–wheat<br />

system ranged from 1141 to 1935 kg CO 2 eq./ha in the<br />

different treatments, and direct seeded rice followed by<br />

zero till wheat reduced GWP by 41% compared to the<br />

conventional transplanted rice followed by tilled-wheat.<br />

Effect of tillage on global warming potential (GWP) under<br />

rice-wheat system<br />

Treatments in rice-wheat GWP (kg CO 2 eq./ha)*<br />

TPR- CTW 1935a<br />

TPR - ZTW 1799b<br />

DSR - ZTW 1141d<br />

DSR- ZTW+ RR 1167d<br />

DSR + GM - ZTW 1295c<br />

DSR +GM – ZTW+RR 1304c<br />

TPR- Transplanted puddle rice, DSR – direct seeded rice, CTWconventionally<br />

tilled wheat, ZTW-Zero tilled wheat, RR- rice residue,<br />

GM – green manure.<br />

*In a column, values followed by the same letter are not significantly<br />

different at P


�����-glucosidase inhibitory activity in different varieties of red and green capsicum<br />

prepared from different maturity stages. All the pepper<br />

extracts exhibited strong �-glucosidase inhibitory<br />

ability (> 50%) at various concentrations tested (10, 25<br />

and 50 mg/ml). The inhibitory potential of extracts from<br />

mature cultivars (red/yellow) was higher than their<br />

green counterparts; the percentage inhibition ranged<br />

from 62 to 73% and 85 to 86% at green (GS) and mature<br />

(MS) stages, respectively. There were no significant<br />

differences with respect to cultivars; however,<br />

pronounced differences with respect to maturity stages<br />

were noticed. All ethanolic extracts (10, 25 and 50 mg/<br />

ml) inhibited the yeast �-glucosidase in a dosedependent<br />

manner.<br />

3.10.2 Antioxidant and Sensory Properties of<br />

Novel Bread Rich in Carotene and<br />

Anthocyanins<br />

For the first time, technology for production of<br />

purple and orange coloured breads rich in carotene and<br />

anthocyanins was developed using natural colours as<br />

functional ingredients for improving the nutraceutical<br />

and sensory properties of wheat bread. Anthocyanin<br />

and carotene-rich breads with characteristic purple and<br />

red hues had higher sensory scores than the normal<br />

wheat bread. Consumer preference tested among<br />

children and adults was on a par. The results indicated<br />

that black carrot anthocyanins and capsicum powder<br />

can be used as functional ingredients to develop high<br />

quality breads with high sensory appeal and healthpromoting<br />

ingredients.<br />

61<br />

3.10.3 Ready-to-Eat Pusa Round Breakfast<br />

Cereals From Maize and Finger Millet<br />

A ready-to-eat functional food was developed as<br />

breakfast cereals from quality protein maize (QPM),<br />

and finger millet through extrusion processing. The<br />

product also was incorporated with carrot powder<br />

which provided natural attractive colour. It is round<br />

Pusa Round Breakfast Cereal without carrot<br />

Pusa Round Breakfast Cereal with carrot


in shape and has very soft texture. It could be consumed<br />

with/without milk. The product has been rated highly<br />

acceptable on organoleptic evaluation by people of<br />

different age groups.<br />

3.10.4 Light Reflectance Pattern in Apple<br />

Fruit Bags<br />

Light reflectance pattern in bags of different<br />

colours, which were used to cover apple fruits in the<br />

orchard, was studied by using radio-spectral<br />

photometer in the visible, far red and infrared regions.<br />

The reflectance in yellow-coloured bags was uniform<br />

in visible region, which might have contributed to the<br />

better quality of apples and reduction in physiological<br />

disorders (bitter pit, brown core and cork pit).<br />

Light reflectance pattern in coloured bags used in apple<br />

3.10.5 Non-Destructive Method for Quality<br />

Evaluation of Mangoes<br />

An image acquisition system has been developed<br />

using different cameras (UV, visible and NIR) for<br />

surface and sub-surface imaging. Images obtained<br />

62<br />

using the system in combination with the developed<br />

algorithms parameters like size, perimeter, volume,<br />

weight, surface and sub-surface damages of mangoes<br />

can be detected non-destructively. Additionally, the<br />

colour values (L, a & b) were correlated to the quality<br />

parameters (TSS, acidity and total carotenoid content)<br />

of the mangoes in order to predict the maturity indices<br />

of nine varieties of mangoes. A detailed flavour<br />

profiling of all the nine varieties of mangoes has been<br />

done with respect to the stage of harvest (raw and ripe)<br />

in order to understand the flavour components, which<br />

are responsible for the characteristic flavour of each of<br />

the variety and when the said compound is expressed.<br />

3.10.6 Standardization of Fruit-Based<br />

Carbonated Beverages Pusa Sparking Fruit<br />

Drinks<br />

A process for production of fruit-based carbonated<br />

drinks has been developed for litchi, pineapple, orange<br />

and lemon-pudina. The technical know-how has been<br />

transferred to M/s Goldwin Agro Foods for commercial<br />

production and marketing.<br />

Pusa Sparkling Fruit Drink<br />

(a) (b) (c)<br />

Sequential analysis of mango image for extraction of required physical and qualitative information (a) Original color image, (b)<br />

Blue image, (c) Segmented image, and (d) Outline of the image


3.10.7 Drying Technique for Different<br />

Cultivars of Chrysanthemum and Rose<br />

Drying technique for different cultivars of<br />

chrysanthemum was standardized. It was observed<br />

that the flowers of cvs. Kundan and Pusa Centenary<br />

when embedded in silica gel and dried in hot air oven<br />

for 48 hours at 45 and 40 o C, respectively showed best<br />

quality in terms of retention of flower colour and shape,<br />

while in case of cv. Jayanti embedding of flowers in<br />

63<br />

sand and drying in hot air oven at a temperature of<br />

45 o C gave better results.<br />

Rose cultivars, namely, Pusa Muskan, Imperator<br />

Farah, Cherry Perfait were embedded in sand and<br />

dried in hot air oven at 40-45 o C for 48 hours showed<br />

better flower colour and shape retention.<br />

Pre-treatment of rose cvs. Pusa Bahadur, Pusa<br />

Gaurav, Angelique with citric acid followed by<br />

embedding of flowers in river sand and drying in hot<br />

Kundan Pusa Centenary Jayanti<br />

Pusa Muskan Imperator Farah Cherry Perfait<br />

Pusa Bahadur after drying<br />

Angelique after drying


air oven for 48 hours at 45 o C resulted in better colour<br />

and quality.<br />

3.10.8 Post-Harvest Studies of Cut<br />

Chrysanthemum<br />

Studies were conducted to delay the leaf yellowing<br />

of chrysanthemum. The uniform cut flowers of cv.<br />

White Regan were subjected to various concentration<br />

of preservatives like cobalt chloride (50, 100 and 150<br />

ppm); salicylic acid (50 and 100 ppm); sodium<br />

nitroprusside (50 and 100 ppm); aluminum sulphate<br />

(300 ppm + sucrose 1.5 %); 8-hydroxyquinoline<br />

citrate (HQC) (300 ppm) + sucrose 1.5%, and<br />

8-hydroxyquinoline citrate (400 ppm) + sucrose 1.5 %;<br />

and were compared with control (double distilled<br />

water). The results revealed that minimum weight loss<br />

(9.85 g) and vaselife of 29 days was observed when the<br />

flowers were held in a preservative solution containing<br />

50 ppm cobalt chloride. The solution containing 400<br />

ppm HQC + 1.5% sucrose resulted in maximum vase<br />

life of 33 days, maximum solution uptake (103.67 ml)<br />

and maximum flower opening (4.75 cm) followed by<br />

the flowers held in solution containing 300 ppm HQC<br />

and 1.5% sucrose. It was observed that after 15 days of<br />

laying the experiment, the flowers held in solution<br />

containing 100 ppm sodium nitroprusside showed 100<br />

per cent foliage yellowing while minimum foliage<br />

discolouration (17.1%) was observed in flowers held<br />

in a solution containing 400 ppm HQC + 1.5% sucrose<br />

followed by 50 ppm cobalt chloride. At the time of<br />

termination of experiment the minimum foliage<br />

discolouration (45.9%) was observed with 400 ppm<br />

HQC + 1.5% sucrose followed by 50 ppm salicylic acid.<br />

3.11 MICROBIOLOGY<br />

3.11.1 Diversity Analysis of Microbes in<br />

Extreme Environments and Bioprospecting<br />

for Novel Molecules and Genes<br />

3.11.1.1 Bacterial diversity in Sundarbans and<br />

Bhitarkanika Mangroves<br />

Soil and water samples collected from different<br />

sites in Sundarbans and Bhitarkanika mangroves were<br />

used for isolation of bacteria employing ten different<br />

growth media. The average population of bacteria at<br />

64<br />

different locations of Sundarban and Bhitarkanika<br />

mangroves ranged between 2.4 × 10 3 - 3.4 × 10 6 per g of<br />

sediment and 1.2 × 10 - 3.9 × 10 7 cfu per mL water or<br />

per g of soil, respectively. Based on the varied colony<br />

morphology, 99 and 91 different morphotypes were<br />

selected from Sundarban and Bhitarkanika mangroves,<br />

respectively. Of the 99 isolates from Sundarban, all<br />

isolates could grow at 5% NaCl, 12 cultures at 15% NaCl<br />

and 2 cultures at 20% NaCl. Of the 91 isolates from<br />

Bhitarkanika, 43 could grow at 5% NaCl while 2<br />

cultures could grow at 15% NaCl. Based on 16S rDNA<br />

sequencing, the isolates from Sundarban mangroves<br />

were identified as Arthrobacter nicotianae, Arthrobacter<br />

sp., Bacillus cereus, B. cibi, B. marisflavi, B. megaterium,<br />

B. mycoides, Bacillus sp., B. subtilis, B. thuringiensis,<br />

Kocuria sp., Paenibacillus sp., Pseudomonas gessardii,<br />

Pseudomonas sp. and Staphylococcus sp. The sequences<br />

were submitted to NCBI GenBank with Accession<br />

numbers from JN411476 - JN411495. Based on 16S<br />

rDNA sequencing, the isolates from Bhitarkanika<br />

mangroves were identified as B. amyloliquefaciens,<br />

B. cereus, B. megaterium, Bacillus sp., B. subtilis,<br />

B. mojavensis, B. thuringiensis, Enterobacter sp.,<br />

Lysinibacillus sp., Lysinibacillus sphaericus, Pseudomonas<br />

sp., Rhodococcus equi, Rhodococcus sp., and<br />

Stenotrophomonas sp. The sequences were submitted to<br />

NCBI GenBank with Accession numbers JN411376 -<br />

JN411399.<br />

3.11.1.2 Bioprospecting for molecules and genes<br />

for antibacterial/ antifungal activity against<br />

charcoal rot and bacterial blight disease in<br />

soybean<br />

Five potential bacterial isolates (non-fluorescent<br />

pseudomonads) showing inhibition against Rhizoctonia<br />

bataticola and Xanthomonas oryzae, causative agents for<br />

charcoal rot and bacterial blight diseases in soybean<br />

and rice, respectively were selected for further<br />

characterization of the strains as well as compounds<br />

present in their metabolites. The metabolite was found<br />

to be extracellular, as the concentrated supernatant of<br />

the all the five isolates inhibited the pathogens. When<br />

subjected to physical and chemical agents like low (pH<br />

2.0) and high pH (pH 13.0), low (-20 o C) and high<br />

temperatures (121 o C), SDS (1%), glycerol (50%) and<br />

proteinase K, the metabolite mixture from bacterial


isolate WI-9 was found to be stable and did not lose its<br />

antagonistic activity. WI-9 and W1-2, exhibiting broad<br />

spectrum antagonism (against bacterial and fungal<br />

pathogens) and positive for siderophore production<br />

were selected for metabolite analysis. Butanol-extracted<br />

crude metabolite of one isolate (WI-9) resolved into 8<br />

spots with different R f values in prep TLC. Three of<br />

the prep TLC resolved spots showed positive bioassay<br />

against rice pathogen X. oryzae.<br />

In order to identify and understand the genetic<br />

determinants of antagonism of the isolates, PCR<br />

approach was used. All the five isolates were screened<br />

by PCR using gene-specific primers for phenazines,<br />

DAPG, pyrrolnitrin and pyoluetorin antibiotics, which<br />

are the antibiotics produced commonly by fluorescent<br />

pseudomonads. Only W1-2 isolate gave positive<br />

amplicon for phenazine. This indicates that the<br />

antagonistic mechanisms in the other isolates may be<br />

due to some other novel metabolites.<br />

3.11.1.3 Allele mining in cyanobacteria for<br />

gene(s) involved in salt stress<br />

Superoxide dismutase gene was PCR-amplified<br />

from cyanobacterial isolate SL-8 obtained from<br />

Sambhar salt lake and tolerant to 3% NaCl. The PCR<br />

product was ligated in pGEMT vector and used to<br />

transform competent cells of Escherichia coli strain<br />

DH5á. Plasmid was isolated from clones tolerant to 3-<br />

5% NaCl and the 600 bp insert was sequenced. BLAST<br />

results showed similarity of the sequence with SOD<br />

genes of Nostoc, Lyngbya and Plectonema. Analysis of<br />

the sequence using ORF finder showed the presence<br />

of two ORFs at position 71 and 128. The results<br />

confirmed that SOD gene is involved in tolerance to<br />

salt in cyanobacterial isolate SL-8.<br />

Two cyanobacterial isolates (SL16 and SL17), and<br />

one isolate (SL6) obtained from Sambhar salt lake<br />

showed PCR amplification of genes encoding 3-deoxy-<br />

D-arabino-heptulosonate-7-phosphate (DAHP)<br />

synthase and ecotoine, respectively. Based on 16S rDNA<br />

sequencing the isolate SL6 was identified as<br />

Phormidium. The DAHP synthase amplicon was<br />

sequenced and BLAST results showed similarity with<br />

DAHP synthase gene of Lyngbya, Synechocystis and<br />

Cyanothece. The ORF finder result showed possible ORF<br />

at position 242 of cloned fragment.<br />

65<br />

3.11.1.4 Diversity and functions of anaerobic<br />

microorganisms involved in ammonia oxidation,<br />

iron- and manganese reduction<br />

The rhizosphere of many plants provides<br />

microaerophilic or anoxic conditions for microbial<br />

processes such as anaerobic ammonium oxidation, iron<br />

reduction and manganese reduction, which contribute<br />

significantly to elemental cycling and thereby plant<br />

productivity. To facilitate the isolation of<br />

microorganisms which mediate anaerobic ammonium<br />

oxidation, flooded soil microcosms (1:1.25 ratio, w/v)<br />

were prepared and enriched by adding N at two<br />

different levels (10 and 100 mM). Potential ammonia<br />

oxidation rates, when assayed in soil samples, as<br />

accumulated nitrate, according to a short incubation<br />

chlorate inhibition technique, ranged between 16 to 214<br />

ng NO -N /g dry soil /hr. With increase in N addition<br />

2<br />

rate, the potential ammonium oxidation rates declined<br />

gradually. When pH was maintained at 4, the rates<br />

declined by about four folds of those without or with<br />

low N addition rates. Potential ammonium oxidation<br />

proceeded rapidly in the surface and interface between<br />

the surface and the floodwater. Obligate anaerobic<br />

organisms were selected after exposure to aerobic and<br />

anaerobic conditions. About forty isolates were selected<br />

for further characterization. Iron reducing<br />

microorganisms were isolated using the medium<br />

containing ferric citrate (50 mM) as the electron<br />

acceptor and varying concentrations of acetate as the<br />

electron donor. Microbially reducible iron in soil ranged<br />

between 41 and 213 μmol /g which declined during<br />

,<br />

incubation suggesting its reduction and oxidation.<br />

When nitrate was added at 0, 100, and 1000 μmol /g,<br />

nitrate was found to be stimulatory to iron reduction<br />

at the highest concentration.<br />

3.11.1.5 Extraction and purification of<br />

phycobilins (PC, PE) from cyanobacteria<br />

Phycobilin pigments of cyanobacteria are water<br />

soluble, strongly fluorescent, which possess<br />

antioxidant property and find applications in food,<br />

agriculture, cosmetics, biotechnology, diagnostics and<br />

pharmaceuticals. The extraction of phycobilins from<br />

selected cyanobacteria, viz., Anabaena variabilis, A.<br />

oryzae and Nostoc commune was standardized and an<br />

efficient method for purifying phycocyanin (PC) and


Separation of phycocyanins and phycoerythrin by DEAE-Cellulose<br />

column chromatography. SDS-PAGE analysis of purified<br />

phycocyanins showing both ����� and ����� subunits. M: Protein<br />

molecular weight marker; 1: PC purified from N. commune; 2: PC<br />

purified from A. variabilis; 3: PC purified from A. oryzae<br />

phycoerythrin (PE) from these cyanobacteria<br />

developed. The extraction was carried out by repeated<br />

freezing and thawing in acetate buffer followed by<br />

purification using ammonium sulphate precipitation,<br />

dialysis and anion exchange chromatography with<br />

DEAE-Cellulose column, aided in purifying both PC<br />

and PE separately. Among three cultures studied, PC<br />

from A. oryzae was obtained with a final purity of 4.75<br />

followed by N. commune PC with purity of 3.99 whereas<br />

a 6.37 purity of PE was obtained from N. commune<br />

followed by Anabaena variabilis PE with purity of 4.95.<br />

Such high purity PC and PE obtained by this method<br />

could be used for pharmaceutical purpose. The purified<br />

phycocyanins were further characterized for their<br />

molecular weight using SDS PAGE. All the three<br />

phycocyanins purified from respective cyanobacteria<br />

consisted of two subunits (� and �). The PC from N.<br />

commune and A. variabilis had same molecular weight<br />

of respective sub units, whereas � subunit of A. oryzae<br />

showed higher molecular weight.<br />

3.11.2 Microbes for Nutrient Management<br />

3.11.2.1 Organic farming in rice-based cropping<br />

system through microbial inputs<br />

In kharif season, basmati rice (cv. Pusa Basmati 6)<br />

was grown under organic management, integrated<br />

nutrient management (INM) and chemical fertilization<br />

and it was found that the grain yield under organic<br />

management, i.e., application of four organic inoculants<br />

(blue green algae, Azolla, vermicompost and FYM) was<br />

the highest (4.72 t/ha), followed by the yield under INM<br />

(4.58 t/ha) and chemical fertilization (4.36 t/ha). The<br />

concentration and uptake of micronutrients, viz., Fe,<br />

Zn and Mn in rice grain increased significantly due to<br />

66<br />

organic farming over INM and chemical fertilization.<br />

Lower incidence of brown plant hopper (BPH) in<br />

organic management (2-4 larvae/hill) was observed<br />

compared to INM (8-10 larvae/hill) and chemical (17-<br />

20 larvae/hill) fertilization. An increase in population<br />

of beneficial insects like spiders was recorded under<br />

organic farming. Vegetable crops like cauliflower,<br />

broccoli, cabbage and carrot grown under organic<br />

management using microbial inputs, viz., biofertilizers<br />

(Azotobacter/ Rhizobium), vermicompost and FYM gave<br />

yield on a par with INM and chemical fertilization. The<br />

highest value of organic C was observed in 0-5 cm soil<br />

depth followed by values at 5-15 cm and 15-30 cm soil<br />

depth. Significant variation in bulk density (BD) and<br />

saturated hydraulic conductivity (HC) was observed<br />

under INM and organic treatments compared to<br />

chemical treatment for surface layer (0-15 cm). There<br />

was not much variation in BD and HC among the<br />

treatments at the lower depth (15-30 cm). Similar types<br />

of results were observed in wheat crop also. Analysis<br />

of change in microbial parameters in rice indicated that<br />

MBC, dehydrogenase, FDA hydrolase, acid<br />

phosphatase and alkaline phosphatase were higher<br />

under organic nutrition compared to INM and chemical<br />

fertilization. In rice-based system carrot crop showed<br />

highest MBC and ß–glucosidase activity compared to<br />

other crops under INM and organic practices.<br />

3.11.2.2 Development and evaluation of novel<br />

Trichoderma based biofilms<br />

An investigation was undertaken to optimize in<br />

vitro development of biofilms using fungal mycelia<br />

(Trichoderma viride) as matrices and N-fixing and Psolubilizing<br />

bacteria as partners, as a prelude to their<br />

use as biofertilizers (biofilmed biofertilizers, BBs) and<br />

biocontrol agents for different crops. Microscopic<br />

observations revealed that bacteria and Trichoderma<br />

grew in a coordinated manner and a thick mat like<br />

growth was formed in 16d. In vitro studies were<br />

conducted for evaluating the PGP traits of biofilms<br />

developed. Trichoderma–Bacillus and Trichoderma–<br />

Pseudomonas biofilms exhibited enhanced antifungal<br />

activity, ammonia, indole acetic acid (IAA) and<br />

siderophore production, compared to the other<br />

treatments. Trichoderma–Azotobacter recorded highest<br />

nitrogenase activity, while 1-aminocyclopropane-1-


carboxylic (ACC) deaminase activity was highest in<br />

Trichoderma–Bacillus biofilm. The synergism in terms<br />

of the PGP traits in the biofilms revealed the possibility<br />

of inter-organism signalling among the partners and<br />

their promise for use as PGP inoculants. Evaluation of<br />

the biocontrol potential of these biofilms in<br />

Macrophomina sp. challenged cotton crop revealed<br />

significant reduction in mortality and enhanced plant<br />

vigour. Trichoderma–Bacillus biofilm was found to be<br />

most promising as a PGP and biocontrol agent in the<br />

cotton crop.<br />

3.11.2.3 Development and evaluation of novel<br />

cyanobacterium-based biofilms with superior<br />

establishment traits<br />

A set of fifteen bacterial and four fungal strains<br />

were selected on the basis of their agricultural<br />

significance as PGPR, N-fixers, P-solubilizers,<br />

hydrolytic enzyme producers or production of biocidal<br />

metabolites. The biofilms were generated using the<br />

cyanobacterium Anabaena torulosa as the matrix. Such<br />

biofilms were evaluated in terms of the activity of<br />

hydrolytic enzymes and fungicidal activity against<br />

phytopathogenic fungi. The activity of �-1,3 glucanase<br />

in general, showed a gradual increasing trend up to 9<br />

weeks, while endoglucanase activity was highest after<br />

6 weeks of incubation. Observations revealed that the<br />

Anabaena sp. - fungus biofilms (especially Anabaena–<br />

Inhibition zone produced by biofilms against phytopathogenic<br />

fungi - a-c, Pythium debaryanum and d-f, Macrophomina<br />

phaseoliona (a and d represent control plates of the fungi,<br />

respectively); C1-C15 denote the different biofilms<br />

67<br />

Aspergillus awamori) exhibited highest activity of �-1,3<br />

glucanase and ranked second in terms of chitosanase<br />

activity. Fungicidal activity was recorded up to 9 weeks<br />

in most of the biofilms and highest values were<br />

recorded in Anabaena sp.- Bacillus and Anabaena–<br />

Psuedomonas biofilms (C1/C2/C3/C4/C5/C11/C12).<br />

The widespread use of cyanobacteria as<br />

biofertilizers is hampered by their poor establishment<br />

as a result of grazing by invertebrate grazers, especially<br />

earthworms, snails, nematodes, etc. Therefore, the<br />

biofilms were also tested for their anti-grazer traits in<br />

microcosm experiments, which revealed no negative<br />

interactions of earthworms and selected nematode on<br />

biofilm growth. The biocontrol activity of such<br />

biofilmed preparations against phytopathogenic fungi,<br />

and proliferation in the presence of selected<br />

microfaunal grazers illustrates their promise in<br />

agriculture as potential inoculants, which can<br />

effectively establish in soil.<br />

3.11.2.4 Profiling of Azolla in relation to crop<br />

improvement<br />

The Anabaena-Azolla system, which is utilized as<br />

biofertilizer/green manure for rice crop produces a lot<br />

of biomass that is rich in nutrients and can be exploited<br />

for plant growth promotion. Methanolic extracts<br />

prepared from Azolla microphylla harvested during<br />

summer and winter season were screened for the<br />

presence of antimicrobial activity against several strains<br />

of plant pathogenic bacteria and fungi. The extracts<br />

exhibited antibacterial properties against several<br />

pathogenic strains of Xanthomonas, despite significant<br />

differences in the phytochemical constituents in the<br />

Azolla biomass from different seasons. However, the<br />

extracts did not exhibit any antifungal activity against<br />

the fungal pathogens tested. A preliminary<br />

phytochemical analysis of the extracts showed the<br />

presence of several compounds with known<br />

antibacterial activity. Significant differences in the<br />

content of total phenolics and flavonoids were observed<br />

with respect to the seasons and the extracts also showed<br />

significant antioxidant activity. The TLC profile of the<br />

extracts revealed the presence of glycosidic flavonoids<br />

and the HPTLC profile of the extracts showed the<br />

presence of rutin and quercetin, compounds having<br />

known antibacterial activity, along with several other


compounds. Thus, the results show the potential of<br />

aquatic pteridophyte Azolla microphylla as a rich source<br />

of antimicrobials which can be exploited in integrated<br />

pest management.<br />

3.11.2.5 Genotypic influence on chickpea<br />

Rhizobium interaction<br />

The root exudates of leguminous plants influence<br />

the outcome of legume-Rhizobium interaction. High<br />

and low nodulating chickpea genotypes, BG 256 and<br />

BG 2024, respectively were selected to study their root<br />

exudates profile. Root exudates of both the chickpea<br />

genotypes showed similar sugar and amino acid<br />

profiles by TLC. However, variations were observed<br />

in the flavonoid profiles of both the genotypes. HPLC<br />

analysis of ethyl acetate fraction dissolved in methanol<br />

revealed the presence of daidzein and formononetin<br />

in BG 256 which is below detectable limit in the root<br />

exudates of BG 2024. Chemotactic study with these<br />

flavonoids is in progress to confirm the influence of<br />

root exudates on nodulation potential of<br />

Mesorhizobium.<br />

3.11.2.6 Development of Azotobacter bioinoculants<br />

for saline soils<br />

For use as bioinoculant under salt stress conditions,<br />

Azotobacter strains were isolated and screened for salt<br />

tolerance and plant growth promoting activities. Ten<br />

Azotobacter strains tolerant to salt were evaluated in a<br />

pot culture experiment to alleviate the effect of salt<br />

stress on growth and yield of wheat. Azotobacter strains<br />

H15, H16, A11 and A 24 performed well under saltstress<br />

conditions and significantly improved grain and<br />

straw yields of wheat. Strain A32 performed well under<br />

normal soil conditions but could not perform well<br />

under saline-stress conditions.<br />

These four Azotobacter strains were also found to<br />

improve per cent seed germination and seedling vigour<br />

of wheat under salt-stress. There was an increase in<br />

ethylene production by the wheat seedlings under<br />

stress conditions. However, inoculation with salttolerant<br />

Azotobacter sp. strains decreased ethylene<br />

production, indicating alleviation of salt stress due to<br />

inoculation. The IAA production was also enhanced in<br />

the root exudates of wheat seedlings inoculated with<br />

Azotobacter strains under salt-stress conditions.<br />

68<br />

3.11.3 Microbial Degradation of Plastics and<br />

Agro-Wastes<br />

Three bacterial cultures identified as Enterobacter<br />

cloacae, Brucella sp. and Alcaligenes for degradation of<br />

polyethene were biochemically characterized along<br />

with two new cultures isolated from sewage site,<br />

Karnal bypass. All the five isolates were tested for aryl<br />

esterase, alkaline phosphatase, dehydrogenase and<br />

fluorescein diacetate (FDA) hydrolysis. Enterobacter<br />

cloacae (P-6) showed highest FDA activity of 1.33 μg<br />

fluorescein liberated /mLculture/hr. The new isolate E<br />

showed highest aryl esterase activity whereas alkaline<br />

phosphatase activity was highest for isolate F.<br />

SEM of polyethene sheet degraded due to action of bacteria:<br />

(a) Colonization of rod shaped bacteria and (b) Breakdown of<br />

intact matrix of polyethene<br />

(a)<br />

(b)<br />

Scanning electron microscopy (SEM) of the<br />

polyethene sheet incubated with isolate Enterobacter<br />

cloacae for more than two years revealed that the isolate<br />

had colonized the surface of the plastic in the


hydrophobic region. The degradation of the plastic was<br />

initiated from the periphery and the plastic matrix was<br />

broken down to form crystal like structure. The results<br />

indicated that the bacteria could survive solely on<br />

plastic (with no external C and N source) for more than<br />

two years indicating that the intermediates of<br />

polyethene degradation served as source for the<br />

nutrients.<br />

3.11.3.1 Development of formulation of effective<br />

microorganisms (EM) for production of enriched<br />

compost for peri-urban agriculture<br />

Effective microorganism (EM) technology, which<br />

uses indigenous effective microorganisms, is being<br />

proposed as a useful tool for managing systems<br />

pertaining to agriculture and environment. Use of EM<br />

acts as an activator and brings down the composting<br />

period. The EM consortium was developed using<br />

indigenous isolates of yeast, lactic acid bacteria,<br />

photosynthetic bacteria, fungal and actinomycete<br />

strains, namely, Phanerochaete chrysosporium VV18,<br />

Streptomyces sp. C3, Rhodotorula glutinis Y6, Lactobacillus<br />

plantarum, and a strain of photosynthetic bacteria. Rice<br />

straw amended with poultry manure was inoculated<br />

with EM consortium; fungal compost inoculum alone<br />

and in combination and process was carried out in open<br />

pits for 90 days. Analysis of physicochemical<br />

parameters after 30 and 60 days incubation indicated<br />

slight increase in pH and the values ranged between<br />

8.9 and 9.1. There was a decrease in organic matter<br />

content from 30 to 60 days. Noticeable increase in<br />

humus content was observed in all the treatments and<br />

the highest was in treatment inoculated with<br />

combination of EM and compost inoculum, in which<br />

two folds enhancement from 2.1 to 4.7% on incubation<br />

from 30 days to 60 days was observed.<br />

3.11.3.2 Rapid composting technology of agrowaste<br />

at low and high temperatures<br />

High weather temperature (>40 o C) during summer<br />

and low temperature (


isolates (Eupenicillium crustaceum and Penicillium<br />

citrinum) along with cow dung, poultry dropping and<br />

urea was used. Sampling at regular intervals was done<br />

for organic carbon, humic acid, fulvic acid, nutrients<br />

and hydrolytic enzymes. An increase of 16% in organic<br />

C was recorded within 45 days of composting with<br />

maximum enzyme activity in rice straw + cow dung +<br />

bacterial consortium (124.1 IU) treatment followed by<br />

rice straw + fungal consortium + poultry dropping<br />

(105.9 IU).<br />

3.11.4 Bioprospecting Microbes for<br />

Production of Biodiesel and Bioethanol<br />

3.11.4.1 Enhancing lipid productivity of<br />

microalgae using nutritional factors<br />

Microalgae are a promising source for maximumyield<br />

of biofuels, because they exhibit fast reproductive<br />

cycles and their oils range from 15 to 35%, besides being<br />

rich in essential fatty acids. A set of ten microalgal<br />

isolates from selected extreme habitats of India,<br />

belonging to five genera (three species each of Chlorella<br />

and Chlorococcum, one each of Scenedesmus,<br />

Chlamydomonas, Kirchneria and Ulothrix) were evaluated<br />

for their lipid accumulating potential. Highest values<br />

of 18% lipids were recorded in Chlorella sp. MIC-G6,<br />

followed by Chlorella sp. MIC-G4 (14%) and<br />

Scenedesmus sp. MIC-G8 (13%). These three strains were<br />

selected for analyzing the effect of different nitrogen<br />

sources and their limitation at different stages of growth<br />

on lipid accumulation. A biphasic nutritional strategy<br />

was employed for enhancing lipid accumulation in the<br />

three selected microalgae, involving supplementation<br />

with different nitrogen sources, viz., NaNO 3 , KNO 3 ,<br />

urea and (NH 4 ) 2 CO 3 , followed by their limitation.<br />

Sodium nitrate (NaNO 3 ) was found to be the best for<br />

enhancing lipid accumulation. An enhancement of 40-<br />

50% in lipids on dry weight basis was recorded in<br />

Chlorella sp. MIC-G4 and Scenedesmus sp. MIC-G8, in<br />

the treatment involving 24 d growth in nitrogen-rich<br />

medium, followed by 8 d in nitrogen- limited medium.<br />

Fatty acid methyl esters (FAME) analyses revealed an<br />

abundance of 92-97% of C16-C18 fatty acids, with<br />

palmitic, linoleic and alpha linolenic acids being most<br />

abundant. MIC-G6 recorded the highest content of<br />

�-linolenic acid (43.7 and 36.0%) under nitrogenenriched<br />

and limited conditions. This study illustrated<br />

70<br />

the promise of MIC-G4 and MIC-G8 for enhanced lipid<br />

productivity using the biphasic mode of cultivation,<br />

and MIC-G6 as a rich source of �-linolenic acid.<br />

In order to develop cost-effective algal oil<br />

production, screening of a set of twenty strains was<br />

undertaken under the nutritional modes of<br />

phototrophy, mixotrophy and heterotrophy. Lipid<br />

productivity ranged from 2 to 13% under<br />

photoautotrophic conditions, 1.7 to 36.5% under<br />

mixotrophic conditions and 0.9 to 32% under<br />

heterotrophic conditions. MIC-G5 Chlorella sp. followed<br />

by MIC-G11 Chlorella sp. exhibited the highest cellular<br />

lipid content (355 and 271 μg/mL) and lipid<br />

productivity of 32 and 28%, respectively, under<br />

mixotrophic condition. In the glucose-supplemented<br />

conditions (heterotrophic), a significant reduction in<br />

PUFA (poly unsaturated fatty acids) from 25.1 to 9.4,<br />

29.2 to 12.4 and 44.7 to 10.2 was observed in MIC-G4,<br />

MIC-G5 and MIC-G11, respectively. A remarkable<br />

enhancement of 33 to70% in SFA (saturated fatty acids)<br />

was recorded under mixotrophic conditions. As the<br />

quality of biodiesel is based on high SFA and low PUFA,<br />

results of this study illustrate the significance of<br />

glucose-supplemented condition as a promising<br />

strategy for generating high value biodiesel from algae.<br />

3.12 ENVIRONMENT SCIENCE<br />

AND CLIMATE RESILIENT<br />

AGRICULTURE<br />

3.12.1 Response of Field Crops to Elevated<br />

Temperature and Carbon Dioxide<br />

A five year study showed that rise in atmospheric<br />

CO 2 level up to 560 ppm caused 15-20% increase in the<br />

yields of wheat, rice, chickpea, groundnut, green gram,<br />

mustard and potato. Rise of temperature by 1 to 4 o C,<br />

on the other hand, decreased the yields of these crops<br />

by 4-40%. Wheat registered highest degree of thermal<br />

sensitivity followed by groundnut, green gram, rice,<br />

potato, chickpea and mustard. Wheat lost grain yield<br />

beyond 1.5 o C rise in temperature while chickpea and<br />

mustard exhibited loss in yield only beyond 4.5 and<br />

5.0 o C even at the atmospheric CO 2 level of 560 ppm.<br />

Thus, rice, chickpea, mustard, potato and green gram<br />

may be more suitable crops for future climatic scenarios<br />

of enhanced temperature and CO 2 levels.


3.12.2 Regional Impacts of Climate Change<br />

on Rice<br />

Regional impact of climate change on yields of<br />

irrigated and rainfed rice was assessed using the<br />

InfoCrop-Rice model. On an aggregated scale, irrigated<br />

rice yields are projected to reduce by ~4% in 2020, 7%<br />

in 2050 and by ~10% in 2080 scenarios. On the other<br />

hand, rainfed rice yields in India are likely to be<br />

reduced by ~6% in 2020 scenario, but in 2050 and 2080<br />

scenarios they are projected to decrease only marginally<br />

(


Vulnerability of different districts of the Indo Gangetic Plain to<br />

climate change<br />

exposure (E), sensitivity (S) and adaptive capacity (A)<br />

approach with the help of principal component analysis<br />

(PCA). Ranking of all 161 IGP districts spread in 5 states<br />

(Punjab, Haryana, UP, Bihar and West Bengal), was<br />

done according to their vulnerability index. The<br />

districts showing high vulnerability index were more<br />

vulnerable to climate change variations. According to<br />

their vulnerability index all districts were classified into<br />

4 classes, viz., extreme, high, moderate and low. Most<br />

of districts of Punjab and Haryana fell in the category<br />

of low or moderately vulnerable compared to the<br />

districts of Bihar and Uttar Pradesh. Average<br />

productivity of crop was an important indicator<br />

deciding the vulnerability of the district. The other<br />

important indicators with respect to vulnerability<br />

included mean changes in minimum and maximum<br />

temperatures in rabi season over the years.<br />

3.12.6 Enhancing Adaptive Capacity to<br />

Climate Change in Vulnerable Regions<br />

Introduction of terminal heat tolerant wheat variety<br />

WR 544 increased yield at Dhar by 12 to 18% over the<br />

conventional variety Lok 1. Early heat and drought<br />

tolerant varieties of wheat, viz., HI 8627 and HI 8638<br />

also showed better performance than the local variety.<br />

At Mewat, the current local variety of mustard<br />

Rajasthan Lahar replaced by Pusa Mehak resulting in<br />

an increase of 5 to 7% in yield.<br />

72<br />

In Mewat, backyard vegetable cultivation saved<br />

‘15/day on household vegetable consumption for 90<br />

days. Livestock inteventions such as deworming,<br />

nutritional mixture and fodder for animlas increased<br />

milk yield by 2.0 L/animal/day in the intervened<br />

households.<br />

A combination of UG pipeline and sprinkler in<br />

wheat crop could reduce 75 kg CO 2 emission/ha.<br />

Introduction of high yielding short duration<br />

composite varieties, viz., JM216 and PC3 at bridal areas<br />

of Dhar facilitated quality seed production and<br />

improved the availability of maize seeds. High quality<br />

protein maize (HQPM 1) will ensure better nutrition.<br />

3.12.7 Impact of Air Pollutants on<br />

Productivity of Crops and Pest Incidence<br />

Field experiments in the open-top chambers<br />

(OTCs) were carried out with rice (vars. Pusa 1401, Pusa<br />

1121, Pusa 1460 and Taraori Basmati) and mustard (var.<br />

Pusa Tarak). These crops were exposed to different<br />

levels of O 3 alone and along with elevated CO 2. Elevated<br />

O 3 (AOT 40 of 12.6 ppm/hr) level led to a 12-15% yield<br />

reduction across the rice varieties; the highest yield<br />

reduction occurred in the traditional Taraori Basmati.<br />

The yields increased by 17 to 21% in the presence of<br />

elevated CO 2 (500±50 ppm) along with sub-ambient O 3<br />

levels (charcoal filtered air). Exposure to O 3 and CO 2<br />

negatively affected the virulence potential of blast<br />

disease pathogen, Magnaporthe oryzae, in rice var. Pusa


1401. Significant increase in activities of b-1,3-glucanase<br />

(33-45%) and chitinase (10-14%) enzymes (responsible<br />

for synthesis of defense related PR proteins) in Pusa<br />

1401 at vegetative and tillering growth stages were<br />

observed during post-exposure period. Activities of the<br />

enzymes were maximum in plants exposed to elevated<br />

O 3 at tillering stage.<br />

During rabi 2010-11, the elevated O 3 level (EO,<br />

ambient + 25-30 ppb O 3 ) decreased the seed yield of<br />

mustard by 26%. In EO+CO 2 treatment, seed yield<br />

increased by 11% over EO alone. There was a 18%<br />

decrease in oil content due to EO; however the presence<br />

of elevated CO 2 increased the oil content by 12% over<br />

the EO alone. Spectral signatures generated for aphid<br />

population dynamics on mustard plants under<br />

different treatments showed that the photochemical<br />

reflectance index (PRI) was best correlated (r = 0.71)<br />

with the aphid population dynamics. The PRI value<br />

was minimum (0.03) for maximum aphid population<br />

on twig and stem of mustard plants exposed to O 3 +<br />

CO 2 compared to other treatments.<br />

3.12.8 Evaluation of Cellulolytic Fungal<br />

Strains for Fermentable Sugar Production<br />

Rice straw is composed of heterogeneous complex<br />

of carbohydrate polymers, especially cellulose and<br />

hemicellulose which can be converted to fermentable<br />

sugars by cellulolytic fungal strains. Microorganisms<br />

can subsequently utilize and convert these sugars into<br />

ethanol and biohydrogen. Nine promising fungal<br />

strains belonging to Aspergillus, Trichoderma and<br />

Fusarium sp. were evaluated on the basis of their<br />

enzymatic activities and production of sugar. The FPase<br />

Enzymatic activity and production of reducing sugar from rice<br />

straw by different fungal strains<br />

73<br />

(filter paper) and CMCase (carboxy-methylcellulose)<br />

activities produced from Trichoderma reesei NCIM 1052<br />

exhibited maximum potential for production of<br />

fermentable sugar from rice straw.<br />

3.12.9 Physiological and Biochemical<br />

Characterization of Ionizing and Non-<br />

Ionizing Radiation Responses on Shelf-Life<br />

Extension and Quality of Tomato Fruit<br />

Studies conducted to assess the effect of gamma<br />

radiation and static magnetic field, alone and in<br />

combination, on the post-harvest storage behaviour of<br />

tomato showed that less than 1 kGy gamma radiation<br />

dose could be used to extend the shelf life of tomato as<br />

it was associated with increased firmness, significantly<br />

lower ethylene production, and delayed redness in<br />

post-harvest irradiated fruits of tomato.<br />

3.12.10 Persistence of Gamma Irradiation<br />

Effect during Prolonged Storage of Exposed<br />

Bhindi Seeds<br />

The GI 50 value observed for bhindi (Abelmoschus<br />

esculentum) seeds was found to be ~0.55 kGy. Radiation<br />

treatment effect persisted even after 4 months of seed<br />

storage. Days to 50% flowering increased with an<br />

increase in radiation dose and at low dose (< 0.05 kGy)<br />

yields were improved. An improvement in plant and<br />

leaf mass, and leaf area was observed at gamma<br />

radiation dose of ~0.05 kGy. Only magnitude of<br />

radiation response got altered with the two seed storage<br />

treatments but the pattern of response remained<br />

Effect of gamma irradiation on economic yield of bhindi cv. Pusa<br />

A 4 sown immediately and after four months of seed treatment in<br />

field


unchanged. Gas exchange attributes such as<br />

photosynthesis were improved at low dose;<br />

transpiration rate and stomatal conductance of<br />

irradiated plants, in general, were higher than control.<br />

Field performance up to 0.2 kGy was rated as excellent<br />

by vegetable breeders.<br />

3.12.11 <strong>Agricultural</strong> Meteorology<br />

3.12.11.1 Weather-based agro-advisory services<br />

Weather based agro-advisories for farmers of Delhi<br />

and NCR are sent twice a week by the agro-advisory<br />

unit located in the Division of <strong>Agricultural</strong> Physics of<br />

the <strong>Institute</strong>. The advisories are based on mediumrange<br />

weather forecast data for next five days, received<br />

twice a week on Tuesday and Friday from IMD, New<br />

Delhi, on different weather parameters, viz., maximum<br />

and minimum temperatures, rainfall, cloud cover, wind<br />

speed and wind direction. The advisories are prepared<br />

by a team consisting of expert from different<br />

disciplines. Weather information and crop wise<br />

weather-based agro-advisories are passed on to the<br />

farmers on real time basis through print, electronic<br />

media and speed-post. Bi-weekly agromet advisory<br />

74<br />

bulletins are prepared in Hindi as well as in English<br />

and published in the newspapers, uploaded on IARI<br />

website (http://www.iari.res.in) and sent to IMD for use<br />

in their website for district agro-advisory and also for<br />

preparing national agro-advisory bulletin. The bulletin<br />

is sent through e-mail to ATIC, KVK Shikohpur and<br />

Ujawa, IFFCO, State Departments of Agriculture,<br />

<strong>Agricultural</strong> Technology Management Association,<br />

NGOs and e-chopal. A web page was also developed<br />

and maintained on IARI website for issuing advisories<br />

and real time weather data along with medium range<br />

weather forecast. The agromet advisory bulletin<br />

contains summary of previous week’s weather, value<br />

added medium range weather forecast information (for<br />

the next 5 days), crop management based on weather<br />

forecast and warning to farmers much in advance on<br />

rainfall variation, its amount and other weather<br />

variables including pest/disease problems, etc., so that<br />

farmers can decide about sowing, crop management,<br />

application of nutrients, irrigation scheduling,<br />

harvesting, etc. During <strong>2011</strong>-12, 105 agro-advisory<br />

bulletins were prepared in Hindi as well as in English<br />

and given coverage in 26 newspapers.


2. GENETIC RESOURCES<br />

Genetic resources are invaluable source of genes/ alleles which could play a vital role in improvement of<br />

crops. Therefore, the <strong>Institute</strong> has a vibrant programme not only on the collection and conservation of genetic<br />

resources in crops but also on utilization of genetic resources in different crops for widening the genetic base as<br />

well as developing new varieties with improved productivity. Large set of new germplasm lines, including<br />

landraces, released varieties, wild and related species of various crops, were collected from different sources,<br />

maintained as active germplasm and utilized in the pre-breeding and genetic enhancement of crops at the <strong>Institute</strong>.<br />

2.1 CROP GENETIC RESOURCES<br />

2.1.1 Wheat<br />

2.1.1.1 Maintenance and utilization of wild<br />

relatives<br />

About 5050 accessions of wild relatives of wheat are<br />

being maintained at IARI and its regional stations, which<br />

include diploid, tetraploid as well as hexaploid species.<br />

The work is at an advanced stage on introgression of<br />

rust resistance genes from several wild species such<br />

Aegilops markgrafii (2n=2 x =14, genome CC), Ae. Speltoides<br />

(2n=2x=14, genome SS), Triticum militinae (2n=4x=28,<br />

genome AAGG) and T. turgidum (2n=4x=28, genome<br />

AABB). Cytologically stable plants were identified in<br />

T. turgidum derivatives for stripe rust resistance, while<br />

T. militinae derivatives were screened at seedling stage<br />

as well as at adult plant stage in BC 3 generation.<br />

2.1.1.2 Sources of resistance to African stem rust<br />

race Ug99 and its variants<br />

Durum wheat varieties HD 4672, HI 8498, HI 8627<br />

and HI 8663, and bread wheat varieties DL 788-2, HD<br />

2987 and HI 1531 showed resistance to the African stem<br />

rust race Ug99 and its variants during screening in<br />

Kenya. Besides this, 52 F 4 cross bulks in bread wheat<br />

were sent to Njoro, Kenya for evaluating them against<br />

Ug99, of which progenies from 7 crosses showed high<br />

level of resistance.<br />

2.1.1.3 Screening for stripe rust resistance<br />

One hundred seventy seven CVT entries of wheat<br />

were evaluated at Regional Station (Tutikandi), Shimla<br />

27<br />

for seedling resistance against 46S119 and 78S84<br />

pathotypes of stripe rust. Fifty-nine genotypes were<br />

recorded as resistant against 46S119, 58 were resistant<br />

to 78S84 and 28 entries were resistant against both of<br />

the pathotypes. Besides, 65 advanced bulks were also<br />

evaluated for resistance against most virulent<br />

pathotype121R63-1, 21 were recorded as resistant.<br />

2.1.1.4 Screening elite lines for presence of rust<br />

resistance genes<br />

A set of 137 backcross derived lines were analyzed<br />

for the presence of rust resistance genes Sr2, Sr24, Sr25,<br />

Sr26, Sr36 and Lr34 using gene linked markers. Several<br />

lines carrying these in different combinations in the<br />

background of 21 popular wheat cultivars developed<br />

at the Regional Station, Wellington have been<br />

identified. In addition to this, genotypes carrying Yr9,<br />

Yr15 and Pm8 in addition to the rust resistance genes<br />

also have been identified.<br />

2.1.2 Rice<br />

2.1.2.1 Registration of genetic stocks resistant to<br />

blast disease<br />

Using marker assisted foreground and background<br />

selection, two blast resistance genes, Pi54 and Piz-5<br />

were transferred into PRR 78, the male parent of Pusa<br />

RH 10. Two improved versions of PRR 78, namely,<br />

Pusa1602-06-24-5-45 carrying gene Piz5 and Pusa1603-<br />

06-11-4-19 carrying gene Pi54, conferring resistance to<br />

blast disease, have been submitted for registration as<br />

genetic stocks with NBPGR, New Delhi.


2.1.2.2 Enrichment of germplasm and<br />

maintenance of genetic resources<br />

A total of 44 germplasm including 40 released<br />

varieties and four trait specific germplasm including<br />

donors for bacterial blight and blast diseases<br />

were obtained from different sources. A set of<br />

1450 germplasm lines were multiplied during kharif<br />

<strong>2011</strong>.<br />

28<br />

2.1.3 Maize<br />

2.1.3.1 Resistance sources for maize foliar diseases<br />

The newly developed and elite maize inbreds were<br />

screened against Maydis leaf blight (MLB), banded leaf<br />

and sheath blight (BLSB) and Turcicum leaf blight under<br />

natural and artificial epiphytotics at IARI, New Delhi<br />

and IARI Centre, Dharwad and several resistant<br />

genotypes were identified.<br />

S. No. Disease No. of lines Resistant sources identified<br />

screened (Disease score < 1.5)<br />

1. Maydis leaf blight (MLB) 1129 120 lines including DK 1103, DK 1118, DK 1122,<br />

DK 111541, DK 110181, DK 110448, DK 110540,<br />

DK 110042, DK 110077, DK 110079, DK 110097<br />

2. Banded leaf and sheath blight (BLSB) 109 DK 111519, DK 111532, DK 111534, DK 111540,<br />

DK 111513, DK 111522, DK 111515<br />

3. Turcicum leaf blight (TLB) 250 A total of 75 lines including BM 196, BM 193,<br />

BM 194, BM 195, BM 197, BM 51, BM 8, BM-52,<br />

BM 48, BM 202, BM 185<br />

Two inbreds (DK 1103 and DK 111541) resistant to both MLB and<br />

BLSB<br />

2.1.2.3 Sources for specialty traits<br />

More than 1500 inbreds mostly in QPM<br />

background and 38 populations in the genetic<br />

background of waxy, sweet corn, pop corn type were<br />

procured from CIMMYT, Mexico. These 38 populations<br />

were selfed during kharif <strong>2011</strong> to derive new inbreds in<br />

the given genetic background.<br />

(2.0) (3.0) (4.5)<br />

Reaction of crosses to TLB<br />

2.1.4 Pearl millet<br />

2.1.4.1 Maintenance of CMS, restorers and<br />

inbreds<br />

Thirty-eight CMS lines and 142 inbred/restorer<br />

lines of pearl millet were indented from ICRISAT. Fortyone<br />

diverse cytoplasmic male sterile lines belonging<br />

to A 1 , A 4 and A 5 sources were maintained by


undertaking 910 paired crosses (A/B). 351 inbred/<br />

restorers were maintained by selfing and single panicle<br />

selections.<br />

2.1.4.2 Evaluation for Nutritional Quality traits<br />

in pearl millet lines<br />

Forty promising pearl millet parent lines were<br />

analysed for the nutritional quality traits like oil content,<br />

protein content, reducing sugars, amino acids, namely,<br />

lysine and tryptophan and low phytic acid content.<br />

Variability in nutritional quality traits<br />

Nutrient Nutrient Genotype with<br />

range maximum value*<br />

Protein content (%) 7.41 to 12.37 PPMI 721(7.41%)<br />

Tryptophan (mg/100g) 164.5 to 338.5 PPMI 872<br />

(338.50 mg/100 g)<br />

Lysine mg/100g 154 to 356 PPMI 654<br />

(356 mg/100 g)<br />

Oil content (%) 1.47 to 4.43 PPMI 69 (4.43%)<br />

Reducing sugar (%) 1.25 to 3.56 WGI 145 (3.56%)<br />

Phytic acid (g/100 g) 0.53 to 1.68 PPMI 775<br />

(0.53 g/100 g)<br />

* Lowest in case of phytic acid<br />

2.1.5 Chickpea<br />

2.1.5.1 Pre-breeding and germplasm<br />

enhancement<br />

Diversity analysis among the wild species carried<br />

out using 35 STMS markers generated on an average<br />

3.433 amplicons per primer pair. Polymorphic<br />

Information content (PIC) ranged from 0.246 to 0.775<br />

and genetic similarity between cultivars ranged from<br />

0.10 to 0.77. Based on the diversity indices, 3 parents<br />

were selected and two crosses were made with C.<br />

reticulatum (ILWC 118) as male parent crossed with<br />

Pusa 1053 and KAK 2 and advanced to F 2 .<br />

2.1.5.2 Evaluation of chickpea lines for Raffinose<br />

Family Oligosaccharides (RFO)<br />

HPLC analysis of RFO contents (as % dry weight<br />

of seeds) of eighteen chickpea genotypes identified only<br />

three RFO fractions, viz., raffinose, stachyose and<br />

ciceritol. The verbascose content was extremely low in<br />

the genotypes. The analysis revealed that sucrose<br />

29<br />

ranged from 0 mg/g (Pusa 1105) to 48.91 mg/g (Pusa<br />

1108); raffinose from 0 mg/g (Pusa 1105) to 14.75 mg/g<br />

(Pusa 362); ciceritol from 0 mg/g (Pusa 1105) to 61.11<br />

mg/g (Pusa 362); stachyose from 0 mg/g (Pusa 1105) to<br />

42.38 mg/g (Pusa 391) and total sugars from 0 mg/g<br />

(Pusa 1105) to 153.99 mg/g (Pusa 1108). In general it<br />

was observed that the desi types had more RFOs than<br />

the kabuli types.<br />

2.1.5.3 Development of first true breeding<br />

determinate chickpea genotype<br />

A true breeding determinate chickpea genotype,<br />

BGD 9971, developed at Regional Centre, Dharwad<br />

is bushy, compact and dwarf in its morphology. The<br />

stem growth is terminated by a flower bud or a fully<br />

opened flower and produces 1-4 seeds per pod. The<br />

Centre also developed BGD 2608, the first true<br />

breeding, extra large seeded desi chickpea with<br />

100-seed weight of 54-55 g.<br />

BGD 9971 showing 1-4 seeds per pod<br />

Seeds of BGD 2608


2.1.6 Mungbean<br />

2.1.6.1 Screening against MYMV<br />

Two hundred ninety-six mungbean lines were<br />

screened against MYMV using PS 16 as infector row.<br />

Five genotypes, M 523, M 700, M 1312, M 1354 and M<br />

1314 were identified as resistant lines.<br />

2.1.7 Brassicas<br />

2.1.7.1 Maintenance of germplasm<br />

A total of 721 germplasm lines including B. juncea<br />

(434), B. carinata (170), B. napus (38), B. rapa (39), B.<br />

oleracea (6), B. nigra (14), B. tournifortii (3), B. caudatus<br />

(3), R. caudatus (1), R. sativa (1), S. alba (2), Eruca sativa<br />

(6), Crambe spp. (2), Lepidium spp. (1), Camellina spp.<br />

(1) were maintained.<br />

2.1.7.2 Phenotypic characterization of Brassica<br />

juncea germplasm<br />

A set of 434 germplasm lines of Brassica juncea were<br />

characterized for eleven morphological traits for<br />

studying the diversity for development of heterotic<br />

pools.<br />

Germplasm maintenance of different Brassica spp.<br />

2.1.7.3 Protocol standardized for screening heat<br />

tolerance at seedling stage and donors identified<br />

The temperature, light and relative humidity<br />

regimes for identification of high temperature tolerant<br />

genotypes at seedling stage were standardized under<br />

Phytotron conditions. The cycle of light and<br />

temperature was: 20 o C with dark for 8 h, 32 o C with<br />

light for 5 h, 42+1 o C with light for 6 h followed by 32<br />

o C with light for 5 h. A set of 104 genotypes of B. juncea<br />

30<br />

including released varieties, advance breeding lines<br />

and identified donors for high temperature tolerance<br />

were screened using the above protocol under<br />

controlled conditions in the phytotron as well as under<br />

the field conditions at high temperatures. The results<br />

of both the experiments were corresponding but the<br />

Phytotron screening was more reliable for<br />

differentiating between heat tolerant and susceptible<br />

genotypes. Based on this, three genotypes, viz.,<br />

NPJ 124, EJ 22 and NPJ 113 were found to be highly<br />

tolerant to high temperature at seedling stage.<br />

2.1.8 Soybean<br />

2.1.8.1 Iron Deficiency Chlorosis (IDC) tolerance<br />

One hundred and four soybean genotypes were<br />

screened in hydroponics for identification of IDC<br />

tolerant genotypes. Genotypes PK 1169, UPSV 27 and<br />

EC 439608 were identified as IDC tolerant. A set of 14<br />

EST-based SSR markers were designed, out of which<br />

IRT1 gene based EST-SSR marker and GmFRD3a-based<br />

SSR markers produced amplifications indicating<br />

presence of homologous genes in the genotypes studied.<br />

2.1.8.2 Charcoal rot resistance<br />

Two mapping populations (F 2 ) for charcoal rot<br />

resistance have been advanced to F 4 stage through<br />

single seed descendent (SSD) method. Artificial<br />

screening in the control condition was performed to<br />

establish the genetics of charcoal rot resistance through<br />

first node inoculation has been performed to estimate<br />

the genetics of charcoal rot resistance.<br />

2.1.8.3 Creation of genetic diversity<br />

The F 3 seeds from the inter-specific hybrids of<br />

Glycine max and Glycine soja were grown in single rows<br />

Genetic variability created through inter-specific (G. max x G. soja)<br />

hybridization


and the families were found to vary in flower color,<br />

maturity duration, pod size, pod color and plant type.<br />

Two families with erect plant type were identified and<br />

advanced. Additionally, new crosses in 10 combinations<br />

for biotic and abiotic stress tolerance, shorter duration,<br />

yield and quality were attempted.<br />

2.1.9 Vegetable Crops<br />

2.1.9.1 Cole crops<br />

Cauliflower. Eighteen early group and 43 midgroup<br />

genotypes were evaluated and promising plants<br />

were advanced through selfing and sib pollination. Ten<br />

genotypes collected from China were also added to the<br />

existing gene pool. A total of 69 genotypes germinated,<br />

out of which 51 were found promising and were further<br />

advanced.<br />

Cabbage. At IARI Regional Station, Katrain, 100<br />

new germplasm of cabbage received from NBPGR,<br />

New Delhi were evaluated for different horticultural<br />

and yield traits. Accession EC-646345 exhibited<br />

maximum individual head weight of 2.44 kg followed<br />

by EC-616592 (2.25 kg) and EC-616610 (2.00 kg). All<br />

the 3 accessions had flat head shape.<br />

Broccoli. Thirty-three introductions were<br />

evaluated and promising selections were advanced for<br />

further evaluation. At IARI Regional Station, Katrain,<br />

out of 17 new germplasm of sprouting broccoli,<br />

received from NBPGR, accessions EC-676711, EC-<br />

676710 and EC-676712 were found promising.<br />

2.1.9.2 Solanaceous crops<br />

Tomato. Two hundred ninety-seven germplasm of<br />

two wild tomato species L. peruvianum (114) and L.<br />

pimpinellifolium(183) received from NBPGR, New Delhi<br />

were sown and 275 lines germinated in the field which<br />

are under evaluation. Five ToLCV resistant germplasm<br />

received from AVRDC, Taiwan through IIHR,<br />

Bangalore were planted in the field for their evaluation.<br />

Brinjal. A total of 102 germplasm including 17 new<br />

genotypes were evaluated and maintained.<br />

Chilli. Twenty germplasm of chilli were collected<br />

and maintained.<br />

Capsicum. Thirty-four germplasm of bell pepper<br />

and 17 of paprika were purified and maintained.<br />

31<br />

2.1.9.3 Root crop<br />

Carrot. Thirty-five elite genotypes, 23 CMS lines<br />

and 69 fertile inbreds were evaluated. Selected<br />

lines were planted for maintenance and seed<br />

multiplication.<br />

2.1.9.4 Leguminous crop<br />

Garden pea. One hundred ten germplasm<br />

including six new pea germplasm were evaluated and<br />

multiplied. Three new entries, GP 801 and GP 901 in<br />

early maturity IET and GP 473 in powdery mildew<br />

resistance IET, were included in AICRP trials for<br />

testing.<br />

2.1.9.5 Cucurbits<br />

Bitter gourd. Forty-seven breeding lines were<br />

evaluated and maintained.<br />

Cucumber. Two hundred and sixty-four germplasm<br />

/advanced breeding lines including 23 new collections<br />

were evaluated during spring-summer and<br />

kharif seasons and promising lines maintained.<br />

Sixty-one germplasm/breeding lines of<br />

gynoeciousparthenocarpic cucumber, gherkin,<br />

carotene rich cucumber, Cucumishytivusand other<br />

exotic lines with novel characters are being evaluated<br />

under polyhouse.<br />

Luffa. One Hundred and fifty germplasm/<br />

advanced breeding and virus resistant lines of sponge<br />

gourd and 147 germplasm of ridge gourd including<br />

Satputia types (hermaphrodite) were evaluated during<br />

spring-summer and kharif seasons and promising lines<br />

maintained.<br />

Pumpkin. Fifty-five germplasm/advanced<br />

breeding lines of pumpkin were evaluated and<br />

maintained.<br />

Muskmelon and Watermelon. One hundred seven<br />

lines of muskmelon and sixty-five lines of watermelon<br />

were evaluated in summer <strong>2011</strong> and superior<br />

genotypes with respect to fruit yield and quality<br />

maintained.<br />

Minor cucurbits. Forty-five, 32 and 22 germplasm/<br />

advanced breeding lines of summer squash, long melon<br />

and round melon, respectively, were evaluated and<br />

maintained.


2.1.9.6 Bulb crop<br />

Onion. Thirteen germplasm of onion were<br />

collected and different species of Alliums are being<br />

maintained.<br />

2.1.9.7 Okra<br />

Two hundred okra lines received from NBPGR,<br />

New Delhi were evaluated for yield and YVMV<br />

resistance during kharif <strong>2011</strong>. Four lines showed<br />

resistance to YVMV disease up to 60 day of sowing<br />

and one showed resistance up to 90 days.<br />

2.1.9.8 Minor leafy vegetables<br />

Palak. Six genotypes were evaluated for 7 yield<br />

contributing traits and 7 quality traits. Maximum yield<br />

and better leaf quality was recorded in Palak-GS both<br />

under cutting and pulling (one time harvest), i.e., 46.8<br />

t/ha and 29.9 t/ha, respectively. Maximum amount of<br />

total carotenoids and ascorbic acid was recorded in<br />

Pusa Bharati (29.12 and 22.5 mg/100 g fresh weight,<br />

respectively).<br />

Chenopodium. Seventeen genotypes of<br />

chenopodium were evaluated for 5 yield and 8 quality<br />

traits. Bathua Selection G-2, G-12, G-13 and G-14 were<br />

found high yielding with better leaf quality. Leaf yield<br />

per plant ranged from 25 to 275 g. Total carotenoids<br />

content was the highest in Bathua-NS (91.31 mg/100g).<br />

Bathua Selection G-12 also recorded highest phenolic<br />

as well as antioxidant content (936.4 �g gallic acid eq./<br />

g of sample and 2.57 � mol ascorbic acid/g sample,<br />

respectively)<br />

2.1.10 Fruit Crops<br />

2.1.10.1 Grapes<br />

Thirty-eight germplasm collected from NRC on<br />

Grapes, Pune and PAU, Ludhiana were planted in<br />

nursery for further field evaluation.<br />

2.1.10.2 Guava<br />

A Survey was conducted in Muzzafarnagar area<br />

of UP for collecting the diversity in guava. Forty-five<br />

plants of six local varieties/germplasm including black<br />

guava (red pulp) and white guava were collected and<br />

planted for evaluation.<br />

32<br />

2.1.10.3 Papaya<br />

At IARI Regional Station, Pune, a closely related<br />

genus of papaya, Vasconcellea cauliflora was maintained<br />

which showed plant height of 1.56 m and collar<br />

diameter 15.09 cm in the first year. It flowered in 60<br />

days after planting attaining a flowering height of 29<br />

cm. The average length of fruiting column was 94 cm<br />

and fruiting height was 24 cm. Fruit yield in one season<br />

was 4.3 kg and 90 fruits per plant, and average fruit<br />

weight was 48 g.<br />

2.1.10.4 Apple<br />

Grafted scion wood of elite mother plant collected<br />

from. YSPUHF,Nauni was indexed for four viruses<br />

(ACLSV, ApMv, ASGV, ASPV) by ELISA technique and<br />

after virus indexing of elite mother plants five varieties<br />

from Rohroo and eight from Kullu were found free<br />

from the four viruses.<br />

2.1.11 Ornamental Crops<br />

2.1.11.1 Rose<br />

In rose, 350 varieties and 15 species are being<br />

maintained. Forty-one new varieties were added this<br />

year.<br />

2.1.11.2 Chrysanthemum<br />

Above 100 cultivars are being maintained and 53<br />

known cultivars of chrysanthemum were characterized<br />

as per new revised guidelines for Distinctiveness<br />

Uniformity and Stability (DUS).<br />

2.1.11.3 Gladiolus<br />

Thirteen new germplasm were collected in<br />

addition to routine maintenance of 153 varieties.<br />

2.1.11.4 Marigold<br />

Thirty-five new genotypes of marigold were<br />

collected and added to the existing germplasm.<br />

2.1.11.5 Lilium<br />

At IARI Regional Station, Katrain, 5 cultivars each<br />

of Lilium Asiatic (LA) and Oriental hybrid lilies were<br />

collected and assessed under open field conditions for<br />

various traits. LA-hybrids ‘Pavia’ and ‘Diabolo’ and<br />

Oriental hybrids ‘Stargazer’, ‘Barnini’ and ‘Casendra’<br />

were superior in vegetative and floral characters, and<br />

suitable for cut flower production.


2.1.11.6 Tulip<br />

At IARI Regional Station, Katrain, 15 germplasm<br />

of tulip were maintained and four new were<br />

introduced.<br />

2.1.11.7 Bougainvillea<br />

Eight new varieties, namely, Jawahar Lal Nehru,<br />

Purple Prince, Mauve Queen, Sylvia Delap, Srinivasa,<br />

Smoky, Scarlet Queen Variegated and Ceylon hybrid<br />

were added to the collection. Maintenance of 120<br />

germplasm was also carried out.<br />

2.1.11.8 <strong>Annual</strong> flowers<br />

Sixty-one genotypes in different annual flowers<br />

were collected and maintained<br />

2.1.11.9 Lawn grasses<br />

Eleven species of lawn grasses, viz., Paspalum<br />

notatum, Lolium perene, Agrostis palustris, Poa pratensis,<br />

Argentine Bahia, Eragrostis curvula, Dichondra repens,<br />

Cynodon dactylon var. Bargusto, Cynodon dactylon var.<br />

Palma, Cynodon dactylon var. Panam and<br />

Cynodondactylon var. Panama were collected and added<br />

to the germplasm for evaluation.<br />

2.2 BIOSYSTEMATICS AND<br />

IDENTIFICATION SERVICES<br />

2.2.1 Herbarium Cryptogamae Indiae<br />

Orientalis (HCIO)<br />

Enrichment of repository of fungal biodiversity.<br />

Seven hundred ten specimens of fungal diseases of<br />

various groups were accessioned in HCIO, raising the<br />

total number of specimens to 49,871. Fungal<br />

biodiversity was documented by adding eight new<br />

species, viz., Asteridiella mellittiicola, Asterina<br />

homonoiae,Asterostomella enogeissil, Circosla listae,<br />

Maheshwaroncyces coclilii, Meliola dysoxyligena, M.<br />

mulabilides and M. premnigena.<br />

2.2.2 <strong>Indian</strong> Type Culture Collection (ITCC)<br />

Maintenance and new additions. Over 3800 fungal<br />

cultures belonging to Mastigomycotina,<br />

Zygomycotina, Ascomycotina and Deuteromycotina<br />

were maintained at ITCC. The culture collection was<br />

further enriched with 58 different fungal cultures<br />

33<br />

including Coprinus disseminatum, Corynespora cassicola,<br />

Pyricularia setariae and Sporothrix fungorum.<br />

Culture supply and identification services. Six<br />

hundred fifty-five authentic fungal cultures belonging<br />

to different groups viz., Zygomycetes (56),<br />

Hyphomycetes (210), Ascomycetes(45), Penicilli(52),<br />

Aspergilli (63), Coelomycetes (64) and Fusaria (165)<br />

were supplied to various users. Besides, 543 cultures<br />

were identified up to species level, including plant<br />

pathogens, bio-control agents and industrial use fungi<br />

Characterization of fungal species. Trichoderma(35)<br />

and Colletotrichum (41) isolates were characterized<br />

using ITS region. Comparative sequence analysis<br />

differentiated Trichoderma isolates into seven species,<br />

viz.,T.aggressivum, T. asperellum, T. atroviride,<br />

T. erinaceum, T. hamatum, T. harzianum and<br />

T. longibrachiatum. Similarly, Colletotrichum isolates were<br />

grouped into eight species, viz., C. capsici (12),<br />

C. fragaraie (1), C. gleoesporioides (23), C. lini (1), C. musae<br />

(1), C. sublineolum (1), C. truncatum (1) and C. species<br />

(1). 278 Fusarium isolates were identified as Fusarium<br />

acuminatum(7), F. anguioides(1), F. avenaceum(1),<br />

F. brachygibbosum(3), F. chlamydosporum(17),<br />

F. compactum(5), F. culmorum(3), F. decemcellulare(4),<br />

F. equiseti(15), F. fusaroides(3), F. graminearum(8),<br />

F. heterosporum(1), F. lateritium(5), F. erismoides(1),<br />

F. moniliforme (47), F. nygamai(2), F. oxysporum(105),<br />

F. pallidoroseum(44), F. subglutinans(6) based on cultural,<br />

phialide and spore characters.<br />

To identify a suitable DNA barcode marker for<br />

delineation of Fusarium species, Cytochrome Oxidase<br />

subunit I (COX I, 567bp); Internal Transcribed Spacer<br />

(ITS, 600bp); Translation elongation factor 1 (tef-I, 700<br />

bp) and NADH dehydrogenase subunit 6 (ND 6,<br />

900bp) from 22 Fusarium isolates representing<br />

eleven different species (Fusarium acuminatum,<br />

F. chlamydosporum, F. graminearum, F. oxysporum,<br />

F. pallidoroseum F. poae, F. solani, F. sporotrichioides,<br />

F. subglutinans, F. udum and F. verticillioides), were<br />

compared. Comparative sequence analyses suggested<br />

COX I to be a better marker for intraspecific and<br />

interspecific variability because of greater Transition/<br />

Transversion ratio (1.48) and evolutionary divergence<br />

(0.495).


Validation of Aspergillus flavus SCAR marker. The<br />

specific primers Asp F 1 (5’ CCC GTG AAG TTG CCC<br />

AGGT 3’) and Asp R2 (5’ GTC GTT TGG TGA GTG<br />

GGA A 3’) were designed and amplified product of<br />

490bp was obtained from all the Aspergillus flavus<br />

isolates tested. No amplification was observed with<br />

other Aspergillus species.<br />

2.2.3 Insect Biosystematics<br />

A new leafhopper species from Kerala,<br />

Goniagnathus (Tropicognathus) keralaensis sp. nov.was<br />

described with the following distinguishing features ,<br />

viz., aedeagal shaft convex at distal caudoventral<br />

margin and acute at apex with a pair of small ventral<br />

subapical processes, pair of long subapical processes<br />

on posterior dorsal margin, large gonopore located<br />

apically on the ventral side.<br />

A new deltocephaline species Scaphoideus<br />

subsculptus sp. nov.was described from Nelliampathy,<br />

Kerala with the following distinguishing features viz.,<br />

aedeagus with longitudinal keel in both sides laterally,<br />

shaft in lateral aspect broad distally, strongly bent<br />

dorsally without a recurved process on either side of<br />

base, narrow apically with forked shaft in caudal view,<br />

gonopore subapically on ventral side, a pair of curved<br />

processes on dorsal connective directed caudoventrally;<br />

paraphyses with broad base and arms widely separated<br />

with anterior 2/3 rd sculpted with short spicule, in dorsal<br />

view innner margin with small hair like microsetae.<br />

Biosystematic studies were undertaken on the<br />

parasitoid Diaeretiella rapae (M’Intosh), a common<br />

parasitoid (Hymenoptera: Braconidae: Aphidinae)<br />

associated with various species of aphids in all the<br />

major agroecosystems in India and described as one of<br />

the most important factors for natural control of<br />

mustard aphid, Lipaphis erysimi(Kaltenbach).Forty<br />

quantitative characters were studied in three hundred<br />

specimens of D. rapae for redescriptionand its concept<br />

was streamlined with suitable illustrations and addition<br />

of several new characters, viz., width of central<br />

propodeal areola, number of lateral carina on<br />

anterolateral area of petiole, length of median<br />

longitudinal carina, metacarp (R 1 ), radial (r) vein, etc.<br />

Eleven populations of D. rapae collected from various<br />

parts of India were also compared to quantify the<br />

34<br />

interpopulation morphological variations. Field studies<br />

were conducted during two consecutive rabi seasons,<br />

viz., 2009-10 and 2010-11 for assessing the seasonal<br />

occurrence and spatial distribution of D. rapae vis-a vis<br />

its aphid hosts on Brassica junceavariety Pusa Bold. D.<br />

rapaewas found to dominate over another closely<br />

related aphidiine parasitoid Aphidius colemani Viereck<br />

on L. erysimiduring both the crop seasons. High L.<br />

erysimidensitieswere recorded during the second<br />

fortnight of February for both years while<br />

mummification rate showed an increasing trend late<br />

in the season, i.e., first half of March and reached 53.2<br />

and 65.5 per cent during crop seasons of 2009-10 and<br />

2010-11, respectively.<br />

2.2.4 Nematode Biosystematics and<br />

Identification Services<br />

A new species of entomopathogenic nematode,<br />

Steinernema harryi n. sp. was recovered from a soil<br />

sample collected from Ambattur region of Chennai. A<br />

combination of morphological characteristics and<br />

morphometrical measurements of all stages<br />

distinguishes S. harryi n. sp. from rest of the members<br />

of Steinernema. On the basis of body length 486 (435-<br />

508 μm) of infective juveniles, this new species belongs<br />

to the “carpocapsae group” of small infectives. The<br />

infective juveniles are characterized by the much<br />

posterior position of excretory pore 38 (35-41 μm),<br />

relatively longer oesophagus 105 (97-110 μm), D % 36<br />

(35-39), E % 82 (73-89) and the lateral field with 6 or 7<br />

incisures. First generation males are differentiated from<br />

other species of the carpocapsae group by having the<br />

largest GS ratio 0.79 (0.71-0.85) and also differ in the<br />

number and general disposition of genital papillae.<br />

Females of this species are recognized by the presence<br />

of well developed, double flapped epiptygmata and<br />

protruding vulval lips.<br />

In research farms of IARI, the plant parasitic genera<br />

Tylechorhinchus spp were dominated as it encountered<br />

in 53 soil samples followed by Hoplolaimus(in 50<br />

samples) and Rotylenchulus (in 47 samples). In addition<br />

Pratylenchus spp in 38 samples, Trichodorus in 11<br />

samples, Quinisulcius in 8 samples, Heterodera in 7<br />

samples, Meloidogyne in 6 samples, Xiphinema in 6<br />

samples, Helicotylenchus in 6 samples, Longidorus in 4


samples, Hirshmaniella in 3 samples, Tylenchulus in one<br />

sample, Hemicriconemoides in one sample and<br />

Aphelenchoides in one sample were also recorded.<br />

The infestation of root lesion nematode<br />

Pratylenchus thornei was observed for the first time in<br />

the aerobic rice in IARI fields. The infected plants were<br />

yellow and stunted with brown lesions on the root<br />

system hampering the nutrient translocation.<br />

Plants with chlorotic leaves and stunted growth<br />

35<br />

National Nematode Collection of India (NNCI)<br />

was augmented with the addition of 68 type slides<br />

comprising of 85 specimens including males, females<br />

and infective juveniles of Steinernema meghalayensis sp.<br />

and accession number has increased from 2303 to 2371.<br />

In addition to this a total of 112 wet suspensions were<br />

deposited from various locations and cropping<br />

systems.<br />

Pratylenchus thornei juveniles<br />

in rice root system


4. CROP PROTECTION<br />

Insect-pests, plant pathogens, nematodes and weeds are the major biotic constraints in achieving self sufficiency<br />

in food production. During the year under report, major pests/pathogens have been characterized and reliable<br />

diagnostic procedures developed; efficacy of several newer molecules/formulations and alternative control<br />

measures have been tested. Progress has also been made in the management of diseases through identification<br />

and synthesis of novel molecules and RNAi approach.<br />

4.1 PLANT PATHOLOGY<br />

4.1.1 Genetic Diversity<br />

Puccinia spp. (wheat rusts). Seven races of wheat<br />

rusts (leaf rust: pt- 77-5, 104-2 and 12-2; stem rust : pgt<br />

40A and 40-1; and stripe rust : pst-78S84 and 46S119)<br />

were characterized using ITS region and compared<br />

with known sequences from different parts of the<br />

world. Comparative sequence analyses revealed that<br />

100<br />

88<br />

77<br />

97<br />

0.12 0.10 0.08 0.06 0.04 0.02 0.00<br />

Pst IRAN 11497 F Iran<br />

Pst 52/99 USA<br />

Pst PSH78 USA<br />

Pst HSZ0725 USA<br />

60<br />

Pst t5-1 China<br />

Pst DAOM 240069 Canada<br />

Pst R205 clone 01 Belgium<br />

Pst tb-2 China<br />

100<br />

Pst HSZ1872 USA<br />

Pst HSZ0728 USA<br />

Pst 46S119 India<br />

Pst 78S84 India<br />

Pgt NYPI 1 USA<br />

Pt HZZ0748 USA<br />

Pt HSZ0741 USA<br />

Pt EGY98A USA<br />

Puccinia persistens subsp. triticina…<br />

Pt HSZ0744 USA<br />

Pt HSZ0745 USA<br />

52 Pt HSZ0746 USA<br />

Pt RN-22 USA<br />

Pt R206 clone 03 Belgium<br />

Pt 98 EGY151C USA<br />

Pt ANK9538 USA<br />

Pt EGY98A USA(2)<br />

Pt 77-5 India<br />

Pgt 40-1 India c<br />

Pgt 40A India<br />

Pt 104-2 India<br />

d<br />

Pt 12-2 India<br />

Phylogenetic tree based on ITS region sequences from thirty wheat<br />

rust races<br />

a<br />

b<br />

75<br />

both the <strong>Indian</strong> races of stripe rust (pst- 46S119, 78S84)<br />

clustered with pst races from USA, Belgium and Iran.<br />

In contrast, with the exception of race pt 77-5, other<br />

leaf rust races, pt 104-2 and 12-2 and stem rust races,<br />

pgt 40A and 40-1, from India formed a separate cluster.<br />

Bipolaris sorokiniana (spot blotch of wheat). B.<br />

sorokiniana isolates (40) collected from different<br />

locations with varying pathogenicity were checked for<br />

melanin production. BS-75 isolate identified as the most<br />

virulent, possessed maximum melanin content<br />

3.2x10 3 μg/g mycelium, while least virulent BS-41 isolate<br />

possessed minimum melanin content 42�g/g<br />

mycelium, showing positive correlation (r=0.7) with<br />

pathogenicity. BRN 1gene involved in melanin<br />

biosynthetic pathway was sequenced from BS-75<br />

isolate (600bp, Accession no. JF735998), which<br />

shared 98-99% nucleotide sequence identity with<br />

corresponding known sequences from other Bipolaris<br />

spp. isolates.<br />

Fusarium spp. (Bakanae disease of rice). Fusarium<br />

isolates (55) associated with bakanae disease of rice<br />

differing in pathogenicity were characterized for<br />

gibberellin (GA 3 ) production using HPLC. F. fujikuroi<br />

causing elongation was identified as maximum<br />

gibberellin producer (> 1000-3500 �g g -1 ), followed by<br />

F. proliferatum causing rotting and elongation (501-1000<br />

�g g -1 ), and F. moniliforme causing rotting alone<br />

(0-500 �g g -1 ), showing a positive correlation (r=0.7)<br />

with pathogenicity.<br />

Rhizoctonia solani. Genetic diversity up to 35%<br />

was observed in Rhizoctonia solani isolates (89)<br />

belonging to seven anastomosis groups (AGs) from


different pulse crops and locations when compared<br />

using URPs, RAPD and ISSR markers. Though, 95%<br />

isolates shared common grouping patterns, their<br />

grouping did not correlate with their place and host of<br />

origin.<br />

Fusarium oxysporum f. sp. ciceris (chickpea wilt).<br />

Genetic diversity in FOC isolates (70) originating from<br />

13 locations was assessed by comparing translation<br />

elongation factor-1� (TEF-IX, 720bp), � tubulin (500bp)<br />

and internal transcribed spacer (ITS) region (550bp).<br />

Sequence analysis suggested that the three nuclear<br />

regions TEF-1X (accession nos. JN231134 to JN231186),<br />

� tubulin (JN231187 to JN231236), and ITS (JN400675<br />

to JN400720) were highly conserved (95-100% identity).<br />

Though, 90% isolates shared similar grouping pattern,<br />

their grouping did not correlate with their place of<br />

origin and race pattern.<br />

Sclerotinia sclerotiorum (chickpea stem rot).<br />

Genetic diversity in S. sclerotiorum isolates (24)<br />

originating from 10 different locations was determined<br />

by comparing ITS region (515-553 bp), and the isolates<br />

shared 75-97% identity.<br />

Xanthomonas axonopodis pv. punicae (Xap)<br />

(Pomegranate blight). Several growth parameters were<br />

determined for bacterial isolates from blight affected<br />

pomegranate samples (8) collected from Andhra<br />

Pradesh. The type strain of Xap (NCPPB 466) deposited<br />

by IARI in 1959 also shared similar growth characters.<br />

Biolog assay also suggested that the type strain shared<br />

several phenotypes with Xanthomonas arboricola pv.<br />

juglandis, the causal agent of walnut bacterial blight.<br />

Multilocus sequence typing (MLST) of Xap isolates<br />

(6) including NCPPB 466 based on dnaK, fyuA, gyrBI,<br />

rpoD, fusA gap-1, gltA, GyrB2, lacF, and lepA revealed<br />

that eight of the nine alleles analysed were novel to<br />

Xap. Xap population originating from different<br />

locations could be a single virulence lineage without<br />

any genetic variability. Comparison of concatenated<br />

sequence of 5713bp revealed maximum similarity of<br />

Xap with X. citri pv. citri and X. citri pv. malvacearum.<br />

16S rDNA analysis confirmed these observations.<br />

Ralstonia solanacearum. MLST of Ralstonia<br />

solanacearum isolates (21) originating from tomato<br />

(Solanum lycopersicum), chilli (Capsicum annuum),<br />

76<br />

eggplant (Solanum melongena), potato (Solanum<br />

tuberosum), weed (Chromolaena odorata) ginger (Zingiber<br />

officinale), and cardamom (Elettaria cardamomum) based<br />

on adk, gyrB, gdhA, gapA, ppsA, fliC, hrpB, and egl<br />

revealed the prevalence of single virulence lineage of<br />

race 4 /biovar 3, causing wilt in Zingiberaceae hosts.<br />

The allelic profile of the genes confirmed this<br />

observation.<br />

4.1.2 Race Profiling<br />

Virulence typing of Puccinia species (Wheat).<br />

Pathotype 78S84 of P. striiformis tritici was recorded for<br />

the first time at IARI Regional Station, Wellington.<br />

Brown rust race 77-5 (121R63-1) was found to be the<br />

most dominant, followed by 77-8 (253R31) and 77-7<br />

(121R127) in the Nilgiri hills. Two pathotypes of black<br />

rust 40A (62G29) and 40-1(62G29-1) prevailed in equal<br />

proportions. Ug99 was not traced at the above locations<br />

so far.<br />

Fusarium oxysporum fsp. ciceris (FoC). Eight<br />

distinct races of Fusarium oxysporum fsp. ciceris were<br />

identified in 70 FOC isolates originating from 13<br />

locations.<br />

4.1.3 Molecular Diagnosis<br />

Fusarium spp. The association of F. fujikuroi, F.<br />

moniliforme and F. proliferatum with bakanae disease of<br />

rice was established by comparing translation<br />

elongation factor (TEF 700bp) sequences.<br />

Rhizoctonia solani. Specific primers (AG2-<br />

2F:CAACGGATCTCTTGGCTCTC;AG2-<br />

2R:GGTGTCCTCGGCGATAGATA) designed for R.<br />

solani detected the fungus at 24 h and 6 h postinoculation<br />

under field and in vitro conditions,<br />

respectively. The primers failed to amplify the other<br />

seed- and soil-borne plant pathogens of chickpea. The<br />

detection limit was 0.025 ng fungal DNA and Southern<br />

blot analysis showed specificity.<br />

Alternaria brassicicola. A PCR based assay was<br />

developed for the identification of A. brassicicola from<br />

pure culture and infected seeds using primers derived<br />

from conserved ITS regions. The sensitivity limit for<br />

detection (100pg) was verified through quantitative<br />

Real Time PCR.


4.1.4 Biological Control<br />

Performance of Pusa 5SD (Trichoderma<br />

harzianum) formulation. The efficacy of Pusa 5SD<br />

(Trichoderma harzianum) formulation alone or in<br />

combination with Pseudomonas fluorescens (Pf-80),<br />

Mesorhizobium ciceri and fungicide vitavax power as<br />

seed treatment was determined under glass house<br />

conditions. Seed treatment with a combination of Pusa<br />

5SD (T. harzianum) + P. fluorescens + M. ciceri + vitavax<br />

power provided the highest seed germination (100%)<br />

and the lowest wilt incidence (18%).<br />

Validation of Trichoderma based bioformulation.<br />

Pusa 5SD (T. harzianum) formulation (@4g/kg seeds) in<br />

combination with vitavax power (1g/kg) as seed<br />

treatment showed significant efficacy for the<br />

management of chickpea wilt (F. oxysporum f. sp. ciceris)<br />

at three different locations (Sehore, Delhi and Rahuri),<br />

and dry root rot (R. bataticola) and collar rot (S. rolfsii)<br />

at Jabalpur.<br />

Expression of a novel heat shock and salt tolerant<br />

protein (Hsp22) from Chaetomium globosum. A small<br />

heat shock & salt tolerant protein gene (603 bp;<br />

Accession no. JQ 520149) was cloned and sequenced<br />

from C. globosum (6). Comparative sequence analysis<br />

showed varying degree of identity with corresponding<br />

gene from Neurospora spp. (60%), Myceliophthora sp. (59<br />

%), Glomerella sp. (50%), Hypocrea sp. (52%), and<br />

Fusarium spp. (51%). A 30 kDa bacterium expressed<br />

recombinant protein displayed significantly greater<br />

resistance to NaCl and Na 2 CO 3 stresses. Besides,<br />

another gene responsible for the production of xylanase<br />

(1000 bp) was sequenced from C. globosum and other<br />

species (C.cochlioides and C.cupreum).<br />

Expression of Endochitinase (ech42) gene from<br />

Trichoderma spp. ech42 gene (1100bp), involved in<br />

mycoparasitism, was conserved in T. harzianum, T. viride<br />

and T. atroviride.<br />

4.1.5 Evaluation of Genotypes for Resistance<br />

Wheat. Presence of leaf rust resistance genes Lr 1,<br />

Lr 10, Lr 24, Lr 26 and Lr 34 in wheat genotypes (25)<br />

was confirmed using molecular markers. Lr1 gene<br />

(560bp) was available in all wheat genotypes tested<br />

except HD 2888 and MACS 6145. Genotypes, viz, HD<br />

77<br />

2985, VL 804, Raj 3765, HI 977, PBW 343, HS 240 and<br />

NI 5439 showed the presence of 282 bp fragment<br />

specific to Lr10 gene. The presence of Lr24 gene was<br />

confirmed by specific amplification of a single fragment<br />

of 719 bp in six genotypes ,viz., HD 2888, C 306, HI<br />

1531, HS 240, NI 5439, and HW 2004. A 267 bp fragment<br />

specific to Lr 26 gene was amplified in genotypes, viz.,<br />

HD 2687, HD 2733, HD 2824, VL 804, UP 2425, and<br />

DBW 17, PBW 343, PBW 550 and HS 240. Six genotypes,<br />

viz., HD 2985, VL616, UP 2425, Raj 3765, DBW 16 and<br />

PBW 550 showed the presence of 150 bp fragment<br />

specific to Lr 34 gene.<br />

Of 98 wheat entries screened against Karnal bunt<br />

(KB), 44 showed disease severity ranging from 1 - 42%<br />

and 54 remained free from KB infection. Fifteen of 84<br />

entries in AVT 2 nd year and 35 of 105 entries in AVT 1 st<br />

year showed least infection (up to 5S) of yellow rust at<br />

adult plant stage. IARI entries, viz, HS507, HD2967,<br />

HD2888, HI8498 (d) and HI1571 were free from<br />

infection of two yellow rust pathotypes (78S84 and<br />

46S119). Out of 110 durum wheat genotypes, 57 showed<br />

field resistance to both stem and leaf rusts when tested<br />

with five durum-specific stem rust pathotypes. Genetic<br />

diversity for field resistance to stem rust pathotype 40A<br />

and leaf rust pathotype 77-5 in GW 322, GW 326,<br />

HI 1418, HI 1479 and HI 1539 showed presence of one<br />

to two dominant genes. Diversity for resistance to both<br />

stem and leaf rusts was observed in HI 1418 / HI 1479,<br />

HI 1418 / HI 1539, HI 1479 / HI 1539, HI 1539 / GW 322,<br />

and HI 1539 / GW 326.<br />

Rice. Of 20 rice blast isolates evaluated on a set of<br />

monogenic rice differentials (24), Delhi isolate was most<br />

virulent, compatible with most of the R-genes (18).<br />

Pathotyping of near isogenic lines developed in Pusa<br />

Basmati 1 background has led to the identification of<br />

lines carrying major blast resistance genes, viz., PiZ 5 ,<br />

Pi9 and Pi54. Out of 373 entries from Directorate of<br />

Rice <strong>Research</strong>, Hyderabad evaluated against sheath<br />

blight, 39 showed resistance. Evaluation of 12 aromatic<br />

rice varieties against bakanae disease, Pusa Basmati 1<br />

showed resistance to foot rot symptoms, and Pusa<br />

Basmati 1, Pusa 146, Pusa Sugandha 5 and Pusa 1401<br />

showed resistance to elongation symptoms. Out of 494<br />

entries evaluated against bacterial leaf blight, 83<br />

showed resistance.


Maize. Out of 281 elite maize genotypes evaluated<br />

against maydis leaf blight (MLB, Bipolaris maydis) and<br />

banded leaf and sheath blight (BLSB, Rhizoctonia solani),<br />

15 entries showed resistance against both the diseases.<br />

Out of 286 entries from DMR & 109 entries from IARI,<br />

6 entries each from DMR and IARI were found resistant<br />

against MLB & BLSB both. Out of 50 inbreds and 40<br />

hybrids from ICAR-CIMMYT collaborative<br />

programme, 8 entries were identified as resistant and<br />

sib-mated for the development of hybrids.<br />

Legumes. In chickpea, six genotypes BG 3010, BG<br />

3020, BG 3012, GLK 26167, GLK 28127 and ICCV 93706<br />

were resistant against wilt. Three genotypes DKG 986,<br />

GLK 26167 and GLK 24092 were resistant against<br />

Ascochyta blight and one Kabuli entry GLK 26167<br />

showed resistance against both wilt and blight. Four<br />

urdbean entries (P 719, P 723, P 728 and P 729) and one<br />

mungbean entry (P 532) showed multiple disease<br />

resistance against Cercospora leaf spot, web blight,<br />

Macrophomina blight and YMV. Besides, of 80 genotypes<br />

of Vigna spp. procurred from NBPGR, 37 showed<br />

resistance against YMV through Agroinoculaton.<br />

Papaya for PRSV resistance. In June and October<br />

plantings, Pusa Selection 3 (PS 3) showed resistance to<br />

PRSV with minimum incidence, 28.7% and 22.9%,<br />

respectively, as compared to Red lady (100%), while in<br />

April planting, incidence was minimum (3.2%) in PS<br />

4. Multilocation impact assessment of Pune Selections<br />

revealed that PRSV incidence was minimum on PS 3<br />

at Gulbarga (Karnataka) and Aurangabad<br />

(Maharashtra).<br />

4.1.6 Epidemiology and Disease Management<br />

Regional thematic maps were developed for<br />

predictive management of yellow rust of wheat and<br />

then matched with ground truthing. Weather indices<br />

based on the infection criteria [Tmin =2°C, Topt= 9°C,<br />

Tmax=18°C and daily RH (90% and above) for several<br />

consecutive days, at least 15 hours daily] were<br />

continuously yellow rust favourable from December<br />

15, <strong>2011</strong> to January 11, 2012 and then decreased in parts<br />

of Punjab - Gurdaspur, Hoshiarpur, Nawansahar and<br />

Ropar. Ground truth survey at Gurdaspur, Hoshiarpur<br />

and Ropar also showed yellow rust infection in<br />

susceptible wheat varieties, namely, DBW 17, WH 711<br />

78<br />

and PBW 343 (3.8-5.7 disease severity). Weather based<br />

monitoring and ground truth matching of yellow rust<br />

infection in wheat for North West India proved useful<br />

for development of surveillance system to provide<br />

timely forewarning to the growers.<br />

Presence of CTV and Citrus Greening in citrus and<br />

4 banana viruses, viz., BSV, BBTV, CMV and BBrMV in<br />

banana was detected in samples collected from<br />

different regions of Maharashtra, Bihar and Karnataka.<br />

A phytoplasma infected papaya was confirmed<br />

through PCR and partial genome sequence submitted<br />

to GenBank (JQ 346525), which is the first report of a<br />

phytoplasma causing axillary shoot proliferation from<br />

India. Survey of cucurbits in and around Pune revealed<br />

occurrence of PRSV-W in bottle gourd and muskmelon,<br />

CMV in cucumber, muskmelon and bottle gourd,<br />

GBNV in muskmelon and phytoplasma in bottle gourd.<br />

In tomato, occurrence of ToMV, CMV, GBNV and<br />

ToLCV was observed. In capsicum, occurrence of<br />

PoMMV, PoMV, PVY and CMV was observed. The<br />

viruses were identified by DAC-ELISA, PCR/RT-PCR,<br />

nested PCR, and electron microscopy.<br />

Management of viral diseases. GBNV and PRSV-<br />

W were effectively managed in muskmelon and bottle<br />

gourd using silver color polythene mulching, neem oil<br />

(1.0%) and dimethioate (0.1%). Incidence of CMV,<br />

GBNV, ToLCV in tomato could be lowered by 13.33%,<br />

9.33% and 8.0% by spray of Neembicidine and<br />

Imidacloprid (0.01%), respectively.<br />

4.1.7 Viral and Phytoplasmal Diagnosis<br />

Chirke disease of large cardamom. The 3’ terminal<br />

genome sequence containing partial NIb, complete<br />

capsid protein gene and 3’ untranslated region of the<br />

virus associated with the disease revealed identity of a<br />

new virus species named, Large cardamom chirke virus<br />

(LCCV) under the genus Macluravirus, family<br />

Potyviridae. The virus was closely related to Cardamom<br />

mosaic virus causing katte disease of small cardamom<br />

and other close relatives were Alpinia mosaic virus and<br />

Chinese yam necrotic mosaic virus. Chirke disease was<br />

known to affect large cardamom for over 50 years and<br />

the genome sequence unfolded for the first time the<br />

etiology of the disease.


Symptoms of chirke of large cardamom (a), and association of<br />

filamentous virus particles (b). The bar indicates 100nm<br />

Production of polyclonal antibodies using<br />

recombinant protein. Polyclonal antibodies developed<br />

against bacterial expressed recombinant coat protein<br />

of Apple chlorotic leaf spot virus (ACLSV;60 kd); Onion<br />

yellow dwarf virus (OYDV; 75kd). Garlic virus X (Gar V-<br />

X ;27 kd) and Peanut mottle virus (PeMoV) effectively<br />

detected ACLSV in apple; OYDV on onion; GarV-X on<br />

onion and garlic; and PeMoV on peanut.<br />

Expressed recombinant core coat protein (22 kDa) of PeMoV in E.<br />

coli (left) and Western bolt analysis (right). Lane 1: Soluble fraction<br />

after 5 h of induction; Lane 2: Insoluble fraction of culture after 5<br />

h of induction. Lane M: Pre-stained protein marker<br />

Wheat streak mosaic virus (WSMV). Of 31<br />

symptomatic wheat samples showing mosaic, mottling,<br />

and streaks on leaves, and stunting and drying of<br />

infected clumps collected from Indore, Pune and<br />

Junagarh, 17 samples reacted with polyclonal<br />

antibodies (PAb) to WSMV in DAC – ELISA.<br />

Phytoplasma. The nested PCR based on the<br />

amplification of gyrA, gyr B and dnaB genes was<br />

developed for the detection of phytoplasma in<br />

79<br />

sugarcane grassy shoot, Catharanthus little leaf, toria<br />

phyllody, brinjal little leaf and sesame phyllody<br />

phytoplasmas. The amplicons of 1.4kb, 1.5kb and 0.96<br />

kb representing partial gyrA, gyr B and dnaB genes,<br />

were confirmed by sequencing.<br />

4.1.8 Viral Genomics<br />

Citrus tristeza virus (CTV). Comparative sequence<br />

analysis based on coat protein (CP) gene from CTV<br />

isolates originating from different locations (19 isolates<br />

from central; 51 from north east; 24 from south and 17<br />

from north India) revealed that the <strong>Indian</strong> isolates are<br />

extensively diverse showing 89- 99% identity with six<br />

phylogroups. Potential recombination events<br />

responsible for extensive diversity of CTV in India and<br />

evolution of several variants were identified.<br />

Plumeria mosaic virus (Plu MV). The complete<br />

genome of a Tobamovirus isolated from a temple tree<br />

(Plumeria rubra fsp. acutifolia) showing mosaic disease<br />

in New Delhi was 6675 nt (JN555602) and shared 82.9%<br />

identity with Frangipani mosaic virus (FrMV) and


Grapevine leafroll-associated virus 3. Survey of<br />

vineyards of Nashik and Pune regions revealed the<br />

association of an Ampelovirus, antigenically related to<br />

Grapevine leafroll-associated virus 3 (GLRaV-3) with seven<br />

cultivars of grapevine. The CP gene of the GLRaV-3<br />

(<strong>Indian</strong> isolate) was 942 nt long and could potentially<br />

encode a protein of 313 aa (accession number<br />

JN616386). The partially amplified HSP70h gene of the<br />

GLRaV-3 isolate under study was 546 bp long and could<br />

encode 181 amino acids (accession number JN859074).<br />

4.1.9 Viral Pathogenesis<br />

Role of non-structural protein (NSs). NSs as a<br />

suppressor of RNA silencing from Groundnut bud<br />

necrosis virus (GBNV) was demonstrated using the<br />

Characterisation of the RNA silencing suppression activity of<br />

GBNV NSs protein and of two NSs mutants (NSs-L172R; NSs-<br />

S189R): (A) patch assay of GBNV-NSs and its mutants for RNA<br />

silencing activity. In the left side of each Nicothiana benthamiana<br />

leaf a binary vector expressing green fluorescent protein (GFP)<br />

under the control of the 35S promoter was agroinfiltrated, together<br />

with an empty binary vector. In the right side of the leaf, the same<br />

binary vector expressing GFP was agroinfiltrated together with a<br />

binary vector expressing NSs protein, intact or mutant. The<br />

suppressor of silencing activity of the Tomato bushy stunt P19<br />

protein is shown for comparison. (B) Quantification by western<br />

blotting of the steady-state level of accumulation of GFP in the<br />

infiltrated patch using a GFP rabbit polyclonal antiserum. Lower<br />

panel shows a ponceau S stained membrane. (C) Location of<br />

mutation 1 and of mutation 2 in the NSs gene.<br />

80<br />

Agroinfiltration patch assay. As leaf senescence is<br />

controlled by miR319 regulation of the transcription<br />

factor TCP1, accumulation of both RNAs in transgenic<br />

NSs-expressing and GBNV-infected tomato plants was<br />

assessed. Decreased levels of miR319 and increased<br />

levels of TCP1 transcripts in both GBNV infected<br />

tomato plants and transgenic tomato expressing NSs<br />

suggested that GBNV-NSs affects miRNA biogenesis<br />

through its RNA silencing suppressor activity and<br />

interferes with TCP1-regulated leaf developmental<br />

pathways.<br />

4.1.10 Transgenic Resistance<br />

Rhizoctonia solani. To develop RNAi based<br />

management strategy for sheath blight of rice,<br />

endopolygalactouranase gene (1058bp) was cloned in<br />

pGEMT easy vector.<br />

Transformation of citrus. An efficient and<br />

reproducible plant regeneration (organogenesis)<br />

protocol for acid lime cv kagzi lime (Citrus aurantifolia)<br />

was standardized using epicotyls explants (0.8-1 cm)<br />

and Agrobacterium-mediated transformation using CP<br />

gene construct (K9) was attempted.<br />

4.2 ENTOMOLOGY<br />

4.2.1 Insect Pest Management<br />

4.2.1.1 Cereals<br />

Out of thirty five rice germplasm lines evaluated<br />

against brown plant hopper (BPH), two lines, Mudgo<br />

(ACC 6663) and Pokkali were observed resistant (0-3<br />

damage score), while Rathu Heenati, T12 and IR77542-<br />

551-1-1-1-1-2 were found to be moderately resistant (3-<br />

5 damage score).<br />

Triazophos 40 EC @ 300 and 500 g a.i./ha, and<br />

sulfoxaflor 21.8 SC @ 68 and 82 g a.i./ha were evaluated<br />

against rice insect pests on Pusa Basmati 1401. Owing<br />

to lower population of BPH and of other pests,<br />

treatment with sulfoxaflor 21.8 SC @ 82 g a.i./ha gave<br />

the highest yield followed by triazophos 40 EC @ 500 g<br />

a.i./ha.<br />

Development threshold and thermal constant of<br />

pink borer, Sesamia inferens were determined by<br />

regressing development rate on temperature. The<br />

thermal constants for eggs, small larvae (1st-3rd instar),


large larvae (4th-5th instar) and pupae were 47.6, 500.0,<br />

200.0 and 166.7 degree days (DD), respectively with<br />

corresponding development threshold being 13.8 o C,<br />

10.0 o C, 11.2 o C and 12.7 o C. Using thermal requirements,<br />

and various biotic and abiotic mortality factors,<br />

population simulation model of S. inferens was<br />

developed and validated using field data. The<br />

simulated S. inferens egg, larval, pupal and adult<br />

populations were found to be close to the observed ones<br />

(RMSE=1.68%).<br />

Insect Meloe violaceus<br />

feeding on wheat leaf<br />

Nature of damage on leaves<br />

Infestation of a new insect identified as Meloe<br />

violaceus was observed in the experimental area of IARI<br />

Regional Station at Pusa (Bihar) in December, <strong>2011</strong> in<br />

four bread wheat varieties. This is the first report of<br />

Meloe violaceus, the violet oil beetle on wheat from India.<br />

4.2.1.2 Vegetables<br />

Emamectin benzoate (10g a.i./ha) combined with<br />

Neem Baan (@7ml/L water)proved effective against<br />

fruit borer, Leucinodes orbonalis on brinjal, as the lowest<br />

per cent fruit infestation, i.e., 5.39 on number basis and<br />

5.77 on weight basis was observed.<br />

Various border crops were evaluated against<br />

incidence of major insects of cabbage. Minimum<br />

population of aphids was recorded with coriander<br />

(46.05) as border crop. Maximum population of<br />

coccinellids/plant was noticed on cabbage (2.80) when<br />

bordered with fenugreek.<br />

A field trial laid out with ten treatments with<br />

cabbage var. Golden Acre comprising of four spray<br />

schedules indicated that the treatment with<br />

acetamiprid- acetamiprid- fipronil- spinosad, gave<br />

significantly high population reduction over control<br />

(PROC) of Lipaphis erysimi, viz., 82.92% and 76.04% on<br />

3 rd and 7 th day, respectively. Chlorantraniliprole (18.5%<br />

81<br />

SC @10 g a.i./ha) showed the highest PROC of diamond<br />

back moth (DBM) Plutella xylostella (82.08%) in<br />

treatment having acetamiprid -acetamipridchlorantraniliprole-<br />

emamectin benzoate with<br />

maximum marketable yield (32.17 t/ha). Neem Baan,<br />

spinosad, emamectin benzoate and chlorantraniliprole<br />

proved safe to natural enemies in cabbage.<br />

Different cole crops at IARI Regional Station,<br />

Katrain when evaluated against DBM under net house<br />

conditions showed minimum infestation in turnip<br />

followed by radish, cabbage. Out of ten cauliflower<br />

cultivars evaluated against DBM, minimum infestation<br />

was recorded in Pusa Himjyoti.<br />

Synthetic organic insecticides evaluated against the<br />

aphid, Myzus persicae infesting capsicum crop showed<br />

that spray of imidacloprid 200 SL @ 0.25 ml/L (72.71 t /<br />

ha) produced maximum capsicum fruit yield. Among<br />

the different pest and disease management modules<br />

tested, module comprising of the use of yellow<br />

coloured seeds, nursery root dipping with Bavistin<br />

(0.5%), Trichoderma viride enriched compost application<br />

after 15 days of transplanting and need based<br />

fungicide/insecticide application was considered<br />

promising in raising the seed crop of capsicum.<br />

Management of sucking pests in Capsicum under protected<br />

cultivation<br />

Treatment Percent aphid Vegetable<br />

infestation yield (t/ ha)<br />

Plants Twigs<br />

Acephate-75<br />

SP (0.5 g/L)<br />

37.10 (37.42) 27.77 (30.75) 66.68<br />

Imidacloprid200<br />

SL (0.25 ml/L)<br />

37.10 (34.11) 6.67 (11.67) 72.71<br />

Control 88.23 (74.52) 47.30 (42.97) 38.57<br />

CD(P=0.05) 24.60 30.61 34.94<br />

Figures in the parenthesis are arc sin transformed values<br />

4.2.1.3 Soybean<br />

Out of sixty two soybean lines including IVT (41)<br />

and AVT II (21) evaluated against stem fly and yellow<br />

mosaic virus (YMV) disease transmitted by white fly,<br />

two varieties DS –1213 and DS 2614 showed resistance<br />

continuously for the last three years and were identified<br />

as promising sources of resistance.


Triazophos 40 EC @ 800ml/ha and profenophos 50<br />

EC @ 1250ml/ha were effective against stemfly of<br />

soybean. The YMV scores were also lower with<br />

significantly higher yield.<br />

4.2.2 Storage Entomology<br />

Freshly harvested seeds of eight green gram<br />

cultivars screened against the behaviour pattern of<br />

three bruchids, viz., Callosobruchus maculatus, C.<br />

chinensis and C. analis revealed that C. maculatus caused<br />

minimum loss and recorded minimum population in<br />

Pusa Baisakhi after 75 days of storage, while the<br />

maximum loss was observed in cultivar PS 16; C.<br />

chinensis caused minimum loss in Pusa Vishal but<br />

maximum loss along with highest population in Pusa<br />

9072. C. analis caused maximum loss to Pusa Baisakhi,<br />

while maximum number of insects were observed on<br />

Pusa 9531.<br />

4.2.3 Biological Control<br />

A laboratory rearing technique was developed for<br />

cotton mealybug parasitoid, Aenasius bambawalei. The<br />

parasitoid could be reared successfully for more than<br />

12 generations on mealy bug, Phenacoccus solenopsis<br />

multiplied on potato tubers, and adult fed on honey<br />

(20%) at 25±2 0 C and 65±5% RH. Besides, newly<br />

introduced papaya mealybug, Paracoccus marginatus<br />

multiplied on potato sprouts in the laboratory was<br />

found to be a suitable host for rearing of cocophagous<br />

predators viz., Cryptolaemus montrouzieri, Nephus<br />

regularis, Scymnus coccivora and Hyperaspis maindroni,<br />

indicating their potential for field releases.<br />

Nucleopolyhedrosis virus of Spodoptera litura<br />

collected from Nava Sahar (Punjab), Kaithal (Haryana),<br />

Bharatpur (Rajasthan) and Aligarh (Uttar Pradesh)<br />

purified and bioassayed against 4, 5 and 7 days old<br />

larvae of S. litura indicated that the strains differed<br />

significantly in their ability to cause mortality. The LC 50<br />

values for 4 day old larvae of S. litura were 231.316 x<br />

10 6 , 294.946 x 10 6 , 355.390 x 10 6 and 421.726 x 10 6 PIBs,<br />

respectively, while for 5 day old larvae were 259.656 x<br />

10 6 , 307.722 x 10 6 , 368.168 x 10 6 and 453.325 x 10 6 PIBs,<br />

respectively. The NPV strain from Nava Sahar (Punjab)<br />

was the most effective.<br />

Safety evaluation studies conducted for different<br />

group of insecticides, viz., neonicotinoids, synthetic<br />

82<br />

pyrethroids, carbamates, newer insecticides and a<br />

botanical in field recommended doses by dry film<br />

residue method, against various developmental stages<br />

of different predators, viz., Chrysoperla sp., Coccinella<br />

septumpunctata and Cheilomenes sexmaculata showed<br />

that the per cent mortality of grubs of Chrysoperla sp.<br />

varied from 0.00 to 80.00. However, the highest per cent<br />

mortality was observed due to carbosulfan 24 hours<br />

after treatment. The lowest adult emergence was<br />

recorded from pupa exposed to synthetic pyrethroids,<br />

viz., cypermethrin and bifenthrin.<br />

The grubs and adults of C. septumpunctata recorded<br />

the highest percent mortality (100 %) in grubs due to<br />

cypermethrin, bifenthrin and carbosulfan, whereas no<br />

mortality was observed from control group. The percent<br />

pupal mortality was highest in thiamethoxam. Highest<br />

per cent adult formation from treated grubs was<br />

recorded from control followed by pymetrozine. The<br />

adult mortality was high against carbosulfan, bifenthrin<br />

and cypermethrin, whereas control group showed no<br />

mortality. The mortality in grubs of C. sexmaculata after<br />

24 hours was highest in imidacloprid, cypermethrin and<br />

carbosulfan treatments, whereas buprofezin was on a<br />

par with control with zero mortality.<br />

The effect of green labelled insecticides, viz,<br />

chlorantraniliprole and flubendiamide when tested<br />

against the egg parasitoids, Trichogramma chilonis and<br />

T. brasiliensis showed lowest percent parasitisation and<br />

adult emergence in flubendiamide at all the<br />

concentrations. However, chlorantraniliprole was<br />

observed to be safer than flubendiamide.<br />

4.2.4 Insect Physiology<br />

Bacterial isolation from the midgut of adult<br />

Bactrocera zonata and their identification based on<br />

morphological, cultural and biochemical characteristics<br />

and further confirmation by 16S rRNA sequences<br />

revealed that the bacterial isolates belonged<br />

to Enterobacteriaceae, Bacillaceae and<br />

Xanthomonadaceae. The two bacterial isolates, viz.,<br />

Stenotrophomonas (Pseudomonas) maltophilia and<br />

Enterobacter asburiae were obtained from the adult<br />

population of wild colony, while laboratory reared<br />

colony harboured Bacillus thuringiensis and B. subtilis.<br />

The � tocopherol in combination with ascorbic acid<br />

or �-carotene showed better growth of Spodoptera litura


and enhanced the reproductive potential of the adult.<br />

The effect of glutathion was on a par with control, while<br />

gallic acid had significant inhibitory effect on the<br />

developmental stages of insect.<br />

A field trial was conducted to evaluate different<br />

levels of refugia (non-Bt cotton) by using refuge-in-bag<br />

concept wherein non-Bt seeds were mixed with Bt to<br />

ensure presence of refugia in the field. Dual stacked Bt<br />

cotton hybrid MRC 7017 belonging to Bollgard II was<br />

sown in the kharif season of <strong>2011</strong>. Bt cotton was infested<br />

significantly by whitefly amongst all other sucking<br />

pests. The whitefly infestation started from beginning<br />

and was highest at 46 days and thereafter declined.<br />

There was no definite difference between Bt and non-<br />

Bt treatments. The shoot damage due to Earias increased<br />

from 0.5 to 11.9% at 51; 0.5 to 34.9% at 74 and 0.5 to<br />

60.9% at 91 days after sowing. Although, incidence of<br />

bollworms was less, damage to seed cotton (in terms of<br />

kapas weight) did not show any definite trend as the<br />

proportion of n-Bt refuge planting increased. There was<br />

no definite trend of yield among treatments ranging<br />

from 5% to 40% refuge. The 100% non-Bt and Bt cotton<br />

yielded seed cotton of 1.58 t/ha and 2.50 t/ha,<br />

respectively. Pink bollworm incidence was observed for<br />

the first time in bolls of Bt cotton this year.<br />

The effect of shoot damage (top as well as side<br />

branches) on the damage to cotton plant and total yield<br />

was assessed. It was observed that Bt plants without<br />

top and side branches damage yielded 284.6 g/plant,<br />

n-Bt plant with top and side branches damage yielded<br />

141.6 g, n-Bt plants without any damage yielded 165<br />

Effect of damage to top and side branches of cotton on<br />

damage to the productivity and cotton quality<br />

Treatments Yield (g/plant) % damage<br />

Bt T(N) SB(N) 284.6 50.84<br />

n-Bt T(N) SB(Y) 80.4 66.29<br />

n-Bt T(Y) SB(N) 80.2 66.51<br />

n-Bt T(Y) SB(Y) 141.6 52.99<br />

n-Bt T(N) SB(N) 165.8 51.35<br />

Mean 155.7 57.34<br />

LSD 5% 74.63 13.21<br />

T= top shoot; SB= side branch; Y=presence of damage; N= absence of damage,<br />

Bt= plants of MRC7017BGII; n-Bt= plants of non-Bt MRC7017<br />

83<br />

g/plant, n-Bt plants with top or side branches damage<br />

yielded 80.2 and 80.4 g/plant, respectively. This shows<br />

that Bt plants are superior, and damage due to Earias<br />

affected yields adversely.<br />

On examination of green bolls from each treatment,<br />

loculi damage was evident and green boll damage<br />

increased with increase in age of crop. Treatment where<br />

all plants were non-Bt cotton had maximal boll damage.<br />

Of the bollworms examined, only Earias and<br />

Pectinophora gossypiella larvae could be seen and<br />

incidence of pink bollworm was the highest on Bt<br />

cotton. There was no incidence of H. armigera or S. litura<br />

on Bt cotton. However, leaf roller incidence was<br />

observed only on non-Bt cotton.<br />

Five stem borer tolerant and agronomically<br />

desirable maize genotypes selected from a set of 20<br />

diverse genotypes resistant to spotted stem borer, Chilo<br />

partellus were characterized for stem borer dead hearts;<br />

polyphenols, viz., ferulic acid and p-coumaric acid;<br />

morphological plant traits such as leaf glossiness,<br />

anthocyanin pigmentation; and seedling vigor. There<br />

were significant differences in stem borer deadhearts<br />

among the test genotypes, being lowest in CPM 15<br />

(8.0%) and highest in CML 334 (22.0%). The differences<br />

among the selected lines for leaf glossiness,<br />

anthocyanin pigmentation, and seedling vigor were<br />

statistically significant. Seedlings of all the selected<br />

genotypes had high to moderate anthocyanin<br />

pigmentation and seedling vigor. The correlation<br />

coefficients of ferulic and p-coumaric acids with stem<br />

borer dead hearts were positive but nonsignificant.<br />

However, the correlation coefficients of anthocyanin<br />

pigmentation with ferulic (r = 0.69) and p-coumaric<br />

(r = 0.89) acids were significant and positive.<br />

Five selected sorghum germplasm lines were<br />

characterized for different morphological and<br />

biochemical parameters against stem borer damage.<br />

Based on the dead hearts, the sorghum line IS 2205 was<br />

found to be resistant and concentrations of ferulic and<br />

p-coumaric acids were also highest in this line. There<br />

were highly significant and positive correlations of<br />

ferulic and p-coumaric acids with number of stem borer<br />

larvae per stem (r = 0.58 and 0.66), number of exit holes<br />

per stem (r = 0.61 and 0.71), number of tunnels per stem<br />

(r = 0.61 and 0.71), and per cent stem length tunneled<br />

(r = 0.83 and 0.79), respectively.


4.2.5 Insect Toxicology<br />

Antifeedant (AI 50 ) activity of various extracts of<br />

Clerodendron infortunatum leaves and pure compounds,<br />

Clerodin, 15-methoxy-14, 15-dihydroclerodin and 15hydroxy-14,<br />

15-dihydroclerodin when evaluated<br />

against third instar larvae of H. armigera through no<br />

choice method showed that the pure compounds<br />

clerodin (CI 5), 15-methoxy-14,15-dihydrocleroin (CI<br />

9) and 15-hydroxy-14,15-dihydroclerodin (CI 10) and<br />

their mixture (CI 4) had the best antifeedant activity as<br />

their AI 50 was 0.53, 0.6, 0.73 and 0.47 times lower than<br />

azadirachtin, respectively. Similarly growth inhibitory<br />

activity of these extracts when tested through diet<br />

incorporation method showed complete growth<br />

inhibition with azadiracthin, CI 4 and CI 13 even at the<br />

lowest concentration (0.001%).<br />

In vitro tests of termicidal treatments using wheat<br />

seed revealed that seed-treatments with double<br />

recommended dose (i.e. chlorpyriphos 20% EC, &<br />

fipronil 5% SC; 10 & 12 ml/kg seeds) are detrimental to<br />

the wheat seedlings. Double dose resulted in least<br />

germination (89%) and minimum root and shoot length.<br />

4.3 NEMATOLOGY<br />

4.3.1 Nematode Management<br />

The juveniles of Globodera spp encumbered with<br />

Pasteuria spores when inoculated to 10 days old potato<br />

seedlings (cv. Kufri Jyoti) raised in sterilized soil<br />

revealed that white females were infected with<br />

Pasteuria development stages and none of the infected<br />

females contained eggs. These observations suggested<br />

that Pasteuria isolated from the pigeon pea cyst<br />

nematode, H. cajani had cross-generic attachment.<br />

4.3.2 Biofumigation for Management of<br />

Root-Knot Nematode in the Soil<br />

Fresh leaves of Brassica juncea (cv. MC 27 and Pusa<br />

Jagannath) incorporated in root-knot infested soil (30J2/<br />

cc soil @ 10%, 20% and 30% w/w) for 30 days did not<br />

show root-knot J2 in any of the treatments. The bioassay<br />

of the soil using moong seedlings did not show the<br />

development of galls. In polyhouse study also, B. juncea<br />

when incorporated in root-knot infested soil showed<br />

undetectable levels of root-knot juveniles.<br />

84<br />

4.3.3 Bioefficacy of Controlled Release<br />

Nano- formulations of Azadirachtin-A<br />

against Meloidogyne incognita in Tomato<br />

Penetration and development of second stage<br />

juveniles of Meloidogyne incognita in tomato roots<br />

decreased with the increase in the concentration level<br />

of Aza from 5 to 40 ppm. AP2 @ 10 ppm improved the<br />

plant growth in terms of shoot length followed by @ 5<br />

ppm. The Aza-A-PEG 1500 (AP2) which showed the<br />

lowest population of nematodes provided significantly<br />

superior control.<br />

4.3.4 Interactive Effect of Herbicide and<br />

Nematicides on Cereal Cyst Nematode,<br />

Heterodera avenae Infecting Wheat under<br />

Field Conditions<br />

A field trial conducted at IARI, New Delhi on the<br />

effect of post-emergence herbicide, pinoxaden and<br />

other chemicals (carbofuran and phorate) on the cereal<br />

cyst nematode, Heterodera avenae infecting wheat<br />

revealed that combined application of carbofuran and<br />

phorate both @ 1kg a.i./ha followed by spray with<br />

pinoxaden @ 60g/ha effectively reduced cyst<br />

population.<br />

4.3.5 Management of Rice Root-knot<br />

Nematode, Meloidogyne graminicola in Rice<br />

Nursery<br />

Management of rice root-knot nematode,<br />

Meloidogyne graminicola using soil solarization and<br />

fumigation treatments showed that solarization for 15<br />

days was effective in improving the plant growth of<br />

rice plant. However, the application of carbofuran<br />

Effect of different treatments on number of galls in rice infected<br />

with Meloidogyne graminicola in nursery bed


@1 kg a.i./ha applied in solarized bed most effectively<br />

reduced the number of galls on rice seedlings at 24DAS.<br />

Thus, with this treatment, 24 days old seedling could<br />

be transplanted for effective management of<br />

M. graminicola under nursery conditions.<br />

4.3.6 Effect of Chemical Treatment on the<br />

Preceding Crop of Gram on the Population<br />

of Nematode in the Succeeding Crop of<br />

Mungbean<br />

The effect of chemical treatment with carbofuran<br />

@ 1 and 2 kg a.i/ha, Trichoderma harzianum @10 and 15<br />

kg/ha, and seed soaking in triazophos at 125 and<br />

250 ppm for 20 minutes with untreated control on the<br />

preceding crop of gram on the nemic population in<br />

succeeding crop of mungbean was investigated. There<br />

was significant increase in population of reniform<br />

nematode. Minimum increase was found with<br />

triazophosh @ 250 ppm treatment (4 pre-adult/g soil)<br />

in comparison to control. The population of stunt<br />

nematode was low in all the treatments in relation to<br />

control with respect to final population. The pod yield<br />

was better in treated plots than the untreated control.<br />

Maximum pod yield was recorded in triazophos (0.5<br />

kg/16m 2 ) followed by Trichoderma sp. (0.45 kg/16m 2 ).<br />

The yield performance was improved by 18-45%<br />

depending upon the treatment.<br />

4.3.7 Management through Transgenic<br />

Approach<br />

The functional validation using RNAi carried out<br />

for two FMR, Famide like peptide genes (FLPs), flp14<br />

and flp18 and one sub ventral esophageal gland specific<br />

gene 16D10 showed that RNAi silencing of all three<br />

genes significantly reduced the nematode attraction at<br />

different time intervals. Single gene silencing and also<br />

their combinations interfered with the host finding<br />

mechanism as the silenced worms were delayed in<br />

reaching the roots. Flp18 was the most effective in<br />

preventing the penetration as there was about 67 per<br />

cent reduction over control in penetration at 24 hrs after<br />

inoculation and 21 per cent at 72 hrs.<br />

The tomato, Solanum esculentum, cv. Pusa Ruby was<br />

transformed using Agrobacterium tumefaciens mediated<br />

method to express dsRNA of the subventral esophageal<br />

85<br />

gland parasitism gene AF531170. The host-induced RNAi<br />

of the root knot nematode parasitism gene led to a<br />

significant reduction to the range of 54.79 to 59.89% in the<br />

development of adult females over control. Further,<br />

reduction in the galls and in eggs per egg mass was also<br />

observed. These observations demonstrate the relevance<br />

of the targeted parasitism gene during the nematode life<br />

cycle and potentiality of obtaining viable level of resistance<br />

in crop plants using RNAi technology against root knot<br />

nematode.<br />

In silico search for potential gene targets of rootknot<br />

nematode for functional validation through RNA<br />

interference, led to identification of a unique 366 bp<br />

conserved region of Mi-cpl-1 which has been amplified<br />

taking total RNA from J2 of M. incognita followed by<br />

cDNA synthesis through RT-PCR. The gene has been<br />

cloned into the RNAi vector, PBC 6 which is of 14 kb in<br />

size having CaMV 35S promoter.<br />

4.3.8 Entomopathogenic Nematode<br />

The virulence of the infective juveniles of<br />

entomopathogenic nematode Steinernema thermophilum<br />

exposed to the highest recommended doses of 26<br />

pesticidal formulations were evaluated against the 4 th<br />

instar larvae of Galleria mellonella. The bioassay study<br />

showed the retention of virulence by the infective<br />

juveniles and a synergistic interaction of S. thermophilum<br />

and the biopesticide spinosad was observed.<br />

4.4 AGRICULTURAL CHEMICALS<br />

4.4.1 Chemo and Bio-prospecting for<br />

Agrochemicals through Design, Discovery<br />

and Development of Novel Processes and<br />

Products<br />

Chemical characterization and antifungal activity<br />

of Clerodendron infortunatum extracts and<br />

constituents. Three compounds isolated from the<br />

hexane extract of Clerodendron infortunatum leaves<br />

identified as clerodin, 15-hydroxy-14,15dihydroclerodin<br />

(M + - 466) and 15-methoxy-14,15dihydroclerodin<br />

(MH + - 452) exhibited moderate<br />

antifungal activity (EC 50 156.2 – 206.7 ppm).<br />

Antioxidant and antifungal activity of extracts of<br />

Tagetes erecta. Forty one major compounds extracted


from Tegetes erecta representing more than 90% of the<br />

total detected constituents of essential oil were<br />

identified which included limonene (11.16%), dllimonene<br />

(4.26%), E-tagetone (10.56%), E-oscimene<br />

(18.65%), �– caryophyllene (6.9%), and cis-ocimene<br />

(44.21%). The essential oil had significant antioxidant<br />

and antifungal activity.<br />

Synthesis of Schiff bases of 4-amino-3-mercapto-<br />

5-pyridin-2-yl-4H-1,2,4-triazole. A series of 20 Schiff<br />

bases of 4-amino-3-mercapto-5-pyridin-2-yl-4H-1,2,4triazole<br />

having different substitutions in the aryl ring<br />

attached to imine group were synthesized and<br />

characterized by IR, H-NMR and 13 C-NMR<br />

spectroscopy. It was observed that microwave synthesis<br />

was much faster and efficient than the conventional<br />

methods.<br />

Fungicidal activity of substituted aryl aldehydes.<br />

Out of twenty four substituted aryl aldehydes<br />

evaluated for fungicidal activity in vitro, 2-Cl<br />

substituted aldehyde showed highest activity (ED 50 100<br />

�g/ml) against Rhizoctonia solani.<br />

Field evaluation of potential nematicidal Schiff<br />

bases of 4-amino-3-mercapto-5- phenyl-1,2,4-triazole.<br />

Two compounds, viz., GA-1 & GA-5, which have<br />

shown potential nematicidal activity in vitro, pot<br />

studies and in micro plots (1m × 1m) when further<br />

evaluated in field (2mx2m plots) on okra (var. A 4) at<br />

150 (750 g a.i./ha) and 300 ppm concentration showed<br />

considerable reduction in number of galls caused by<br />

root knot nematode and increased plant growth.<br />

N N<br />

N SH<br />

N<br />

C<br />

H<br />

Microwave accelerated solvent-free synthesis and<br />

antifungal evaluations of flavanones. Microwave<br />

irradiation of 2-hydroxy chalcones with trifluoroacetic<br />

acid (TFA) over silica gel was used to synthesize 11<br />

known flavanones, out of which, 2-(4 fluorophenyl)-<br />

2, 3-dihydrochromen-4-one was found to be the most<br />

potent having maximum antifungal activity (LC 50 12.0<br />

mgL -1 ).<br />

R<br />

86<br />

Ar<br />

O<br />

O<br />

Flavanone<br />

Isolation and bioassay of secondary metabolites<br />

of Fusarium oxysporum. Ethyl acetate concentrate of<br />

Fusarium oxysporum proved most active component<br />

against pathogenic fungi, Rhizoctonia bataticola,<br />

Macrophomina phaseolina, Pythium aphanidermatum;<br />

showing maximum activity against R. bataticola (ED 50<br />

326.51 ppm) and S. rolfsii (ED 50 338.37 ppm). 500ppm<br />

concentrate of ethyl acetate showed complete mortality<br />

against second instar larvae of root-knot nematode<br />

(M. incognita).<br />

Synthesis of potential picolinic acid Schiff bases.<br />

Picolinic acid Schiff bases synthesized in the laboratory<br />

had significant antifungal activity against soil borne<br />

pathogens, Rhizoctonia bataticola and Rhizoctonia solani.<br />

N-phenyl-(3-chloro)-imino-picolinamide exhibited<br />

maximum antifungal activity against R. bataticola (ED 50<br />

53.90 mg L -1 ) followed by R. solani (ED 50 59.08 mg L -1 ).<br />

Extraction and antifungal activity of essential oils<br />

of Ocimum chemotypes. Camphor (85%) and chavicol<br />

(69%) characterized by GC-MS were the major<br />

constituents of essential oil extracted from Ocimum sp.<br />

varieties OEC 2 and OIC 4, respectively, while linalool<br />

was most abundant in OIC 1, OIC 3 and OEC 3. Selinene<br />

was one of the major sesquiterpenes present in other<br />

chemotypes. All the chemotypes contained linalool<br />

ranging from 3.68 to 41.63%. Essential oils of OIC<br />

exhibited higher antifungal activity against R. solani<br />

(ED 50 115.32-202.51 ppm) followed by M. phaseolina<br />

(ED 50 165.20-247.11 ppm).<br />

Synthesis and characterization of new<br />

azomethine derivatives as new antifungal agents and<br />

nitrification inhibitors. Twenty three new azomethine<br />

compounds derived from 2,4,5-trichloro aniline<br />

synthesized by condensing aniline and different<br />

aldehydes, were characterized on the basis of spectral<br />

data.<br />

Ar`


CI<br />

CI<br />

CI<br />

NH 2 + RCHO MeOH<br />

The maximum antifungal activity was observed<br />

with 3, 4, 5-trimethoxy benzylidene-(2, 4, 5trichlorophenyl)<br />

amine (ED 50 9.4 �g/ml) against R.<br />

bataticola while, 4-tert-butyl benzylidene-(2, 4, 5trichlorophenyl)<br />

amine was the best against S. rolfsii<br />

(ED 50 - 10.6 �g/ml). Nitrification inhibition (NI) studies<br />

revealed that all test compounds were highly effective<br />

as nitrification inhibitors.<br />

Synthesis, antifungal evaluation and QSAR<br />

analysis of nalidixic acid based 1,2,4-triazole<br />

derivatives. Thirty three new nalidixic acid based 1,2,4triazole<br />

derivatives synthesized and characterized<br />

using spectral techniques were screened for antifungal<br />

activity against two pathogenic fungi, Aspergillus niger<br />

and Fusarium oxysporum taking hexaconazole as a<br />

standard antifungal agent. All the compounds showed<br />

moderate to weak activity against both fungi. Based<br />

on Quantitative Structure Activity Relationship (QSAR)<br />

analysis, it was observed that steric parameters of the<br />

molecules strongly influenced the antifungal activity<br />

than hydrophobic and other topological parameters.<br />

4.4.2 Food Safety, Risk Assessment of Crop<br />

Protection Products and Residue<br />

Management<br />

4.4.2.1 Supervised field trials for pesticide risk<br />

assessment<br />

Persistence of chlorantranipole on mustard and<br />

cabbage. Persistence of chlorantranipole, a new class of<br />

anthranilic acid diamide used for the control of<br />

lepidopteron insects, was studied on mustard and<br />

cabbage at 10 and 20 g a.i./ha using HPLC-UV detector.<br />

The insecticides dissipated with half-life of 1.3 to 1.7 days<br />

and 92.3 -95.0% dissipation was recorded on 7 th and 5 th<br />

day, respectively. A safe waiting period of 3 days has<br />

been suggested for mustard leaves and cabbage heads.<br />

Persistence of ethion and cypermethrin on<br />

vegetables following use of ready mix formulation. A<br />

CI<br />

R = alkenyl, aryl, heterocyclyl<br />

CI<br />

CI<br />

N<br />

R<br />

87<br />

ready mix formulation of ethion amd cypermethrin<br />

(Nagata; 40% cypermethrin + 4% ethion) when applied<br />

on chili fruits at 50% flowering followed by second<br />

application at 50% fruiting at 1 and 2 L/ha, ethion and<br />

cypermethrin persisted till 5 days, with a half life of<br />

1.30 and 1.20 days, respectively. Residues of both ethion<br />

and cypermethrin were below the prescribed Codex<br />

MRL on chili by day 3.<br />

Persistence of deltamethrin and endosulfan<br />

following use of combination mix pesticide on okra.<br />

Commercial combination mixture of deltamethrin+<br />

endosulfan (Cobra-5000) when sprayed @ 1 and 2 L/ha<br />

on okra at fruit formation stage, up to 15 days at regular<br />

time intervals showed half-life of dissipation for<br />

endosulfan and deltamethrin to be 2.4-3.2 days and 2.7-<br />

3.4 days, respectively. A safe waiting period of 3 days<br />

has been suggested.<br />

Persistence of chlorfenapyr on brinjal.<br />

Chlorfenapyr formulation (Intrepid 10% SC) when<br />

sprayed on brinjal crop @ 100 and 200 g a.i./ha at 50%<br />

fruit formation stage revealed that residues persisted<br />

in fruits beyond 15 days with the half-life of dissipation<br />

of 4.5-4.9 days. A safe waiting period of 5 days has been<br />

suggested.<br />

Persistence of chlorfenapyr in okra fruits and field<br />

soil. Persistence of chlorfenapyr when sprayed on okra<br />

@ 100 and 200 g a.i./ha at flowering/fruit showed initial<br />

deposits of 0.120 and 0.171 μg/g in okra fruits and 0.162<br />

and 0.207 μg/g in surface soil, respectively. The residues<br />

persisted up to 15 days on okra fruits and dissipated<br />

with a half-life of 1.8-2.2 days, while in soil residues<br />

persisted beyond 15 days. For consumer safety, a<br />

waiting period of 5 days is suggested.<br />

Residues of penoxulam in rice field soil. Persistence<br />

of penoxulam herbicide was studied in rice crop after<br />

post emergent application on 15 days after<br />

transplanting at 20 and 25 g a.i./ ha. Residues of<br />

penoxulam (initial deposit 0.117-0.158 g/g) dissipated<br />

with a half-life of 5.2 to 6 days in soil. At harvest<br />

residues were below detectable limits (0.01 �g /g).<br />

Residues of diclosulam in soybean field soil.<br />

Residue analysis of diclosulam applied at pre emergent<br />

stage indicated an initial deposit 0.092-0.148 �g/g in<br />

soil dissipated with a half-life of 8.4 to 9.7 days. At


harvest residues were below detectable limits<br />

(0.01 �g /g).<br />

Degradation of clodinafop propargyl in<br />

susceptible and resistant Phalaris minor. Degradation<br />

of clodinafop propargyl applied as post emergent spray<br />

to susceptible and resistant biotypes of P. minor, were<br />

analysed for clodinafop propargyl and clodinafop acid,<br />

an active and translocative form of this herbicide. In<br />

resistant biotype, traces of the herbicide were detected<br />

in roots as ester while nothing was detected in shoots.<br />

In susceptible biotype the maximum amount of<br />

clodinafop acid was detected both in shoot and root<br />

on 4 th day and thereafter plants died due to herbicide<br />

phytotoxicity.<br />

4.4.2.2 Environmental fate of pesticides<br />

Effect of organic amendments on the persistence<br />

of bifenthrin, fipronil, metribuzin and atrazine in soil.<br />

Sludge amendment drastically decreased atrazine half<br />

life from 150 days in un-amended soil to 30.0-37.6 days.<br />

Similarly, bifenthrin half life decreased from 100 days<br />

(unamended control) to 50.0-75.2 days. Results<br />

suggested that sludge amendments increased the rate<br />

of fipronil dissipation as the half life decreased from<br />

150.5 days (control) to 60.2-100.3 days. In case of<br />

metribuzin half-life in amended soil was found to be<br />

higher as compared to unamended soil.<br />

Sorption and leaching of metsulfuron-methyl,<br />

metolachlor and atrazine in fly ash amended soils.<br />

Effect of Indraprastha (IP) fly ash on metsulfuronmethyl<br />

sorption-desorption and leaching was studied<br />

in IARI, Jhargram and Almora soils. Application of fly<br />

ash significantly increased metsulfuron methyl<br />

sorption in all the three soils and sorption increased<br />

with increasing dose of fly ash. The K oc values for<br />

metsulfuron methyl sorption in fly ash-amended soils<br />

showed 6 to 50 times variation suggesting that the OC<br />

content was not the main fraction of fly ash responsible<br />

for the increased metsulfuron methyl sorption in the<br />

amended soils. The slope (1/n) values of metsulfuron<br />

methyl adsorption in the control soils are nonlinear and<br />

values are less than unity suggesting L-type isotherms.<br />

However, application of fly ash slightly decreased the<br />

isotherm slope values in IARI soil, while slope values<br />

increased in Jhargram and Almora soils.<br />

88<br />

Leaching behaviour of metsulfuron-methyl<br />

studied in IP fly ash amended IARI and Jhargram soils<br />

indicated that application of fly ash to soil reduced the<br />

metsulfuron-methyl downward mobility in the both<br />

soil columns and affected both metsulfuron-methyl<br />

breakthrough time and its maximum concentration.<br />

Similarly, metsulfuron-methyl breakthrough from 1%<br />

fly ash amended Jhargram soil column occurred after<br />

passing 2.62 pore volumes of water. No metsulfuronmethyl<br />

leached out of the 5% fly ash amended IARI<br />

and 2 and 5% fly ash amended Jhargram soil columns.<br />

Application of fly ash to soil retained higher amounts<br />

of metsulfuron-methyl in the application zone and<br />

upper soil layers because of greater sorption and<br />

irreversibility of metsulfuron-methyl sorption in fly<br />

ash-amended soils.<br />

An increase in the sorption of metolachlor and<br />

atrazine in fly ash amended soils was observed which<br />

increased with increase in the amount of fly ash<br />

amendment. Inderprastha fly ash was found to be more<br />

effective in enhancing the metolachlor sorption than<br />

the Badarpur fly ash in both soils.<br />

Effect of elevated CO 2 on azoxystrobin<br />

degradation. Elevated CO 2 (580±20 μmol mol -1 ) did not<br />

have any significant effect on the persistence of<br />

azoxystrobin in rice planted soil. The half life values<br />

for the azoxystrobin in rice soils were 20.3 days in<br />

control (rice grown at ambient CO 2 outdoor), 19.3 days<br />

in rice grown under ambient CO 2 atmosphere in OTC<br />

and 17.5 days in rice grown under elevated CO 2<br />

atmosphere in OTC. Elevated CO 2 enhanced soil<br />

microbial biomass (MBC) and alkaline phosphatase<br />

activity of soil. Higher MBC in soil at elevated CO 2<br />

could be attributed to increased carbon availability in<br />

the rhizosphere via plant metabolism and root<br />

secretion. However, it did not significantly increased<br />

azoxystrobin degradation suggesting that pesticide<br />

degradation was not the result of soil MBC alone.<br />

4.4.2.3 Analytical methods<br />

Method standardisation for analysis of ethion,<br />

fenpropathrin, endosulfan, �����-cyhalothrin,<br />

cypermethrin, hexaconazole, dicofol and bifentrin in<br />

tea. Extraction by shaking with acetonitrile followed<br />

by florisil column cleanup gave the best recoveries for


estimation of ethion, fenpropathrin, endosulfan and<br />

l-cyhalothrin in tea using GLC-ECD. At the fortification<br />

level of 1.0 and 0.5 �g the average recovery ranged<br />

between 82.8 and 90.6%. The method was found to be<br />

reproducible with RSD of 3.1 – 7.3%. Similar method<br />

was found suitable for estimation of cypermethrin,<br />

hexaconazole, dicofol and bifentrin in tea. The method<br />

was accurate with the average recovery ranging from<br />

83.7-90.5% at the fortification level of 1.0 and 0.5 �g<br />

and reproducible (RSD 3.9-4.5%).<br />

Gas chromatography method for metsulfuron<br />

methyl herbicide analysis in soil. Gas<br />

Chromatographic method was developed for the<br />

determination of metsulfuron methyl herbicide<br />

residues from soil by its derivatization to a dimethyl<br />

derivative and using diazomethane. Using GC-ECD<br />

method, recovery of metsulfuron methyl from soil was<br />

above 80%. Mono and dimethyl derivatives of<br />

metsulfuron methyl had Rt of 5.72 and 14.56 min,<br />

respectively. Limit of detection (LOD) and limit of<br />

quantification (LOQ) of the method were 0.1 �g mL -1<br />

and 0.2 �g g -1 , respectively.<br />

Multiresidue methodology for analyzis of PAHs<br />

in water. A multiresidue method for the analysis of<br />

PAHs (naphthalene, acenaphthalene, phenanthrene,<br />

fluanthrene, anthracene and pyrene) in water by HPLC<br />

was standardized. The linearity range was 0.01-100 mg/<br />

L and the limit of detection (LOD) varied from 0.01-<br />

0.05 �g/mL with injection volume of 10 �L. Among the<br />

three solvents used in liqud-liquid partitioning for<br />

extraction, dichloromethane gave maximum extraction<br />

efficiency (70.3-91.7%). For the cleanup of water extract,<br />

a florisil column using 20:80 acetone:hexane as the<br />

eluting solvent gave recovery of 89.2-97.2%. The limit<br />

of quantification varied from 0.01-0.05 �g/mL.<br />

4.4.2.4 Decontamination of pesticides<br />

Removal of pesticides and herbicides from water.<br />

Out of three modified clays and two metal oxides<br />

having size range between 20-50�m tested for the<br />

decontamination of water, metal oxides performed<br />

better than modified clays. Out of the two metal oxides,<br />

removal efficiency of ZnO 2 was higher as it removed<br />

57-100% of the pesticides as compared to 41-76%<br />

removal efficiency recorded for ZnO. Sonication with<br />

89<br />

clays (montmorillonite) was found to be the best for<br />

removal of pendimethalin and flufenacet.<br />

Remediation of 4 pesticides from water.<br />

Adsorption-desorption of atrazine, metribuzin,<br />

alachlor and metolachlor studied on granular carbon<br />

using batch method indicated that triazines are more<br />

strongly adsorbed than acetanilides. When a mixture<br />

of all the four herbicides was used for adsorption<br />

studies, the trend of adsorption was metribuzin><br />

atrazine> alachlor> metolachlor. Desorption studies in<br />

three cycles showed that alachlor was the most<br />

desorbing herbicide followed by metolachlor. Atrazine<br />

and metribuzin were not desorbed in any study.<br />

Optimization of method for removal of triazine<br />

herbicides from water. For removal of triazine<br />

herbicides, atrazine and metribuzin from water,<br />

treatment process was modified by incorporating<br />

treatment with nano and surface modified clays which<br />

increased the efficiency to 94-100%. The optimized<br />

treatment process involved chlorination followed by<br />

treatment with clay nano-montmorillonite modified<br />

with 15-35 wt % octadecylamine and 0.5-5 wt%<br />

aminopropyl triethoxy silane and then coagulation/<br />

flocculation with alum and PAC gave maximum<br />

removal of atrazine (100%) and metribuzin (94.1%).<br />

4.4.3 Innovations in <strong>Agricultural</strong><br />

Formulations and Application Technology<br />

for Safety and Efficacy<br />

4.4.3.1 Bio-efficacy of nanoformulations of<br />

�����-cyfluthrin against Callosobruchus maculates<br />

Controlled release formulation of �-cyfluthrin<br />

developed by utilizing PEG-1500 and PEG-2000<br />

showed greater efficacy after 14 days as evident from<br />

EC 50 values of 2.2 and 1.58 mg L -1 , respectively, while<br />

EC 50 for commercial �-cyfluthrin formulation (025SC)<br />

were 129.81 mg L -1 .<br />

4.4.3.2 Bioefficacy of controlled release<br />

formulations based on amphiphilic nanopolymer<br />

of carbofuran against Meloidogyne<br />

incognita infecting tomato<br />

A formulation of carbofuran developed using PEG-<br />

900 (CP2) proved effective against M. incognita infecting<br />

tomato even up to 14 days, recording maximum shoot


and root length at 20 ppm concentration and decrease<br />

in nematode penetration (3.6-4.6 J2s) under field<br />

conditions.<br />

4.4.3.3 Development of nano-formulation of<br />

azadirachtin-A<br />

The diffusion exponent (n value) of controlled<br />

release formulations of azadirachtin-A, in water ranged<br />

from 0.108 to 0.401. The release mechanism was found<br />

to follow Fickian diffusion and time taken to release<br />

50% a.i. (t 1/2 ) ranged between 6.6 to 55.8 hrs in water<br />

from different polymeric matrices. The results suggest<br />

that depending upon the polymer matrix used the<br />

application rate of azadirachtin-A can be optimized to<br />

achieve insect control at the desired level and period.<br />

4.4.3.4 Development of polymeric seed coats<br />

based on color and azadirachtin-A for soybean<br />

seed quality enhancement<br />

Twenty-four polymeric seed coat formulations<br />

developed based on amphiphilic polymers and<br />

azadirachtin-A without and with grapes anthocyanin<br />

when tested for soybean seed quality parameters, viz.,<br />

seed germination, vigour, moisture, health and<br />

storability, etc. indicated that polymeric seed coats<br />

prepared using aza-A and anthocyanin performed<br />

better than aza-A seed coats.<br />

The repellent and anti-oviposition effect of twelve<br />

polymeric seed coats containing azadirachtin-A alone<br />

and another twelve polymeric seed coats containing<br />

both azadirachtin-A and anthocyanin when evaluated<br />

against Callosobruchus analis in soybean revealed that<br />

repellency effect was higher in azadirachtin-A<br />

containing formulations than the coloured<br />

formulations. The highest repellent effect (94%) was<br />

found on the malic acid and polyethylene glycol-1000<br />

based polymeric formulation containing azadirachtin-<br />

A. All polymer coated seeds significantly reduced<br />

oviposition of C. analis.<br />

4.4.3.5 Field evaluation of CR formulations of<br />

imidacloprid in soybean<br />

Bioefficacy of controlled release (CR) formulations<br />

of imidacloprid prepared using amphiphilic polymers<br />

evaluated against major pests of soybean, namely, stem<br />

fly, Melanagromyza sojae and white fly, Bemisia tabaci<br />

90<br />

showed that there was significantly better control of<br />

the pests compared to its commercial formulations, and<br />

amphiphilic polymer [poly (oxyethylene-1000)-oxy<br />

suberoyl] based formulation was found to be the best.<br />

4.4.3.6 Release of thiram from poly ethylene<br />

glycol based nano formulations<br />

Controlled released nano-formulation of thiram<br />

was developed. The diffusion exponent (n value) of<br />

thiram in water ranged from 0.34 to 0.54 in the tested<br />

formulations. The release was diffusion controlled with<br />

a half-release time (t 1/2 ) of 14.8 to 25.2 days in water<br />

from different formulations, and the period of<br />

optimum availability (POA) of thiram ranged from 12.2<br />

to 25.2 days. The results suggest that the application<br />

rate of thiram can be optimized to achieve control at<br />

the desired level and period.<br />

4.4.3.7 Hydrogel based combo formulations of<br />

Tagetes extract and MgSO4 Formulations of tagetes extract and MgSO were 4<br />

prepared by impregnation and adsorption on Pusa<br />

hydrogel. The half release time (t ) of �-T in water<br />

1/2<br />

and soil was 23 and 36.9 days, respectively. In vitro<br />

Tagetes+MgSO hydrogel formulation exhibited<br />

4<br />

maximum mortality against M. incognita. LC values<br />

50<br />

of extract alone, gel+extract and gel+extract+MgSO4 were observed as 17.03, 17.29 and 5.43 ppm,<br />

respectively. In vivo evaluation under polyhouse<br />

conditions suggested that in extract and magnesium<br />

based test formulations, the nematode population<br />

remained suppressed throughout the observation<br />

period ranging from 4-8 nematodes per gram soil as<br />

compared to control which registered an increase in<br />

nematode population from initial number 6 to 13 on<br />

60th day.<br />

4.5 WEED MANAGEMENT<br />

4.5.1 Efficient Management of Weeds<br />

including Cyperus rotundus in Maize using<br />

Tank-mix Application of Imazethapyr and<br />

Pendimethalin<br />

Bio-efficacy of tank-mix and sequential<br />

applications of herbicides on weeds including Cyperus<br />

rotundus in maize was studied and it was observed that


all tank-mix and sequential applications of<br />

pendimethalin with imazethapyr or chlorimuron-ethyl<br />

caused significant reduction in weed dry weight and<br />

gave higher weed control index (WCI). Maize yield in<br />

atrazine 1.0 kg/ha + mustard residue mulch (5 t/ha) was<br />

significantly higher and comparable with that in weedfree<br />

check. Total chlorophyll content and soluble<br />

protein were reduced due to tank-mixes of<br />

pendimethalin with imazethapyr or chlorimuron-ethyl,<br />

but the activity of ascorbate peroxidase increased in<br />

response to these applications, indicating a possible<br />

defence mechanism operating in maize to scavenge the<br />

ill-effects. This could be a new recommendation for<br />

weed management in maize.<br />

4.5.2 Tank-mix Herbicide Application<br />

Supplemented with Dormancy Breaker for<br />

Efficient Weed Control in Soybean<br />

An experiment, involving 0%, 3% and 6% of KNO 3<br />

(a dormancy breaker) supplemented with 7 weed<br />

control treatments, namely, pendimethalin 1.0 kg/ha<br />

PRE, pendimethalin + imazethapyr (0.75 +0.050) kg/ha<br />

PRE; pendimethalin + imazethapyr (0.75 +0.075) kg/ha<br />

PRE; pendimethalin + imazethapyr (0.75 +0.100) kg/ha<br />

PRE; imazethapyr 0.100 kg/ha POST; hand weeding<br />

twice (20 and 40 DAS); and unweeded control was laid<br />

out under field conditions to optimize the dose of<br />

dormancy breaker and tank-mix application of<br />

pendimethalin and imazethapyr for weed control in<br />

soybean. All tank-mixes of pendimethalin +<br />

imazethapyr (0.75 +0.050; 0.75 +0.075; 0.75+0.100) kg/<br />

ha PRE caused complete control of broad-leaved and<br />

grass weeds and a significant reduction in perennial<br />

Cyperus rotundus which consequently resulted in<br />

significantly higher soybean seed yield in these tankmixes<br />

compared to only post-emergence application<br />

Pendimethalin + imazethapyr<br />

(0.75 + 0.100 kg/ha)<br />

Unweeded control<br />

91<br />

of imazethapyr (0.100 kg/ha) at 20 DAS and unweeded<br />

control.<br />

4.5.3 Characterization of Phalaris minor<br />

Biotypes towards Cross-resistance Across<br />

Low-dose Wheat Herbicides<br />

Twenty Phalaris minor biotypes, including a<br />

susceptible check biotype were tested in the field for<br />

their resistance against eight herbicides with the<br />

objective to find out a suitable herbicide for controlling<br />

the resistant populations of Phalaris minor. Isoproturon<br />

and clodinafop-propargyl were adopted as check<br />

herbicides for confirming the resistance of Phalaris<br />

biotypes against these two herbicides. All biotypes<br />

showed resistance against clodinafop-propargyl @ 60<br />

g/ha, carfentrazone-p-ethyl @ 30 g/ha, pinoxaden @ 50<br />

g/ha and isoproturon @ 1.0 kg/ha, while pendimethalin<br />

0.75 kg/ha, Atlantis 400 g/ha (product), and<br />

pendimethalin 0.75 kg/ha + carfentrazone-p-ethyl 30<br />

g/ha controlled 17, 12 and 14 biotypes, respectively and<br />

were superior to other herbicides. Pendimethalin @ 0.75<br />

kg/ha and Atlantis 400 g/ha (product) could be better<br />

options for controlling the resistant populations of<br />

Phalaris minor.<br />

4.5.4 Evaluation of Pinoxaden and<br />

Carfentrazone for Weed Management in<br />

Wheat<br />

The impact of alone and tank mix application of<br />

pinoxaden and carfentrazone in wheat against Phalaris<br />

minor and Avena ludoviciana was studied. Besides these<br />

weeds, the experimental field was heavily infested with<br />

Fumaria perviflora, Rumex dentatus, Chenopodium album,<br />

Chenopodium murale and Melilotus indica. Carfentrazone<br />

@ 20 g/ha recorded the lowest weed population and<br />

the highest grain yield (5.9 t/ha) of wheat. Tank mix<br />

application of pinoxaden @ 50 g/ha + metsulfuron 4 g/<br />

ha, pinoxaden 50 g/ha + carfentrozone 15 g/ha were<br />

found effective in controlling all weeds in wheat.<br />

Pinoxaden @ 50-60 g/ha and carfentrazone 20 g/ha<br />

caused significant reduction in the population of both<br />

grassy weeds. However, poor efficacy of sulfosulfuron<br />

and clodinofop against grassy weeds was noted. Tank<br />

mix application of clodinafop propargyl +carfentrazone<br />

ethyl showed 92.9% weed control efficiency with a seed<br />

yield of 3.9 t/ha in wheat.


4.5.5 Impact of Weed Control Practices on<br />

Productivity of Wheat<br />

Post-emergence application of clodinofop<br />

propargyl @ 0.06 kg a.i./ha recorded maximum grain<br />

yield of wheat (5.27 t/ha), which was statistically on a<br />

par with the application of affinity @ 0.020 kg a.i. /ha<br />

(5.15 t/ha), 2, 4-D @ 1.0 kg a.i./ha (5.12 t/ha) and Atlantis<br />

@ 400 mL/ha (5.11 t/ha) but was significantly higher<br />

than the rest of the treatments. However, application<br />

of metsulfuron @ 0.016 g a.i./ha recorded maximum<br />

biological yield (11.31 t/ha), which was significantly<br />

higher over control, hand weeding, and 2,4-D<br />

application but statistically on a par with other<br />

treatments. None of the weed control treatments had<br />

any significant effect on protein content of wheat grain.<br />

4.5.6 Evaluation of Bio-efficacy and<br />

Selectivity of Penoxsulam for Weed<br />

Management in Direct Seeded and<br />

Transplanted Rice<br />

The efficacy and selectivity of penoxsulam in direct<br />

seeded and transplanted rice against Echinochloa<br />

crusgalli, Echinochloa colona, Leptochloa chinensis, Eclipta<br />

alba and Cyperus difformis was studied. Pre-emergence<br />

application of Penoxsulam @ 25 g/ha at 15 days crop<br />

caused the highest reduction in the growth of weeds<br />

and produced significantly higher grain yield over<br />

92<br />

weedy check. There was significant effect of methods<br />

of rice culture and weed control measures on the crop<br />

growth at all stages. Transplanted method of rice<br />

culture significantly increased all growth parameters<br />

and yield attributes compared to direct-seeded.<br />

Season-long weed-free situation recorded 73.77%<br />

increase in the grain yield. Herbicidal treatments<br />

provided a yield advantage of 65.98% to 72.63% over<br />

weedy check. HPLC method for analysis of<br />

penoxsulam herbicide residue was standardized using<br />

CH 3 CN:0.1% ortho phosphoric acid (40:60) at a flow<br />

rate of 1 ml/min at 204 nm wavelength using PDA<br />

detector. The residue at harvest was found below the<br />

detectable limits.<br />

4.5.7 Integrated Weed Management in<br />

Soybean<br />

A field experiment was conducted to evolve<br />

integrated weed management practices in soybean.<br />

Two cono weeding at 20 and 40 DAS brought higher<br />

reduction in the growth of all weeds resulting in higher<br />

weed control efficiency. Pre-emergence application of<br />

diclosulam @ 26 g/ha achieved lower density and dry<br />

weight of weeds at 30 DAS. Season long weed free<br />

situation recorded 76.96 % increase in seed yield.<br />

Herbicide treatments provided a yield advantage of<br />

54.4 to 74.5 % over weedy check.


5. BASIC AND STRATEGIC RESEARCH<br />

During this year, the basic and strategic research carried out at IARI made significant progress in the areas of<br />

molecular characterization of genetic resources, genetic diversity analysis, isolation of new genes for stress tolerance<br />

and nutrient use efficiency, development of molecular markers, maping of genes for agronomically important<br />

traits, the physiological basis of crop yield, mitigation studies on climate change, development of remote sensing<br />

and GIS techniques for assessment and management of crops and natural resources. This chapter briefly covers<br />

some of the significant achievements in these areas.<br />

5.1 PLANT BIOTECHNOLOGY<br />

5.1.1 Cloning and Functional Validation of<br />

Genes<br />

Isolation and characterization of genes are<br />

important to understand the molecular basis of gene<br />

expression and genotypic differences in productivity.<br />

Towards this goal, several genes were cloned from crop<br />

plants and characterized.<br />

5.1.1.1 Abscisic acid (ABA) receptors from rice<br />

The abscisic acid receptors (ABAR) perceive the<br />

plant stress hormone ABA and regulate plant<br />

development and stress tolerance. Therefore, cloning<br />

and functional validation of ABARs will help<br />

develop stress tolerant crops. Towards this goal, 11<br />

genes constituting the ABAR family were identified<br />

in rice. A semi-quantitative RT-PCR analysis was<br />

carried out to study the expression pattern of ABAR<br />

genes under normal and drought stress conditions<br />

in rice. Constitutive expression levels of ABAR6,<br />

ABAR7, ABAR8, ABAR10 and ABAR11 were higher<br />

in drought tolerant rice cv. Nagina 22 as compared<br />

with drought susceptible IR64. Full length coding<br />

sequences of OsABAR6, OsABAR7, OsABAR8,<br />

OsABAR9 and OsABAR11 were cloned and<br />

sequenced. Further, OsABAR6 gene was cloned<br />

under the transcriptional control of stress-inducible<br />

RD29A promoter in a modified pCAMBIA1300 plant<br />

transformation vector.<br />

93<br />

Expression pattern of ABAR genes in rice at active tillering stage<br />

under drought stress (RWC%: N22, C=94; N22, S=64.8; IR64,<br />

C=90; IR64, S=66.5)<br />

5.1.1.2 HSP17 gene from pearl millet<br />

The full length coding sequence of PgHSP17 gene<br />

was cloned from pearl millet genotype WGI 126.<br />

Multiple sequence alignment revealed that PgHSP17<br />

is 100% similar to a previously reported HSP17 from<br />

pearl millet (X94191.1) and 90% similar to maize<br />

HSP16.9 (ACG24656.1) at the amino acid level. This<br />

PgHSP17 sequence was submitted to NCBI GenBank<br />

(accession # JQ627835).<br />

5.1.1.3 High-affinity nitrate transporter from<br />

Brassica juncea (L.)<br />

High affinity nitrate transporters (HANTs)<br />

contribute to nitrogen use efficiency in plants. Towards


Expression of BjHANT in mustard roots (0.01, 0.02 and 5.0 = nitrate<br />

concentrations in mM; BjACT, RT-PCR control gene)<br />

the objective of developing wheat and mustard crops<br />

with constitutive HANT, we cloned a HANT gene from<br />

B. juncea that expresses at very low (0.01 mM) nitrate<br />

concentration. This HANT showed high homology to<br />

Arabidopsis AtNRT2.1, and hence it was named as<br />

BjNRT2.1 (GenBank # JQ305139.1).<br />

5.1.2 Development of Transgenic Plants<br />

5.1.2.1 Gladiolus ethylene receptor gene delays<br />

flower senescence<br />

Transgenic tobacco constitutively overexpressing<br />

gladiolus ethylene receptor GgERS1b gene under<br />

CaMV35S promoter was developed by using<br />

Agrobacterium-mediated genetic transformation.<br />

Physiological analysis on T 1 tobacco confirmed the<br />

ability of GgERS1b gene in delaying senescence. The<br />

transgenic lines showed higher photosynthetic rate,<br />

MSI, antioxidant enzymes activity and chlorophyll<br />

content, and lower levels of oxidative stress as<br />

compared to non-transformed wild type plants. Flower<br />

senescence was delayed by four days in transgenic<br />

tobacco as compared with wild type plants.<br />

5.1.2.2 Regeneration of soybean through somatic<br />

embryogenesis<br />

Three cultivars, namely, PI 542044, Sipani 104 and<br />

Sipani 192 were selected for evaluation of their capacity<br />

for somatic embryo differentiation and plantlet<br />

regeneration. The immature cotyledon explants (4-5<br />

mm) were cultured on embryo induction medium (pH<br />

7.0) comprising Murashige and Skoog (MS) salts, B5<br />

vitamins, 3% sucrose, 40 mg/l 2,4-D, gellan gum (0.2%).<br />

Sipani 104 gave the highest response (40.8%) followed<br />

by PI 542044 (28.7%) and Sipani 192 (20.5%).<br />

94<br />

Regeneration of soybean through somatic embryogenesis from<br />

immature cotyledons: a) primary somatic embryos (SE) from<br />

cotyledons; b) cluster of SE; c) SE in maturation medium; d) SE<br />

desiccation; e) germination of SE; and f) plantlet development<br />

Germinated embryos were transferred to plantlet<br />

conversion media. Sipani 104 exhibited highest<br />

conversion frequency (33.8%) when cultured on MS<br />

medium (pH 5.8) supplemented with B5 vitamins, 2%<br />

sucrose, 4 mg/l ABA and 0.2% AC. This efficient system<br />

of regeneration through direct somatic embryogenesis<br />

will be useful in genetic transformation.<br />

5.1.2.3 Development of low phytate soybean<br />

Development of low phytate soybean is important<br />

to enhance its nutritive value. The myo-inositol-3phosphate<br />

synthase (MIPS) is the key enzymes in<br />

phytate synthesis. Hence, to gain insight into phytate<br />

synthesis, expression profiles of MIPS family genes<br />

were studied in developing seeds and seedlings of<br />

soybean cv. Pusa 16 by using quantitative real-time RT-<br />

PCR. The MIPS1 expression was highest in the early<br />

developing cotyledons, while MIPS3 and MIPS4<br />

showed higher expression in flower and leaf tissues as<br />

compared with other tissues. This suggested that<br />

MIPS1 is the major gene involved in phytate<br />

accumulation in developing seeds. The full length<br />

cDNA of MIPS1 was cloned from soybean and<br />

sequenced.


Spatial and temporal expression pattern of MIPS family genes in<br />

soybean. Transcript levels were measured relative to the reference<br />

gene eEF-1�����<br />

For silencing MIPS1 gene in developing seeds,<br />

RNAi and antisense gene constructs were developed.<br />

The intron spliced hairpin (ihp) cassette of MIPS1 gene<br />

was cloned under a seed-specific VICILIN promoter in<br />

pBIN vector to develop RNAi vector. An antisense<br />

construct (pBIN-MIPS-AS) was also prepared cloning<br />

the full length MIPS1 in an antisense orientation under<br />

a seed specific-VICILIN promoter. For overexpression<br />

of phytase gene, the full length PHYTASE cDNA (1.6kb)<br />

was cloned under a seed-specific VICILIN promoter in<br />

the pAKVS vector. These three constructs were<br />

mobilized into Agrobacterium, and are being used for<br />

genetic transformation of soybean.<br />

5.1.2.4 VIGS-mediated modification of fatty<br />

acids enhances heat tolerance<br />

Cell membrane stability is one of the key<br />

components of high temperature stress tolerance. To<br />

study the effect of reduction in trienoic fatty acid (18:3)<br />

PSII yield in tobacco plants exposed to normal and high<br />

temperatures. Control: wild plants, Mock: vector control plants,<br />

and FAD7-VIGS: FAD7 silenced plants<br />

95<br />

in the cell membrane on thermotolerance, Fatty Acid<br />

Desaturase 7 (FAD7) gene was downregulated by using<br />

VIGS (Virus-induced gene silencing) method in<br />

tobacco. The FAD7 silenced plants exhibited marked<br />

reduction in linolenic acid (18:3) and increase in linoleic<br />

acid (18:2). These plants showed higher photosynthetic<br />

rate and PSII yield, and lower levels of H 2 O 2 content<br />

and membrane leakage than that of non-VIGS plants<br />

at 42°C heat stress. Thus, increasing the ratio of 18:2/<br />

18:3 fatty acids in membrane lipids can enhance<br />

membrane stability and heat tolerance of plants.<br />

5.1.3 Molecular Markers, QTLs and Gene<br />

Mapping<br />

5.1.3.1 Mapping of leaf rust resistance gene in<br />

wheat<br />

Leaf rust resistance gene Lr45 was mapped using<br />

molecular markers in two F 2 populations and validated<br />

in F 3 . Robust molecular markers designed and<br />

developed are at the final stage of validation. Similarly<br />

work is in progress to map stem rust resistance gene<br />

identified in bread wheat genetic stock WR95.<br />

5.1.3.2 Identification of polymorphic molecular<br />

markers in wheat<br />

Several SSR markers spanning different<br />

chromosomes were used to survey polymorphism in<br />

20 wheat genotypes with contrasting heat and drought<br />

tolerance, and 300 polymorphic markers were<br />

identified. These markers will be used for mapping<br />

drought and heat tolerance in mapping populations<br />

derived from these genotypes.<br />

5.1.3.3 Mapping of shrunken and sugary genes<br />

in maize<br />

Three F 2 populations of maize, namely, V390 x<br />

MGSU-201, V390 x MGSU-202 and V359 x MGSU-201<br />

were generated, and bulk segregant analysis (BSA) was<br />

carried out using SSR markers. The mgussr061 was<br />

identified as the effective marker with an average<br />

genetic distance of 0.8 cM from the sugary (su) gene.<br />

Linkage analyses in two F 2 mapping populations of<br />

normal × shrunken crosses (V334 × MGSH-101, and V364<br />

× MGSH-101) revealed that mgussr276 is closely linked<br />

to the shrunken2 (sh2) gene with an average genetic<br />

distance of 1.3 cM. Combination of mgussr061 and


mgussr276 holds promise for stacking su1 and sh2 genes<br />

in MAS breeding.<br />

5.1.3.4 SNP genotyping of maize mini-core<br />

An association mapping panel consisting of 240<br />

maize genotypes was genotyped using Illumina SNP<br />

array with 56000 SNPs. The SNPs were distributed all<br />

over the maize genome and covered all chromosomes<br />

uniformly. Each of these 240 inbreds was genotyped at<br />

56000 SNP loci and about 134,400,000 SNP data were<br />

generated. This genotypic resource will be useful for<br />

association mapping of genes for various agronomics<br />

traits.<br />

Chromosome-wise haplotypes and minor allele frequency<br />

extracted from genome-wide SNPs in maize<br />

5.1.3.5 Tagging of black rot resistance in<br />

cauliflower<br />

F 2 mapping population derived from a cross<br />

between Pusa Sharad (susceptible to black rot and<br />

downy mildew) x BR-207 (resistant to black rot and<br />

downy mildew) was phenotyped for black rot<br />

resistance and genotyped with RAPD markers. The<br />

RAPD 04 833 marker was found to be closely linked<br />

(1.6 cM) to black rot resistance gene.<br />

5.1.3.6 Tomato leaf curl New Delhi virus<br />

(ToLCNDV) resistance<br />

Tomato. Sixteen genotypes of wild relatives of<br />

tomato including S. pimpinellifolium, S. peruvianum and<br />

S. habrochaites were evaluated for ToLCNDV resistance.<br />

Genotypes LA 1777, EC 368644-3 and EC 379243-2 were<br />

identified as ToLCNDV resistant, and were used to<br />

develop inter specific crosses. A SCAR marker, TGO<br />

96<br />

302, was found to be linked to TY-2 locus introgressed<br />

from S. habrochaites for resistance to ToLCNDV. The P6-<br />

6 SCAR marker was validated for resistance conferred<br />

by TY1 locus which was introgressed from S. Chilense.<br />

The degree of resistance conferred to ToLCNDV by TY1<br />

is higher than that of TY2 locus.<br />

Cucurbits. Sponge gourd (Luffa cylindrica Roem.)<br />

genotypes were screened for resistance to ToLCNDV<br />

by both natural epiphytotic and challenge inoculation<br />

experiments. DSG 6, an advanced inbred breeding line,<br />

was found to be resistant to ToLCNDV. Inheritance<br />

study in F 2 and backcross (B 1 and B 2 ) populations of a<br />

cross between DSG 6 and Pusa Sneha (susceptible)<br />

revealed that ToLCNDV resistance is conferred by a<br />

single dominant gene. Two SRAP (sequence-related<br />

amplified polymorphism) markers closely linked to<br />

ToLCNDV susceptibility and two SRAP markers<br />

closely linked to ToLCNDV resistance were identified.<br />

These SRAP markers will be useful in the MAS<br />

breeding of ToLCNDV resistance.<br />

5.2 BIOCHEMISTRY<br />

5.2.1 Heat Stress Affects Starch Granule<br />

Formation in Wheat<br />

High temperature adversely affects starch<br />

biosynthesis in the endosperm and thus, reduces grain<br />

quality and yield in wheat. Electron microscopic studies<br />

showed that thermotolerant cv. C306 maintained high<br />

number of endosperm cells with bold and well defined<br />

starch granules, while thermosensitive cv. PBW343 had<br />

(A) (B)<br />

(C) (D)<br />

Scanning electron micrograph of endosperm in developing wheat<br />

seeds: Morphology of starch granules in C 306 (A) and PBW 343<br />

(C) under normal temperature; morphology of starch granules in<br />

C 306 (B) and PBW 343 (D) under 40°C heat stress


less number of endosperm cells with small, nonspherical<br />

and loosely packed granules.<br />

5.2.2 Reduction of Off-flavor in Soybean<br />

5.2.2.1 Identification of off-flavor causing<br />

volatiles in soybean<br />

The volatile compounds produced by lipoxygenase<br />

(LOX) impart off-flavor to soybean. To identify these<br />

volatile compounds, a Solid-phase Micro-Extraction<br />

and Gas Chromatography Mass Spectrometry analysis<br />

was carried out in three substrate combinations with<br />

high, medium and low poly unsaturated fatty acids<br />

(PUFA) ratios mimicking the natural variation. Eleven<br />

volatile compounds predominantly comprising of short<br />

chain aldehydes, ketones and their alcoholic<br />

counterparts were identified. An inverse relationship<br />

was found between PUFA ratios and hexanal to trans-<br />

2-hexenal ratios. Three LOX isozymes were purified<br />

to 105-fold with the help of ammonium sulphate<br />

precipitation followed by Sephadex-G-150, DEAE-<br />

Cellulose and DEAE-Sephacel column purification.<br />

This purified LOX isozymes are being used for<br />

studying the inhibitory effect of natural antioxidants<br />

from soybean, namely, isoflavonoids, �-tocopherol and<br />

ascorbic acid.<br />

5.2.2.2 Storability of soybean seeds correlates<br />

with LOX enzymes<br />

Fourteen soybean genotypes differing in seed<br />

viability were analyzed for LOX and hydroperoxide<br />

lyase (HPL) enzyme activities. Good storer genotypes<br />

exhibited significantly lower isozymes of LOX (L1, L2<br />

and L3) and HPL activities than the poor storer<br />

genotypes. This observation was validated by<br />

determining the total antioxidant potential, antioxidant<br />

enzyme status, fatty acid profiling, and the oxidation<br />

determining parameters of these good and poor storer<br />

seeds.<br />

5.2.2.3 Gamma-radiation suppresses off-flavor in<br />

soybean<br />

Three different doses (0.25, 0.5 and 1.0 KGy) of �radiation<br />

treatments on off-flavor generation in soybean<br />

revealed that �-radiation treatment significantly<br />

enhanced anthocyanin content in dark-seeded soybean<br />

varieties BS 1 and BR 2, but not in yellow seeded<br />

97<br />

soybeans. In �-radiation treated dark-seeded soybeans,<br />

reduction in off-flavor was associated with a decrease<br />

in the LOX activity, thiobarbituric acid number and<br />

carbonyl value. The results suggested that �-radiation<br />

induced increase in anthocyanins play a major role in<br />

controlling off-flavor generation in soybean.<br />

5.3 PLANT PHYSIOLOGY<br />

5.3.1 Physiological Basis of Crop Yield<br />

5.3.1.1 Genotypic variation for P-deficiency<br />

induced organic acids secretion in green gram<br />

Organic acids (OAs) exuded from roots help<br />

solubilize non-available P in the soil, and thus, enhance<br />

P uptake efficiency of plants. Genotypic variations for<br />

OAs exudation from the roots of green gram genotypes<br />

were evaluated in low (2 mM) and sufficient (100 mM)<br />

P conditions in hydroponics for 15 days at National<br />

Phytotron Facility, IARI. Plants were treated with 14 CO 2<br />

and the total exudation was assessed by the quantity<br />

of 14 C in the rhizosphere. Significant genotypic variation<br />

was obtained for OAs exudation from roots. OAs<br />

released from the roots mainly consisted of oxalic and<br />

citric acids, while high concentrations of oxalic, succinic<br />

and lactic acids were present in the root apices. Among<br />

the 44 genotypes, PDM 139 produced highest oxalic<br />

acid (5092.5 �g g -1 root FW) at low P conditions.<br />

5.3.1.2 Catalytic efficiencies of soluble starch<br />

synthases from maize and wheat<br />

Previously we have shown that developing grains<br />

of maize have a 3-4 fold higher activity of soluble starch<br />

synthases (SSS) as compared to wheat under normal as<br />

well high temperature stress. Further, the kinetics of<br />

SSS enzyme from developing grains of maize (HQPM7<br />

and HM10) and wheat (T. aestivum cv. HD 2987 and<br />

T. durum cv. HD 4719) were compared. Maize SSS<br />

Kinetic properties of soluble starch synthases from wheat<br />

and maize grains<br />

Genotype V max [nmol mg -1 K m for V max /K m<br />

(protein) min -1 ] ADPG (mM)<br />

T. aestivum cv. HD 2987 17.20 0.56 30.71<br />

T. durum cv. HD 4719 22.60 0.54 41.85<br />

Z. mays HQPM 7 28.00 0.40 70.00<br />

Z. mays HM 10 38.00 0.30 126.66


showed a lower K m , higher V max and thus higher<br />

catalytic efficiency (V max /K m ) as compared with wheat<br />

SSS.<br />

5.3.1.3 Identification of wheat genotypes with<br />

contrasting nitrogen use efficiency (NUE)<br />

A set of 110 wheat genotypes were evaluated for<br />

NUE under zero N (N 0 ) and 120 kg N (N 120 ) application<br />

treatments in the field conditions. The recommended<br />

fertilizer dose of 120:60:40 kg NPK/ha, respectively, was<br />

applied in N 120 treatment. Significant differences in<br />

biomass and yield components were found among<br />

genotypes. PBW 347 and Stretton produced the<br />

maximum biomass, while Bevy1 (Med) produced the<br />

lowest shoot biomass. In terms of relative change in grain<br />

yield at N 0 over N 120 , Lira and Bevy1 (Med) recorded<br />

the maximum and minimum grain yield, respectively.<br />

Out of 110 genotypes, 23 were categorized as N efficient<br />

at N 0 , while 17 were categorized as inefficient.<br />

5.3.1.4 Storability of magnetoprimed cucumber<br />

seeds<br />

Storability of primed seed is important in<br />

determining the time lag between priming and sowing<br />

of seeds in the farmer’s field. Hence, the storage<br />

potential of magnetoprimed (200 mT, 1h static magnetic<br />

field) seeds of cucumber cv. Barsati was evaluated by<br />

subjecting them to accelerated ageing (45 ° C, 100% RH).<br />

After six days of ageing, primed seeds showed<br />

significant decline in germination and vigor index as<br />

compared to unprimed seeds. Faster aging of primed<br />

seeds was associated with higher H 2 O 2 levels, lower<br />

levels of ROS scavenging peroxidases and enhanced<br />

loss of membrane integrity. This study suggests that<br />

primed seeds should be sown without delay to harness<br />

the benefits of magnetopriming.<br />

5.3.2 Physiological Basis of Abiotic Stress<br />

Tolerance<br />

5.3.2.1 Role of heat shock proteins in high<br />

temperature tolerance of wheat<br />

The role of heat shock proteins (HSPs) and heat<br />

shock transcription factors (HSFs) in high temperature<br />

tolerance was examined in wheat cultivars, namely,<br />

Halna, DBW 14 and HD 2687 under pot culture<br />

conditions. Based on the heat susceptibility index of<br />

98<br />

RT-PCR expression analysis of HSFA4a, HSP17.3 and HSP101c genes<br />

in wheat (M1: 100bp DNA marker; C: 25/15°C day/night<br />

temperatures; T1 and T2 are 40/35°C day/night temperatures for 24<br />

and 48h, respectively; and M2: 1kb DNA marker)<br />

grain yield HD 2687 was classified as heat susceptible<br />

as compared with Halna and DBW 14. To study the<br />

expression of HSPs and HSFs, plants were raised in<br />

NPF, IARI in a temperature regime of 25/15 °C day/<br />

night temperature (control). Heat stress treatment was<br />

given at vegetative and anthesis stages by subjecting<br />

plants to 40/35 °C day/night temperature for 24 or 48h.<br />

Heat stress inducible expression of HSFA4a and HSPs<br />

were significantly higher in heat tolerant Halna and<br />

DBW 14 as compared with heat sensitive HD 2687.<br />

5.3.2.2 Development of high throughput<br />

methods for drought phenotyping<br />

Non-availability of real-time, high throughput and<br />

non-destructive methods for quantification of relative<br />

water content (RWC) is one of the major bottlenecks in<br />

phenotyping for drought tolerance. To develop<br />

hyperspectral signature-based high throughput<br />

method to quantify RWC, hyperspectral signatures,<br />

excised leaf water loss and RWC were analyzed in 18<br />

Relationship between continuum removal factor (CR ����� ) and RWC<br />

in rice under laboratory conditions


ice genotypes. Reflectance, band depth and continuum<br />

removal factor (CR � ) at 1450 and 1930nm showed very<br />

high and significant correlation with RWC. The CR �<br />

was identified as the best method to determine RWC<br />

in rice under lab conditions.<br />

5.3.2.3 Chemical growth regulators to mitigate<br />

abiotc stress effects in crops<br />

To understand the mechanisms of cytokinin (CK)<br />

mediated drought tolerance, the effect of foliar spray<br />

of synthetic CK, 6-benzylaminopurine (BAP, 40 �M)<br />

was examined in wheat cultivars C 306 and PBW 343<br />

under drought stress. Drought stress significantly<br />

reduced RWC, MSI, chlorophyll and carotenoid<br />

contents, photosynthesis rate, stomatal conductance,<br />

photochemical efficiency and total starch content.<br />

Drought stress also decreased the activities of nitrogen<br />

assimilation pathway enzymes but enhanced protease<br />

activity. Foliar spray of BAP significantly reduced these<br />

adverse effects of drought, and thus enhanced the yield<br />

stability.<br />

Exogenous application of salicylic acid (10 mM)<br />

also enhanced the yield stability of wheat cv. C 306 and<br />

HD 2687 due to delay in drought-induced leaf<br />

senescence, stabilization of photosynthesis and nitrate<br />

reductase activity under drought. Similarly, a field trial<br />

with chickpea var. Pusa 372 showed that foliar spray<br />

of BAP (40 ppm) with tannic acid (50 ppm) enhanced<br />

yield (> 15%) under both rainfed and irrigated<br />

conditions due to improved membrane stability, water<br />

relations, nitrate reductase activity, and photosynthesis.<br />

5.3.3 Post-harvest Physiology<br />

5.3.3.1 Cold induced sweetening in potato<br />

Cold-induced sweetening (CIS) in potato is caused<br />

by accumulation of reducing sugars during cold<br />

storage. Reducing sugars react with asparagine to yield<br />

acrylamide during fries and chips making. To<br />

understand the molecular basis of genotypic difference<br />

in CIS, expression analysis of genes involved in<br />

asparagine synthesis and reducing sugar accumulation<br />

was carried out in potato tubers stored at room<br />

temperature, 4°C and 12°C for 30 and 60 days. CIS<br />

resistant Kufri Chipsona 2 showed relatively less<br />

expression of AS1 (asparagine synthetase 1) gene<br />

specifically under cold storage. Further, Kufri Chipsona<br />

99<br />

RT-PCR expression analysis of genes involved in CIS in potato.<br />

The 18S rRNA gene was used as RT-PCR control<br />

2 showed high expression of UDP-glucose<br />

pyrophosphorylase (UGP, involved in diversion of<br />

sugars to glycolytic pathway) and low expression of<br />

vacuolar invertase (INV, involved in hydrolysis of<br />

sucrose into reducing sugars) genes under cold storage.<br />

Thus, CIS tolerance of Kufri Chipsona 2 was associated<br />

with low expression levels of AS1 and INV (Vacuolar<br />

Invertase), and high expression of UGPase genes as<br />

compared with CIS sensitive Kufri Khanchan during<br />

cold storage.<br />

5.3.3.2 Change in mineral composition during<br />

fruit ripening in tomato<br />

Changes in the endogenous levels of mineral<br />

nutrients were analyzed during ripening of tomato<br />

fruits after harvest. With the progress of ripening, P, K,<br />

Fe, Zn and Cu content in the outer pericarp of tomato<br />

fruits increased, while Mg, Ca, B and Mn contents<br />

remained the same. This indicated remobilization of<br />

nutrients within the tomato fruits from inner parts to<br />

the outer pericarp. The relationship between<br />

redistribution of different nutrients and shelf-life is<br />

being investigated.<br />

5.3.4 Strategies for Development of Climate<br />

Resilient Crops<br />

5.3.4.1 Phenotyping for high temperature<br />

tolerance in rice<br />

Heat tolerance of 71 rice genotypes (including<br />

Nagina 22 as a check) was evaluated in the field<br />

conditions during summer season. The air temperature<br />

during vegetative stage was above 40 o C. Only 33<br />

genotypes survived and reached flowering. Maximum<br />

day temperature during the flowering ranged from 32


to 44 o C, which is approximately 10 o C higher than the<br />

optimum temperature for anthesis. Genotypes were<br />

raked based on spikelet fertility and grain yield per<br />

hill. NERICA-L 44 was identified as the most heat<br />

tolerant genotype based on survival percentage,<br />

spikelet fertility (85%), 1000 - grain weight and grain<br />

yield. The grain quality of Nerica-L 44 was the best<br />

among the genotypes evaluated under high<br />

temperature stress. Thus, Nerica-L 44 can be used for<br />

introgression of thermotolerance to develop climate<br />

change resilient rice cultivars.<br />

Effect of high temperature on grain cooking quality of rice<br />

genotypes<br />

Genotypes Amylose % Head % Chalky Alkali<br />

% recovery grains spreading<br />

value<br />

Nerica-L 5 28.7 57.93 76.7 3.33<br />

Nerica-L 22 27.6 48.83 33.3 2.67<br />

Nerica-L 23 28.3 55.50 15.9 1.67<br />

Nerica-L 25 27.7 50.48 27.8 2.33<br />

Nerica-L 44 26.2 66.26 12.6 1.67<br />

Nerica-L 57 28.1 59.53 32.9 2.67<br />

N 22 28.6 50.73 36.4 2.00<br />

IR 6 27.7 63.38 48.5 5.67<br />

5.3.4.2 Physiological analysis of drought<br />

tolerance in wheat<br />

Wheat RIL population derived from C 306 and WL<br />

711 were evaluated under drought stress at tillering<br />

and post anthesis stage. Grain number, 1000 grain<br />

weight and drought susceptibility index showed high<br />

heritability and significant correlation with yield under<br />

drought stress. Eight RILs that performed better than<br />

C 306 were identified for high yield and stability with<br />

good grain quality under drought stress.<br />

5.4 GENETICS<br />

5.4.1 Wheat<br />

5.4.1.1 Genetics of fertility restoration<br />

Mode of inheritance of fertility restorer gene(s) for<br />

T type (T. timopheevi Zhuk.) sterile cytoplasm in wheat<br />

(T. aestivum L.) was studied in fertility restorer lines<br />

100<br />

EC368169 and T2003R. The segregation pattern of F 2<br />

and BC 1 segregants in to fertile and sterile classes<br />

revealed that both the restorer lines carried a single<br />

dominant gene for fertility restoration. However, the<br />

frequency distribution of plants for pollen fertility and<br />

seed set in the F 2 indicated that fertility restoration is<br />

affected by modifiers.<br />

5.4.1.2 Stripe rust resistance<br />

Genetic analysis of parents, F 1 , F 2 , and back cross<br />

generations of wheat crosses viz., HS 240/FLW 13, HS<br />

295/FLW 13 and HS 420/FLW 13 revealed the presence<br />

of single dominant gene in the genetic stock FLW 13<br />

for resistance against stripe rust pt. 46S119. The BC 1<br />

seedlings of test crosses, namely, HS 240/FLW 13//HS<br />

240, HS 295/ FLW 13//HS 295, and HS 420/ FLW 13//HS<br />

420 were inoculated with a mixture of stripe rust 46S119<br />

and 78S84 pathotypes. These plants showed 1:1<br />

segregation for resistance and susceptibility indicating<br />

that the stripe rust resistance gene is contributed by<br />

the genetic stock FLW 13.<br />

5.4.2 Rice<br />

5.4.2.1 Mapping QTLs for grain dimension in<br />

basmati rice<br />

An F 2 population consisting of 300 individuals was<br />

developed by crossing a short grain aromatic landrace<br />

Sonasal with Pusa Basmati 1121, an extra long grain<br />

variety with very high elongation ratio (ER), and used<br />

for QTL mapping of grain dimension traits such as<br />

grain length (GL), grain breadth (GB), cooked kernel<br />

length (CKL) and ER. The phenotype of the segregating<br />

individuals ranged from 3.63-8.01 mm for GL, 1.60-2.40<br />

mm for GB, 1.79-4.70 mm for L/B ratio, 5.76-15.23 mm<br />

for CKL and 1.00-2.30 for ER. Based on linkage map of<br />

154 microsatellite markers, a total of 24 QTLs were<br />

mapped on 6 different chromosomes including 4 QTLs<br />

for GL and 7, 5, 4 and 4 each for GB, L/B ratio, CKL and<br />

ER, respectively, explaining phenotypic variance<br />

ranging from 9.4 to 65%. In addition, 4 QTLs were<br />

identified for grain weight.<br />

5.4.2.2 Fine mapping of QTLs for grain number<br />

in rice<br />

Previously we have mapped a QTL for grains per<br />

panicle between RM3276 and RM5709 marker interval.


To fine map this QTL, a trait performance based NILs<br />

(TP NIL) were developed by crossing two QTL NILs<br />

with a mean grains per panicle of 373 and 150. Among<br />

these F 2 individuals, grains per panicle ranged from<br />

95 to 435, showing uniform segregation among the<br />

individuals. A set of 324 recombinants were<br />

genotyped using five polymorphic markers in the<br />

mapped QTL region that narrowed down the QTL to<br />

a 30 kb region.<br />

5.4.3 Maize<br />

P 1 P 2 F 2 Plants<br />

Variation in spikelets per panicle among the contrasting grain<br />

number QTL NILs and their F 2 progenies<br />

5.4.3.1 Genetic diversity of genotypes with varied<br />

waterlogging tolerance<br />

A set of 24 inbred lines with diverse pedigree and<br />

water logging tolerance were assessed for genetic<br />

diversity using SSRs. The genetic similarity coefficient<br />

varied from 0.23 to 0.53, exhibiting diverse nature of<br />

the pedigree of the inbred lines. Among 56 SSR markers<br />

analyzed, umc1552 had the highest PIC value of 0.88,<br />

while it was 0.79 and 0.78 for bnlg1014 and umc219,<br />

respectively. Cluster analysis differentiated the 24<br />

diverse genotypes into four major clusters. Among the<br />

genotypes, HKI1105 was found to be completely distant<br />

pedigree as compared with other inbreds. Based on the<br />

phenotypic response and genetic distance, crosses<br />

among the highly tolerant inbreds such as LM16 ×<br />

Pant1393, LM16 × HKI1105, LM16 × CML425, Pant122<br />

× Pant 1393, Pant122 × HKI1105, Pant122 × CML425 and<br />

HKI1105 × CML425 are selected for testing under<br />

multiple locations.<br />

101<br />

5.4.3.2 Phenotyping for water-logging tolerance<br />

A set of 264 diverse maize inbred lines were<br />

evaluated for waterlogging tolerance in field conditions<br />

during kharif <strong>2011</strong>. At pre-flowering stage (10-12 days<br />

before flowering), waterlogging was imposed by<br />

stagnating the field with 10 cm depth of water<br />

continuously for 10-12 days. Based on the last two years<br />

evaluation in both ‘cup’ and ‘field’ based screening<br />

methods, inbreds CML425, CA00106 and HKI1105<br />

were identified as highly tolerant, while inbreds<br />

CM212, V360, V364 and CM140 were identified as the<br />

highly susceptible to waterlogging. A set of 16 different<br />

cross combination were made during kharif 2010 at<br />

IARI, Delhi and F 1 s of these cross combinations were<br />

selfed to generate F 2 seeds, and three selected mapping<br />

populations were forwarded to generate F 3 .<br />

Contrasting phenotypic responses of inbred lines under waterlogging<br />

stress<br />

5.4.4 Mapping Population for Agronomic<br />

Traits in Pearlmillet<br />

Five mapping populations, namely, PPMI 683 ×<br />

PPMI 627, 5054 × TPR 14, 5141 × TPR 14, PPMI 627 ×<br />

PPMI 813 and PPMI 813 × 15040 for high iron and zinc<br />

content and spike thickness were advanced.<br />

5.4.5 Diversity Analysis of Chickpea Wild<br />

Species<br />

Thirty STMS markers were used to dissect the<br />

genetic diversity and relationship of 14 wild and one<br />

cultivated accessions of chickpea. These STMS markers<br />

generated an average 3.433 amplicons/marker.<br />

Polymorphic Information content (PIC) ranged from


0.246 to 0.775 and genetic similarity between cultivars<br />

ranged from 0.10 to 0.77. Dendrogram constructed with<br />

STMS marker data showed 4 distinct clusters.<br />

5.4.6 Aluminium Tolerance of Mungbean<br />

Thirty six genotypes were evaluated for aluminium<br />

(Al) tolerance during seedling stage at 0, 2 and 5 mg/l<br />

Al levels in hydroponics. The tolerance was determined<br />

on the basis of root length, shoot length, dry weight of<br />

roots and shoots, score of root staining and root regrowth<br />

after staining. Ricebean (V. unguiculata)<br />

exhibited the highest tolerance followed by urdbean<br />

and mungbean. Efforts are being made to transfer Al<br />

tolerance from ricebean and urdbean to mungbean by<br />

interspecific hybridization.<br />

5.4.7 Genetic Diversity of A, B and R Lines<br />

and Tagging of MFR Genes in Pigeonpea<br />

Eight A lines (2 with A 4 cytoplasm and 6 with A 2<br />

cytoplasm), two B lines and 19 R lines were genotyped<br />

with 390 EST-SSR markers. Parental combinations,<br />

ICPA2047 and ICPR2740, ICPA2043 and ICPR3472,<br />

ICPA2043 and ICPR4013, MS10A and AKPR9, MS10A<br />

and AKPR100, and GT288A and AKPR417 were<br />

identified as most divergent.<br />

Linkage group carrying male fertility restorer<br />

(MFR) gene was identified in pigeonpea. One SSR<br />

marker linked with MFR gene was identified. Studies<br />

on inheritance of MFR gene revealed that two<br />

complementary genes control MFR in 3 crosses, and a<br />

single dominant gene in other 4 crosses.<br />

5.4.8 Brassicas<br />

5.4.8.1 Nylon-net cover for maintenance breeding<br />

Nylon nets were used to cover the plants to<br />

prevent bee activity in the field, and the effect of<br />

selfing/open pollination under the net was evaluated.<br />

No significant change in erucic acid content was<br />

observed between base material, and selfed and open<br />

pollinated plants grown under nets upto two cycles<br />

of maintenance breeding. However, significant<br />

increase in erucic acid was observed after first and<br />

second cycles of open pollination. This study suggests<br />

that maintenance breeding of Brassica varieties can be<br />

102<br />

carried out by checking the bee activity in seed plots<br />

through nylon nets even when sufficient isolation is<br />

not available.<br />

5.4.8.2 Identification of ‘0’ and ‘00’ genotypes and<br />

development of RILs<br />

A total of 2194 plants in two BC 3 populations were<br />

genotyped for glucosinolate and erucic acid, and 55<br />

backcrosses were made. These 55 BC 3 F 1 s were<br />

advanced to BC 3 F 2 . For development of ‘0’ and ‘00’<br />

breeding lines, erucic acid content was evaluated in<br />

7700 lines. About 1840 single plants with low erucic<br />

acid content (


Dendrogram based on UPGMA analysis of 48 mango hybrids using<br />

SSR markers (P = Pusa)<br />

5.5 AGRICULTURAL PHYSICS,<br />

REMOTE SENSING AND GIS<br />

5.5.1 Estimation of Crop Coefficients and<br />

Evapotranspiration of Wheat<br />

A field water balance approach was used to quantify<br />

crop evapotranspiration (ET) in wheat cultivars (DBW<br />

17, PBW 502, and HD 2987) under adequate (6 cm each<br />

irrigation) and limited (4 cm each irrigation) irrigations.<br />

Leaf area index (LAI) was monitored by using thermal<br />

reflectance. Basal crop coefficient (K cb ) showed very high<br />

correlation with LAI. Hence, LAI measured with<br />

vegetation indices can be useful for quantification of<br />

transpiration and light absorption. Soil adjusted<br />

vegetation index (SAVI) showed a linear response to<br />

K cb , and also did not saturate until LAI reached to 4.5,<br />

while normalized difference vegetation index (NDVI)<br />

103<br />

saturated at LAI 3.5. Thus, SAVI has significant potential<br />

for irrigation scheduling over large areas, especially<br />

with the availability of high resolution earth observation<br />

satellite data.<br />

5.5.2 Effect of Increase in Temperature on<br />

Evapotranspiration in Wheat<br />

The effect of elevated temperature on ET c in wheat<br />

was studied using a temperature gradient tunnel.<br />

Elevated temperature increased the rate of water<br />

depletion from the root zone and ET c by 16.7% and<br />

18.4%, respectively. To estimate the crop water<br />

requirement (CWR), a long-term weather data (1984<br />

to 2010) of IARI were analyzed using ARIMA model.<br />

IPCC-SRES of HADCM3 global climate model<br />

scenarios were used to calculate the potential<br />

evapotranspiration in 2020-21 and 2050-51. The CWR<br />

and net irrigation requirement are predicted to decline<br />

in under increased temperatures by 4-7% in 2020-21<br />

and 6-17% in 2050-51 due to temperature stress induced<br />

reduction in crop phenophases.<br />

5.5.3 Soil Water and Nitrogen Deficits Affect<br />

Water and Nitrogen Use Efficiencies in Wheat<br />

The effect of soil water and nitrogen deficits on<br />

water use efficiency (WUE) and nitrogen use efficiency<br />

(NUE) of wheat (HD 2932) were quantified by<br />

developing stress factor for water (SFW) and stress<br />

factor for nitrogen (SFN) under semi-arid conditions.<br />

Water deficit stress up to18% improved WUE as well<br />

as NUE with no significant yield loss, suggesting that<br />

an 18% reduction in the recommended water<br />

application is useful to improve both WUE and NUE.<br />

Further, “WUE Predictor” software was developed to<br />

predict WUE of wheat under water deficit stress.<br />

5.5.4 Hyporheic Zone Groundwater Potential<br />

in Yamuna Flood Plains and Recharge in<br />

Northern India<br />

Conservation of flood water in the hyporheic<br />

ground water (GW) in the flood plains can help manage<br />

flood. Water dynamics model was developed using 18 O<br />

and 2 H isotope signatures of the rainfall, GW and river<br />

water, and seepage to hyporheic zone was estimated<br />

as ~ 83-97 MCM and GW recharge potential 160 MCM.<br />

The recharge potential in Punjab, Haryana, Delhi and


Rajasthan is assessed to be 14800 + 2500 m 3 /year which<br />

is less than withdrawal, making GW vulnerable.<br />

5.5.5 Nuclear Magnetic Resonance<br />

Technique for Assessing Drought Tolerance<br />

of Wheat<br />

The pulsed NMR measurements of longitudinal<br />

relaxation time (NMR-T 1 ) and transverse relaxation<br />

time (NMR-T 2 ) were used to characterize drought<br />

tolerance of wheat genotypes. Significant correlation<br />

between NMR-T 1 and leaf water status (relative water<br />

content, leaf water potential, osmotic potential and<br />

moisture content) was observed at 8 th leaf stage. NMR-<br />

T 1 was found to be better than NMR-T 2 for<br />

characterizing drought tolerance. Further, in another<br />

set of 44 wheat genotypes, significant correlation was<br />

found between NMR-T 1 and yield reduction under<br />

drought. Thus, NMR-T 1 techniques can be used as nondestructive<br />

and high throughput technique to assess<br />

drought tolerance of wheat.<br />

5.5.6 Hyperspectral Indices to Estimate Grain<br />

Protein and Yield in Wheat<br />

Wheat crop was grown with 4 different<br />

irrigation levels (0.4, 0.6, 0.8 and 1.0 IW/CPE) and 3 N<br />

management strategies (120 kg/ha as urea, 60 kg/ha as<br />

urea + 60 kg/ha as FYM and 120 kg/ha as FYM) and the<br />

hyperspectral signatures were recorded at seven<br />

phenophases (CRI, tillering, booting, flowering,<br />

milking, soft dough and harvesting) in wheat. The<br />

correlation between the water deficit stress, spectral<br />

indices and the grain yield showed that at all the growth<br />

stages the grain yield was significantly and negatively<br />

correlated with these spectral indices, with the highest<br />

correlation at the milk stage. Further, green normalized<br />

difference vegetation index (GNDVI) at milking stage<br />

Regression between grain yield and spectral indices in wheat<br />

Parameters Regression equations R 2<br />

WI (R 970 /R 900 ) Y = 32667 – 32055.7 (WI) 0.91**<br />

NWI-1 [(R 970 – R 900 )/(R 970 + R 900 )] Y = 712.7 – 58686.5 (NWI-1) 0.91**<br />

NWI-2 [(R 970 – R 850 )/(R 970 + R 850 )] Y = 1009.5 – 544220.1 (NWI-2) 0.87**<br />

NWI-3 [(R 970 – R 920 )/(R 970 + R 920 )] Y = 624.8 – 62976.1 (NWI-3) 0.91**<br />

NWI-4 [(R 970 – R 880 )/(R 970 + R 880 )] Y = 798.9 – 54598.2 (NWI-4) 0.89**<br />

104<br />

showed highest correlation with grain yield (y = 10016x<br />

– 2512.6; R 2 = 0.94) and grain protein concentration<br />

(y = 14.80x + 0.752; R 2 = 0.81).<br />

5.5.7 Evaluation of Natural Resources and<br />

Potential <strong>Agricultural</strong> Productivity<br />

Geospatial techniques were used to generate spatial<br />

and temporal patterns of land use change in the Meerut,<br />

Muzaffarnagar and Saharanpur districts of western<br />

Uttar Pradesh. The <strong>Indian</strong> satellite imageries showed a<br />

shift of land from agricultural to non-agricultural uses<br />

to the tune of 4.41%, of which conversion of agricultural<br />

land to built-up area was 2.89% during 1998-2008. GIS<br />

was used to capture the spatial patterns of soil and<br />

rainfall characteristics and integrated them into 38<br />

homogeneous agroecological classes, which were<br />

further classified in to 417 land units and yield gap for<br />

major crops was calculated for these land units. Yield<br />

gaps ranged between 3.87 to 6.64 t/ha in rice, 2.85 to<br />

4.89 t/ha in wheat, 4.09 to 6.02 t/ha in maize and 30 t/ha<br />

in sugarcane. This will help develop strategies to reduce<br />

yield gap in these land units.<br />

5.5.8 Red Edge Technique for N Stress<br />

Monitoring in Wheat<br />

Hyperspectral remote sensing data from wheat<br />

plants grown at different nitrogen levels revealed that<br />

stressed plants have higher reflectance in the red region<br />

as compared with non-stressed plants. The change in<br />

reflectance per unit change in wavelength (slope) in<br />

red to NIR region (called red edge) showed high<br />

Spectral reflectance of wheat crop and REV at different N stress<br />

levels in wheat


correlation with level of N stress in plant. The<br />

wavelength corresponding to maximum slope is called<br />

red edge position (REP) and the slope value is called<br />

red edge value (REV). REP shows blue shift in N<br />

stressed plants, while it shows red shift in healthy<br />

plants. Both REP and REV showed positive correlation<br />

with N stress levels and thus, can be used as non<br />

destructive in situ measurement of N stress in crop for<br />

site specific N management in wheat.<br />

5.5.9 Effect of Source and Sensor Geometry<br />

on Spectral Reflectance of Crops<br />

Effect of relative position of light source and sensor<br />

(i.e., zenith and azimuth angle) on reflectance of soybean<br />

crop was studied using a goniometer to find out the best<br />

sensor position relative to sun’s position. Bidirectional<br />

reflectance of soybean was measured keeping the<br />

spectroradiometer in varying zenith and relative<br />

Goniometer with spectroradiometer for bidirectional reflectance<br />

measurement in soybean field<br />

105<br />

azimuth conditions. A polar plot with varying zenith<br />

and azimuth position of sensor revealed that highest<br />

reflectance is obtained at relative azimuth 0° and 40°<br />

sensor zenith position, and around 40° sun’s position.<br />

This position is called hotspot position. Comparison of<br />

measured spectra at hot spot and simulated reflectance<br />

spectra from radiative transfer model (PROSAIL)<br />

showed that the hot spot position was the best position<br />

to measure hyperspectral reflectance, and retrieve leaf<br />

area index. Thus, the senor and source geometry plays<br />

important role in remote sensing, and there by crop<br />

parameters estimated from the sensor.<br />

5.5.10 Assessment of <strong>Agricultural</strong><br />

Vulnerability to Climate Change in Indo-<br />

Gangetic Plains<br />

Indo-Gangetic plains comprising the states of<br />

Punjab, Haryana, Uttar Pradesh, Bihar and West<br />

Bengal was studied for the agricultural vulnerability<br />

to climate change using the three core components,<br />

namely, exposure to hazards, sensitivity to climate<br />

change and adaptive capacity. Eight indicators were<br />

computed using meteorological data of 1951-2009.<br />

Sensitivity was computed from six indicators based<br />

on crop and soil characteristics, and adaptive capacity<br />

was calculated based on socioeconomic indicators of<br />

agricultural technology, infrastructure and human<br />

development. The indicators were ranked and their<br />

weights were computed using multi-criteria decision<br />

making analytic hierarchal process technique. The<br />

Sheohar, Sitamarhi, Madhubani and Purba<br />

Champaran districts of Bihar and Shrawasti districts<br />

of UP were found the most vulnerable to climate<br />

change in Indo-Gangetic plains.


6. SOCIAL SCIENCES AND TECHNOLOGY TRANSFER<br />

The School of Social Sciences continued to focus its research on current issues of national importance in the<br />

areas of agricultural economics, extension and technology dissemination, transfer and assessment. Policy options<br />

for inclusive agricultural growth, regional trade, agricultural investments, energy use and development of nonfarm<br />

sector were some areas in which economic analysis was undertaken. <strong>Research</strong> in the area of extension<br />

focused on assessing extension strategies and developing innovative and alternative approaches besides conducting<br />

research on entrepreneurship development. Dissemination of the technologies developed at the <strong>Institute</strong> and the<br />

assessment of the performance of new technologies in the field; training in production technologies and vocational<br />

enterprises and dissemination of information were undertaken by the <strong>Institute</strong>.<br />

6.1 AGRICULTURAL ECONOMICS<br />

6.1.1 Policy and Institutional Options for<br />

Inclusive <strong>Agricultural</strong> Growth<br />

Given the current state of agricultural development<br />

in India, technological innovations are crucial for<br />

enhancing agricultural productivity. This calls for the<br />

strengthening of the innovation system for which a<br />

primary requirement is to increase in the public<br />

investment in R&D. The annual growth in the public<br />

investment has slowed down from close to 6 per cent<br />

in the 1980s to 3 per cent during the last two decades.<br />

The investment intensity, i.e., public investment as a<br />

percentage of agricultural gross domestic product<br />

(AgGDP), is nearly 0.6 per cent for research and around<br />

0.15 per cent for extension. Not only is this much below<br />

the level of investment made by other countries<br />

including China and Brazil, but it is also low<br />

considering the increase in capital-intensity of R&D.<br />

Though, private investment is growing fast, it continues<br />

to be meager with an overall share of just 15 per cent in<br />

the total investment. It is also confined to a few<br />

profitable areas and sectors. Biotechnology research,<br />

for example, is attracting private investment, but this<br />

is concentrated in the pharmaceutical sector, with agribiotech<br />

commanding only 14 per cent of the total<br />

turnover. In order to attract private investment and to<br />

foster partnership with the public sector, an<br />

institutional mechanism for cost and benefit sharing<br />

in the framework of intellectual property rights is<br />

106<br />

evolving. In the new IPR mechanisms, benefits are<br />

shared with the innovator, whilst protecting the rights<br />

of farmers and local communities. Although, the<br />

institutional mechanism is in place, the actors are<br />

learning to use this regime to realize their objectives.<br />

The bottom line shall be determined by the cost<br />

effectiveness and the credibility of the IPR mechanisms,<br />

and capacity of the participating institutions.<br />

Trends in public investment in agricultural research<br />

( At 2004-05 prices )<br />

Indicator 1991 2001 2009<br />

Public investment (` in crore) 1,597 2,472 3,376<br />

Public investment as percentage 0.45 0.47 0.58<br />

of AgGDP<br />

Investment per hectare of 118 174 240<br />

agricultural land<br />

Note: Investment intensity data are triennium averages ending in the year<br />

indicated in the column.<br />

6.1.2 Inter-Regional Trade Agreements in<br />

Agriculture<br />

With problems that crept up in the multilateral<br />

trading system under the WTO regime still waiting to<br />

be resolved, there has been a substantial increase in<br />

regional trade. The number of regional as well as interregional<br />

free and preferential trade agreements of<br />

which India is also a partner, have multiplied in the<br />

last few years. The Asia Pacific Trade Agreement<br />

(APTA), of which India is a member shows an increase


of over 600 per cent in exports during 2000-2010.<br />

Exports of the SAARC group of countries expanded<br />

by over 400 per cent during the same decade. India’s<br />

trade with Asian partners has been increasing. Its share<br />

of exports to Asian partners has increased to 32 per<br />

cent in 2010 from 23 per cent in 1995. Imports also have<br />

increased from 16 to 30 per cent. Analysis of market<br />

and commodity composition of India and other<br />

member countries of SAARC and APTA showed that<br />

while India has been able to maintain a diversified<br />

market and commodity portfolio with diversification<br />

and concentration indices ranging between 0.571 to<br />

0.505 and 0.146 to 0.149, respectively during 2000 and<br />

2010. Some of the other countries like Afghanistan,<br />

Bangladesh, Bhutan, and Maldives have high index<br />

values indicating less diversified market and<br />

commodity base. East Asian countries like China,<br />

Republic of Korea and Thailand have low indices<br />

indicating greater diversification in terms of both<br />

markets and commodities. This indicates the potential<br />

for furthering external trade for India in the region.<br />

6.1.3 <strong>Agricultural</strong> Investments in the Post-<br />

Liberalization Period<br />

The spatial dimensions of agricultural<br />

expenditures and their linkages with growth were<br />

analysed using data on government expenditure under<br />

different expenditure heads. The relevant expenditure<br />

heads under agriculture included actual revenue and<br />

capital expenditure incurred on rural infrastructure<br />

(rural roads and electricity), irrigation (major and<br />

medium, minor and command area development),<br />

rural development and rural employment programmes<br />

including land reforms, expenditure on crop<br />

husbandry, soil and water conservation, animal and<br />

dairy husbandry and fishery sectors including<br />

agricultural research and education and extension and<br />

training. The state-wise database was developed for<br />

1991-92 to 2009-10 Analysis of the data showed that<br />

the total real (2004-05 prices) government expenditure<br />

for agriculture and allied sectors increased from<br />

` 716 billion in the mid nineties to ` 1954 billion in 2009-<br />

10, increasing at an annual rate of 7 per cent.<br />

Government expenditure on agriculture as a<br />

percentage of agricultural gross domestic product,<br />

which measures the amount spent on the sector relative<br />

107<br />

to its size, increased from 21 per cent in 1995 to 35 per<br />

cent in 2009-10. <strong>Agricultural</strong> expenditure as a share of<br />

total development expenditure indicates the level of<br />

priority a country gives to its agriculture sector. This<br />

share also showed an impressive increase from 23 per<br />

cent in the early nineties to 33 per cent in the later<br />

period. In recent years, the country has witnessed two<br />

noteworthy changes in funding and use of funds.<br />

Firstly, there has been a consistent rise in share of the<br />

Union Government in total agricultural and allied<br />

sector expenditure, which rose from 26 per cent in 1995<br />

to 44 per cent in 2009. Second, the proportion of capital<br />

expenditure out of total expenditure has also shown<br />

an increase over the years indicating higher priorities<br />

for capital formation in agriculture.<br />

Intensity indicators of Government expenditure on<br />

agriculture and allied sectors<br />

(All India, 2004-05 prices)<br />

Particulars TE - 1995 TE - 2010<br />

Government expenditure on agriculture 716 1954<br />

(` in billions)<br />

Share of capital expenditure in 20 22<br />

agricultural expenditure (%)<br />

Share of Union Government in 26 44<br />

agricultural expenditure (%)<br />

Share of agricultural expenditure 21 35<br />

in AgGDP (%)<br />

Share of agricultural expenditure in 23 33<br />

development expenditure (%)<br />

<strong>Agricultural</strong> expenditure per capita of 1138 2346<br />

rural population (`)<br />

<strong>Agricultural</strong> expenditure per ha (NSA) (`) 5025 13884<br />

Share of agricultural research and 0.45 0.58<br />

education in AgGDP (%)<br />

Share of agricultural extension 0.14 0.15<br />

in AgGDP (%)<br />

In addition to the absolute expenditure levels, the<br />

composition of expenditure indicates the relative<br />

priorities placed across sectors and regions. Of the total<br />

expenditure, the highest share went to agri-inputs and<br />

support services (34%), followed by rural development<br />

(26%), rural infrastructure (20%), irrigation (17%), and<br />

agricultural research, education and extension (3%)<br />

during the triennium ending 2010. The expenditure


items that grew most rapidly during the current decade<br />

were rural infrastructure, agri-input and support<br />

services and rural development. The impressive<br />

growth in rural infrastructure (22%) during the current<br />

decade was mainly on account of rural roads and rural<br />

electrification. The other expenditure item which grew<br />

rapidly was agri-input and support services (13%),<br />

comprising mainly expenditure on crop and animal<br />

husbandry, and soil and water conservation, and<br />

included incentives and subsidies related to agriculture<br />

and allied sectors followed by rural development and<br />

major and medium irrigation. This trend clearly<br />

revealed that government expenditure pattern has<br />

become broad based overtime.<br />

Bulk of the capital expenditure is being made by<br />

various state governments. This includes expenditures<br />

financed from the states’ own revenues as well as<br />

central government’s fund channelled through the state<br />

governments. Wide disparity was observed among the<br />

states in expenditure on agriculture and allied sectors.<br />

On absolute basis, Andhra Pradesh had the largest<br />

share in all India expenditure (16%) followed closely<br />

by Maharashtra (15%), Uttar Pradesh (13%) and<br />

Karnataka (9%) during 2009. However, on per capita<br />

rural population basis, north-eastern states like<br />

Arunachal Pradesh, Sikkim, Mizoram, and states of<br />

Maharashtra and Andhra Pradesh showed relatively<br />

higher expenditures. <strong>Agricultural</strong>ly backward states<br />

like Assam, Bihar, Madhya Pradesh, Orissa, and West<br />

Bengal still spend relatively less than the progressive<br />

states. The inability of these states to substantially raise<br />

the level of their agricultural expenditures may have<br />

serious implications for food security and poverty<br />

reduction.<br />

6.1.4 Energy Use in <strong>Indian</strong> Agriculture<br />

The use and costs of energy in agriculture are<br />

increasing. Spatial and temporal trends of commercial<br />

energy share in the cost of production during 1980 to<br />

2007 showed wide variation in the increase of<br />

commercial energy share in the cost of production,<br />

ranging from 9 per cent to 139 per cent in groundnut<br />

and sugarcane, respectively. The share of energy cost<br />

ranges from 45 per cent in rapeseed & mustard to 68<br />

per cent in potato. The significant share of energy in<br />

the cultivation cost of different crops, implies that<br />

108<br />

agriculture is vulnerable to energy price increase. The<br />

traditional relationship between energy and<br />

commodity prices has always been through the prices<br />

of inputs that is, the prices of fertilizers, pesticides,<br />

irrigation and transport. However, due to increasing<br />

trends towards commercialization and diversification<br />

to high value crops, there is higher use of direct and<br />

indirect energy and therefore, energy prices strongly<br />

affect agricultural output prices through opportunity<br />

costs. The comparison of the relative pace of changes<br />

in the price index of food grains and commercial energy<br />

sources during 1994-95 and 2009-10 revealed that while<br />

the wholesale price index (WPI) of high speed diesel<br />

increased 171 per cent to 488.5 in 2008-09 from just 176.4<br />

in 1999-2000, the foodgrains price index rose by just a<br />

moderate 47 per cent from 176 to 234.1 during the same<br />

period. As a majority of <strong>Indian</strong> farmers are price-takers<br />

and lack the capacity to quickly pass on higher cost<br />

through the marketing chain, any rise in the production<br />

cost reduces the farm profitability, at least in the short<br />

run. Higher fuel costs also increase marketing costs<br />

which further reduces the agriculture sector’s net<br />

returns. In the long run, a sustained rise in energy prices<br />

shall affect the prices and use of inputs. On the output<br />

side, it will raise the output prices which has serious<br />

implications for food security, poverty and the cost of<br />

industrial production.<br />

6.1.5 Productivity Divide and Instability in<br />

Rice-Wheat System<br />

Conjunctive use of surface and ground water can<br />

improve the sustainability of agricultural production<br />

systems. Analysis of the temporal variations in the<br />

growth pattern of different sources of irrigation water<br />

can be useful for developing efficient strategies to<br />

improve the system. Decadal growth rates in surface<br />

and ground water irrigation in Indo Gangetic Plains<br />

(IGP) showed a negative growth in area under surface<br />

water irrigation since 1980s which needs to be curtailed<br />

because water policies focus on conjunctive use for<br />

sustainability. It is important to explore ways to<br />

augment the share of surface water sources and that is<br />

possible through construction of farm ponds,<br />

revitalization of defunct tanks, and resuscitation of<br />

community based water management in canal and tank<br />

command areas. Water harvesting during monsoon


season can be a good strategy for water augmentation<br />

for use of water during lean season. Watershed method<br />

of water augmentation and conservation may be<br />

undertaken and use of frontier technologies of remote<br />

sensing and GIS can be helpful for efficient water<br />

resource management and decision making. Growth<br />

of tube well irrigation in IGP during 1970-80 was 8.76<br />

per cent supported by a favourable policy environment<br />

in agricultural sector, especially credit. The growth was<br />

around 5 per cent till last decade but has now come<br />

down to 1.27 per cent. This indicates that although<br />

ground water irrigation occupies a major share in total<br />

irrigation and it is now poised towards a potential<br />

threshold. Recent decline in growth could be due to<br />

combined effect of reduced availability of water and<br />

increasing awareness among farmers on judicious use<br />

of irrigation water. Over use of ground water needs to<br />

be curbed by encouraging conjunctive use of water.<br />

Even though the rate of growth of installation of new<br />

tube wells has come down during the last few years,<br />

deepening of existing wells has been increasing in IGP,<br />

which can emanate negative externalities.<br />

Trends in surface and ground water irrigation in IGP<br />

109<br />

is maximum, followed by casual labourers. Regular<br />

wage earners comprise the least population. The<br />

concern here is that rural self-employment is on the<br />

decrease and the rural casual labourers are increasing,<br />

underlining the need to create self employment<br />

opportunities in rural areas.<br />

Growth rate of rural employment in non-agricultural sector<br />

(Per cent)<br />

State 1983-84 / 1993-94 / 2004-05 /<br />

1993-94 1999-2000 2007-08<br />

Andhra Pradesh 1.1 0.6 -0.24<br />

Uttar Pradesh 1.0 3.6 3.63<br />

Bihar -2.5 8.8 6.08<br />

Gujarat 3.2 1.4 4.51<br />

Haryana 2.9 2.5 3.33<br />

Maharashtra 2.0 0.2 3.88<br />

Orissa -0.5 3.1 -3.65<br />

Punjab 2.0 3.4 10.43<br />

Tamil Nadu 1.2 -0.2 3.33<br />

India 1.79 2.31 3.52<br />

(CGR /annum %)<br />

Period Surface Ground Canals Tanks Tube Other Other Total<br />

Water Water wells wells sources Irrigation<br />

1970-80 1.07 4.11 1.79 -0.58 8.76 1.19 0.65 2.51<br />

1981-90 -0.11 2.24 0.80 -1.93 4.25 1.55 2.19 1.78<br />

1991-00 -1.47 2.73 -0.06 -2.38 4.93 2.18 -0.01 1.97<br />

2001-08 -1.34 1.07 -1.13 -1.82 1.27 2.37 11.15 1.75<br />

6.1.6 <strong>Agricultural</strong> Growth and Non-farm<br />

Employment<br />

With declining capacity of the agricultural sector<br />

to absorb the growing rural labour force in agriculture,<br />

a situation of disguised unemployment in rural areas<br />

is arising leading to migration from rural to urban<br />

areas. Thus the development of the rural non-farm<br />

sector is essential to generate opportunities for the rural<br />

people to augment their incomes. Some states like<br />

Punjab and Gujarat have performed well in the<br />

development of this sector, whereas, other states are<br />

lagging. However, the overall composition of rural nonfarm<br />

employment reveals that rural self-employment<br />

Education-wise, the number employed per<br />

thousand population were high for either the least


educated or those who are well educated and skilled.<br />

However, the wage was considerably high for the rural<br />

educated population indicating the need for improving<br />

literacy and making the rural folk better educated.<br />

6.1.7 Developing a Decision Support System<br />

for <strong>Agricultural</strong> Commodity Market<br />

Outlook<br />

Estimation of rice production is useful for<br />

generating outlook information for better supply and<br />

demand management. Rice production was projected<br />

to be 124.6 mt in 2020 and 150.4 mt in 2030 The area<br />

under rice crop appears to have reached a plateau and<br />

horizontal expansion of rice area is expected to be<br />

limited. It is predicted that there would be a marginal<br />

decline in area under rice in India owing to diversion<br />

of land for other purposes and area shift towards high<br />

value crops. The yield of rice crop is predicted to be<br />

around 3.5 t/ha in 2030, which could be achieved by<br />

increasing investment in rice research and varietal<br />

development.<br />

Estimated rice production in India<br />

Year Production Yield Area<br />

(mt) (kg/ha) (m.ha)<br />

<strong>2011</strong> 105.2 2398 43.8<br />

2015 113.4 2597 43.6<br />

2020 124.6 2869 43.3<br />

2025 136.9 3169 43.0<br />

2030 150.4 3500 42.8<br />

Rice exports from India have been increasing since<br />

1960 and today stand at around 4.5 mt. Milled rice is<br />

exported to various countries around the world and<br />

<strong>Indian</strong> basmati rice has good demand in international<br />

market. Basmati rice constitutes a major proportion of<br />

total rice exports. Nearly two-third of basmati rice<br />

produced in India is exported. Majority of basmati rice<br />

is exported to Saudi Arabia, UK, Kuwait and UAE.<br />

Non-basmati rice is exported to countries like<br />

Bangladesh, Nigeria, Russia, Saudi Arabia, Somalia and<br />

South Africa. India of late is facing stiff competition<br />

with other rice producing countries in the world. India<br />

was in the second place after Thailand in rice exports<br />

110<br />

till 2006. But Vietnam surpassed India in rice exports<br />

in both quantity and value terms after 2006.<br />

6.1.8 Innovations in Credit Delivery and<br />

Farmer’s Access to Institutional Credit<br />

Analysis of the performance of Self Help Group<br />

(SHG)-Bank linkage programme over the past 18 years<br />

showed that the number of credit-linked SHGs has<br />

increased from 255 1992 to 48.5 lakh currently. The<br />

number of savings-linked SHGs stands at 69.5 lakhs.<br />

In terms of households, about 9.7 crore households are<br />

covered under the programme. Commercial Banks lead<br />

in loan disbursement to SHGs with a share of 61.6 %<br />

followed by Regional Rural Banks (23.7 %) and<br />

Cooperative Banks (14.7 %). The average bank loan<br />

disbursed per SHG was ` 91,083. The average loan per<br />

SHG ranged from of ` 1.00 lakhs per SHG by<br />

Commerciaal Banks to ` 0.58 lakhs per SHG by<br />

Cooperative Banks. Principal component analysis<br />

revealed that the most important feature of<br />

performance is the “Spread of microfinance”, followed<br />

by “Depth of microfinance”, “Thrift behavior”,<br />

“Performance of SHPIs”, “Performance of microenterprise”,<br />

“Performance of financial institutions” and<br />

“Financial deepening of Swarna Jayanthi Swarojgar<br />

Yojana (SGSY)”. This clearly indicates that the states<br />

should focus on creation of more and more of SHGs<br />

and also give emphasis on the identification of proper<br />

micro-enterprises for adoption by the SHGs. It should<br />

also promote and nurture good SHPIs strengthen the<br />

financial institution for promotion of microfinance in<br />

the state. The discriminant function analysis revealed<br />

that twelve factors discriminate the good and poor<br />

performing states. to the maximum extent. Loan<br />

outstanding to women SHGs (Amt/SHG), SHGs in<br />

RRB’s (No.), SGSY loan outstanding from RRB’s<br />

(Amount/SHG), and SGSY SHGs (No.) are the major<br />

factors affecting performance. In general, it could be<br />

inferred that for a state to be classified as a good<br />

performer with respect to microfinance, more focus<br />

should be laid on amount of loan lent per women SHGs,<br />

followed by the performance of SGSY promoted SHGs.<br />

Thus, the states should focus on improving the<br />

performance of SGSY scheme.


Factors affecting performance microfinance across states<br />

Variables Coefficients Strength<br />

of discriminant of the<br />

function variable<br />

(%)<br />

SHG’s in RRB’s (No.) 5.31 17.90<br />

SHG’s in Co-operative banks (No.) 2.73 9.20<br />

Loan disp. Coops (Amt/SHG) 1.73 5.83<br />

Loan O/s in RRB’s (Amt/SHG) 0.95 3.20<br />

SGSY SHG’s (No.) 3.46 11.67<br />

SGSY savings (Amt) 1.05 3.54<br />

Savings SGSY (Amt/ member) 3.87 13.05<br />

Loan disp. Women PSBs (Amt/SHG) -2.30 7.75<br />

Loan disp. SGSY RRB’s (Amt/SHG) 0.99 3.34<br />

Loans outstanding Women (Amt/SHG) 5.78 19.49<br />

SGSY loan O/s RRB’s (Amt/SHG) 3.98 13.42<br />

SGSY loan O/s PSB’s (Amt/SHG) 2.11 7.11<br />

6.2 AGRICULTURAL EXTENSION<br />

6.2.1 Strengthening Cyber and Frontline<br />

Extension System for <strong>Agricultural</strong><br />

Development: An Action <strong>Research</strong><br />

6.2.1.1 Cyber extension model<br />

The cyber extension model provides an effective<br />

mechanism for communication of farm information<br />

and dissemination of technology to the farmers. The<br />

Cyber Extension Centres set up in Sitapur district of<br />

Uttar Pradesh facilitated faster information access. The<br />

rural youths trained by the scientists of IARI in internet<br />

usage felt socially empowered. One hundred farmers<br />

were trained in the Awareness meetings organised for<br />

capacity building. Information related to land records,<br />

status of pending cases, scholarships for students,<br />

Government notifications and proformas/forms, etc.<br />

can be accessed and retrieved by the farmers. The utility<br />

of the intervention can be gauged from the fact that<br />

users expressed a willingness to pay for such<br />

information. This can also ensure the sustainability of<br />

the cyber extension model. Extent of information access<br />

increased to 74% in <strong>2011</strong>-12 compared to 61.25% in<br />

2010-11. Weekly usage frequency increased to 71.6%<br />

111<br />

in <strong>2011</strong>-12 compared to 26.5% in 2010-11. Utilization<br />

of cyber extension centres has been ascertained as 100%<br />

in the village where it was established and 74% in the<br />

adjoining villages under the same village panchayat.<br />

SWOT analysis of information access through internet<br />

based on users’ perception identified the availability<br />

of information at the doorstep and cost savings as major<br />

strengths, non-availability of computers, poor<br />

connectivity, and infrastructure as major weaknesses.<br />

Networking among farmers emerged as a major<br />

opportunity. Significant change was observed among<br />

the farmers in information output behaviour. All the<br />

respondents (100%) sought general information related<br />

to agriculture, 81% new technological information, 75%<br />

market related information whereas, about 65%<br />

farmers sought information on land records at the cyber<br />

extension centres. Based on the assessed information<br />

needs of stakeholders, an Agri-portal was developed<br />

which provided information on Government schemes<br />

on agriculture, horticulture and agri-business<br />

enterprises, etc. and links for market information<br />

(AGMARKNET) and agro-met advisory (IARI). A pilot<br />

study undertaken to record and analyse the perceptions<br />

of the farmers receiving voice SMS from ZPD, Zone<br />

IV, Kanpur in the project area revealed that about 60%<br />

farmers who received the voice SMS were using the<br />

information. About 35% of the farmers were accessing<br />

the voice SMS more than once and 10-15% farmers<br />

made calls to seek clarifications on the information<br />

received through voice SMS.<br />

6.2.1.2 Frontline extension system<br />

In order to strengthen the Frontline Extension<br />

System of the country, IARI is experimenting with an<br />

innovative approach of establishing linkages with Post<br />

Offices for dissemination of IARI technologies and<br />

information. Quality seeds were distributed through<br />

IARI – Post Office – Farmer linkage to 546 farmers from<br />

39 villages under seven post offices in Sidhauli and<br />

Kasmanda blocks of Sitapur district (U.P.). Seed<br />

dissemination according to the demand creation by the<br />

village Post Master (Mean Score 4.5) and cost sharing<br />

by the farmers (Mean Score 4.7 out of 5.0) were rated<br />

more effective by the farmers. The farmers shared half<br />

of the seed cost and paid the amount in cash. During<br />

last year ` 38,616/- was collected from the farmers. The


Scientists interacting with Post Office staff in Sitapur, U.P.<br />

amount shared by the farmers was collected by the<br />

postal staff posted at the villages. From the coming<br />

Kharif 2012 season, farmers have agreed to share full<br />

seed cost of Kharif and Rabi crops. This indicates the<br />

effectiveness of the model in technology delivery and<br />

also its sustainability. Farmers preferred PRH 10 to<br />

other varieties in terms of yield and taste. Preference<br />

for Basmati type of rice was less because of nonavailability<br />

of specified milling facility. Performance of<br />

Pusa 44 was better (13-15%) compared to the prevailing<br />

variety (Saryu 52). Bottle gourd variety Pusa Naveen<br />

became popular among the farmers as it is easy to<br />

market because of small size (500 – 750 gm), good in<br />

taste, average market price is high (` 3500/t), B:C ratio<br />

2.84 and seeds are kept for next year unlike hybrids.<br />

6.2.2 Analyzing and Devising Extension<br />

Models and Strategies for Sustainable<br />

Livelihoods<br />

6.2.2.1 ATMA<br />

Establishment of <strong>Agricultural</strong> Technology<br />

Management Agency (ATMA) in Nagaland, Bihar and<br />

Uttar Pradesh has helped to strengthen institutional<br />

linkages. The mean scores (MS) obtained for extent of<br />

linkage were above 3 on a five-point scale, reflecting<br />

enhanced linkages in respect of inter-departmental<br />

activities (MS 3.7), KVKs (MS 3.5), and other institutions<br />

(MS 3.4).<br />

6.2.2.2 Krishi Mahotasava<br />

Krishi Mahotasava, a month long campaign<br />

effectively executed by Gujarat and Bihar States for<br />

112<br />

promoting scientific farming, was perceived by farmers<br />

as highly effective (Effectiveness index of 4.74 on a scale<br />

of 1 to 5). Movement of mobile exhibition called Krishi<br />

Rath, covering almost all villages, facilitated direct<br />

contact of farmers with state department officials,<br />

scientists as well as service and input agencies. In<br />

addition, training and interactions during the<br />

mahotsava led to improvement of extension contact<br />

(mean score 5); awareness of technologies (mean score<br />

4.8); availability of quality seeds (4.7); awareness of<br />

government schemes (mean score 4.8) and awareness<br />

and availing of subsidy (4.2) among the farmers. As a<br />

result there is speedy technology diffusion and<br />

application. Nearly 73 per cent of a sample of 60 farmers<br />

of block Motipur of Muzaffarpur district in Bihar<br />

shared that there was about 50 per cent enhancement<br />

in area under hybrid paddy and about 68 per cent seed<br />

replacement with modern varieties of various crops.<br />

Factors of sustainability of community institutions<br />

were studied with case analysis of Madhurapur<br />

Women Milk Producers’ Cooperatives of district<br />

Vaishali in Bihar. Robust financial management,<br />

incentives to members, trust among members,<br />

democratic style, transparency in functioning, and<br />

group identity were identified as the major factors<br />

determining its sustainability.<br />

6.2.2.3 Community radio<br />

Community radio has been deployed in many<br />

states to strengthen the information flow among the<br />

farmers. Comparative case analyses of community<br />

radio of CCSHAU, Hissar, Haryana; community radio<br />

station of KVK Saharanpur, UP and NGO run<br />

community radio station in Mewat, Haryana revealed<br />

satisfaction with quality and utility of content by above<br />

75 per cent of users in all the three cases. However, the<br />

level of awareness was found to be more in case of NGO<br />

run community radio station in Mewat, Haryana due<br />

to predominance of entertainment programmes. About<br />

22 per cent of the users listened to CRS, Mewat<br />

programmes, while 65 per cent preferred to<br />

entertainment programmes. Out of nearly 11 hours<br />

programme, barely half-an hour was devoted to<br />

agricultural programmes. Problems of sustainability,<br />

low frequency range, fluctuation in frequency, poor<br />

sound quality, and less broadcast time of SAU and KVK


community radios were the major limitations ranked<br />

by the farmers in descending oreder. Increase in<br />

transmitter frequency and involvement of community<br />

in programme development were suggested for<br />

effectiveness.<br />

Analysis of private extension services revealed<br />

their importance in complementing the public<br />

extension services. BAIF’s paid artificial insemination<br />

service was found highly satisfactory by the farmers<br />

of Bidupur block of Vaishali district in Bihar.<br />

Promptness of service, door to door service, and<br />

advisory services along with artificial insemination<br />

service were reported by 95, 100 and 78 per cent of<br />

farmers out of a sample of forty dairy farmers as factors<br />

for preference to BAIF’s programmes. The major<br />

determinants of willingness to pay by farmers for the<br />

private extension services were identified as size of land<br />

holding, proportion of irrigated holding, scientific<br />

orientation, extension contact and achievement<br />

motivation of farmers.<br />

6.2.2.4 Effectiveness of voice message service of<br />

extension initiatives<br />

Effectiveness of voice message service of IFFCO -<br />

Kisan Sanchar Ltd was analyzed with a sample of 75<br />

farmers of Rewari and Kurushetra ditrsict of Haryana.<br />

More than 96 per cent of users perceived the service as<br />

trustworthy, while 68 per cent of them rated the service<br />

better compared to other sources. About 60 per cent of<br />

the message listeners implemented or planned to<br />

implement the information received. On a scale of 1 to<br />

5, relevance was rated 4.3, while content and clarity of<br />

voice and its quality were rated 4.5. The overall<br />

effectiveness mean score of 4.1 showed its acceptance<br />

among the farmers. The farmer’s suggestions for<br />

enhancing effectiveness included use of video (multimedia)<br />

message in addition to voice messages.<br />

Effectiveness studies on extension initiatives of<br />

Punjab National Bank (PNB) Farmers Welfare Trust<br />

in Sachakhera village of Jind District, Haryana showed<br />

that the presence of Kisan Bandhus (mean score 4.5),<br />

Biometrics smart cards scheme (MS 4.2) and PNB<br />

Kisan Credit Card (MS 4.2) were the major<br />

components that accounted for the success of PNB’s<br />

extension initiatives.<br />

113<br />

6.2.3 Constraints in Adoption of Improved<br />

Technologies and Yield Gap in Selected<br />

Pulses and Cereals: A Comparative Study<br />

During Kharif <strong>2011</strong>, a total of 32 demonstrations of<br />

paddy varieties P 1401 (12) and P 1121 (20) and 36<br />

demonstrations of pigeonpea (18 each of variety P 2001<br />

and P 2002) were conducted. The yield recorded in the<br />

demonstration field of rice was 4.52 t/ha and the yield<br />

gap I was calculated 0.28 t/ha whereas yield gap II was<br />

0.32 t/ha. The pigeon pea varieties under demonstration<br />

(P 2001 and P 2002) yielded an average of 1.2 t/ha,<br />

leading to a yield gap-I of 0.6 t/ha and yield gap II of<br />

0.438 t/ha. The comparison of pigeon pea and paddy<br />

on B:C ratio basis revealed that it was higher for pigeon<br />

pea (3.02) than paddy (2.82) but in absolute terms<br />

paddy gave more profit than pigeon pea. The adoption<br />

of recommended technology in case of pigeon pea was<br />

only 31.6% in comparison of 59.2% in paddy.<br />

During Rabi 2010-11, 20 profitability<br />

demonstrations (1 demonstration = 0.40 ha) of wheat<br />

were conducted during Rabi 2010-11 at farmers’ fields<br />

at four locations. The demonstration yield of IARI<br />

varieties was 5.157 t/ha. However, yield gap-I and yield<br />

gap-II were calculated to be 43 kg/ha and 257 kg/ha,<br />

respectively. The B: C ratio was also higher in case of<br />

IARI varieties (3.40:1). The profitability analysis of<br />

wheat and chickpea showed that there was comparable<br />

profit in case of chickpea and wheat. The B: C ratio<br />

was in case of chickpea was higher at 3.40:1 relative to<br />

wheat at 3.06:1. The adoption of recommended<br />

technology in case of chickpea was only 37.3% in<br />

comparison of 62.3% in wheat.<br />

The major constraints perceived by the farmers<br />

were mostly related to inputs, know-how, and<br />

infrastructure. The recommended package of practices<br />

was generally not being adopted by the farmers in<br />

pigeonpea. A majority of the farmers in NCR region<br />

are not growing pigeonpea due to menace of Blue Bulls.<br />

The farmers considered pigeonpea as risky crop as<br />

compared to rice due to more attack of pests and<br />

diseases. The sowing, harvesting, spraying of fully<br />

grown crop and threshing equipments are also lacking<br />

for pigeonpea cultivation. Generally, large farmers<br />

grow pigeonpea in neglected fields that too not for


grains but for fuel wood. Similarly, one hundred<br />

farmers of village Jassaur Kheri, District Jhajhar,<br />

Haryana and 60 farmers of village Padmada Khurd,<br />

Alwar, Rajasthan were trained by subject matter experts<br />

of IARI with a team of extension scientists to orient<br />

and update the knowhow of latest technologies of pulse<br />

production among the pulse growers. The effect of<br />

training on gain in knowledge was recorded to be 28.5%<br />

in overall. Maximum gain was observed in seed<br />

treatment methods and chemicals, IPM, knowledge<br />

regarding rhizobium inoculation and recommended<br />

varieties.<br />

6.2.4 Enhancing Entrepreneurship among<br />

Rural Youth<br />

The <strong>Institute</strong> has been promoting entrepreneurship<br />

among farmers and rural youth. Several entrepreneurs<br />

became successful achievers. To strengthen<br />

entrepreneurship among rural people and replicate the<br />

success stories of several people, thirty eight cases of<br />

achiever farmers were studied in depth to identify and<br />

document the best practices (initiatives having a<br />

demonstrable and tangible impact on improving<br />

people’s quality of life) and determine success and<br />

inhibitory factors in setting up of their agri-enterprises.<br />

Best practices in the case of a strawberry grower in<br />

Delhi were identified as relay cropping of strawberry<br />

and water melon, direct marketing after proper sorting<br />

and packaging, and adoption of scientific cultivation<br />

practices. In case of a dairy entrepreneur in Gurgaon,<br />

Haryana, scientifically constructed sheds, good animal<br />

husbandry practices focusing on hygiene, adoption of<br />

scientific breeding, close linkages with scientific<br />

personnel and marketing arrangements with a milk<br />

processing plant were identified as the best practices.<br />

In case of two women entrepreneurs producing and<br />

selling value-added products, success factors were<br />

identified as effective marketing linkages with retailers,<br />

maintenance of product quality and production of new<br />

and innovative products. All the entrepreneurs were<br />

found to be strong in personal entrepreneurial<br />

competence.<br />

Based on the case studies of thirty eight achiever<br />

farm entrepreneurs, a model of agri-enterprise<br />

development process has been designed.<br />

114<br />

Process of an agri-enterprize development<br />

Self Sphere<br />

Personal<br />

entreprenurial<br />

competencies<br />

Technical<br />

knowledge<br />

& skills<br />

Good management<br />

skills<br />

Environmental<br />

Sphere<br />

Facilitators /<br />

Inhibitors<br />

Situational factors<br />

Environmental<br />

factors<br />

Governrnent<br />

policies<br />

Credit and input<br />

availability<br />

High<br />

Agripreneurial<br />

Success<br />

Higher profits<br />

Growth<br />

Higher yields<br />

Quality/ brand<br />

recognition<br />

Innovations<br />

generated<br />

Interaction of scientists with participants of training on Value<br />

Addition of Baby Corn in Sungarpur – Pachara village of<br />

Ghaziabad<br />

6.2.5 On-Farm Testing of IARI Technologies<br />

in NCR<br />

The on-farm trials of wheat were laid out during<br />

Rabi 2010-11. The grain yield of all the three varieties<br />

subjected for adaptation research under timely sown<br />

conditions was significantly higher than the local<br />

practice as a whole. The variety HD 2967 yielded<br />

highest (22% higher than local check, PBW 343)<br />

followed by HD 2894 and HD 2733. In case of late sown<br />

varieties, WR 544 yielded highest (29% higher than local<br />

check) followed by HD 3016 and HD 2985, respectively.<br />

Regarding effect of nutrient management practices on<br />

grain and straw yield, it is clear from the data that the<br />

application of fertilizers on the basis of soil test yielded<br />

significantly higher quantities of grain and straw than<br />

the farmers’ practice and general recommendations of<br />

fertilizers.


Yield performance of different varieties at farmers’ fields<br />

Timely sown Average Late Average<br />

varieties grain sown grain<br />

yield varieties yield (t/ha)<br />

(t/ha)<br />

HD 2967 60.49 WR 544 57.55<br />

HD 2894 50.47 HD 2985 45.75<br />

HD 2733 51.83 HD 3016 52.15<br />

Farmers’ Practice 49.15 Farmers’ Practice 44.56<br />

Effect of weed control interventions on yield and<br />

yield attributes clearly indicated that the weed control<br />

with Clodinofop (60 g/ha) + Metsulfuron (4 g/ha) gave<br />

better results in terms of plant height, effective tillers/<br />

m 2 , spike length, grains /spike, grain and straw yield .<br />

It superseded the control with sulpfosulfuron (30 g/<br />

ha) and the practices followed by the farmers in the<br />

form of recommended herbicides like 2,4-D. The results<br />

show that not only the crop yield increased significantly<br />

but also the quantity of the herbicides used reduced<br />

Scientists visiting the OFT laid out on farmers’ field in Badarpur<br />

Said village, Faridabad, Haryana<br />

Effect of weed control interventions on yield attributes of wheat crop<br />

115<br />

significantly. The result of the interventions laid out<br />

for adaptation are clear indications for the extension<br />

agencies working in the area for their concerted efforts<br />

to repeat the interventions with farmers to make the<br />

final choice on technology adoption.<br />

Similarly the site specific nutrient management<br />

yielded highest in case of paddy var. P 1121 both in<br />

terms of grain (19.7 % higher than farmers’ practice) as<br />

well as straw yield(22.2% higher than farmers’ practice).<br />

In case of weed management, Pretilachlor + Bispyribac-<br />

Na proved promising in direct seeded (8% higher than<br />

farmers’ practice) as well as transplanted paddy (10.3%<br />

higher than farmers’ practice) in terms of grain yield.<br />

As far as varietal performance is concerned P 1509<br />

yielded 4.52 t/ha, had not shattered in the field, yield<br />

was comparable with P 1121 (4.58 t/ha) and P 2511 (4.89<br />

t/ha), farmers’ were in dilemma regarding the market<br />

rates. Lack of capacity to take risk on the part of farmers,<br />

unfavourable attitude, lack of interest of farmers to<br />

participate, no monetary advantage to farmers and no<br />

remuneration to farmers for participating in On Farm<br />

<strong>Research</strong> were the major constraints perceived by the<br />

farmers.<br />

Effect of nutrient management on grain, straw and dry<br />

matter yield of wheat<br />

Treatments Grain Straw Dry matter<br />

yield yield yield<br />

(t/ha) (t/ha) (t/ha)<br />

Farmers practice 4.972 11.125 16.097<br />

Recommended dose of fertilizer 5.458 12.096 17.554<br />

Site specific nutrient management 6.230 13.467 19.697<br />

CD (P=0.05) 0.304 0.686 0.969<br />

Treatments Plant height Effective Spike Grains Grain Straw Harvest<br />

(cm) tillers/m 2 length (cm) per spike yield (t/ha) yield (t/ha) Index (%)<br />

Farmers’ Practice 85.0 302.1 8.80 49.8 3.49 5.43 39.2<br />

Control 83.6 283.3 8.20 43.2 2.92 4.39 39.9<br />

Clodinofop + Metsulfuron 90.6 354.9 9.95 61.3 4.49 6.75 40.0<br />

Sulfosulfuron 88.9 344.7 9.55 56.9 4.09 6.09 41.7<br />

CD (P=0.05) 2.64 23.08 0.64 5.49 0.40 0.60 NS


6.2.6 Integrated Farming System and<br />

Technology Model for Livelihood and<br />

Nutritional Security of Tribals<br />

6.2.6.1 Demonstrations of high yielding varieties<br />

In four districts of Rajasthan, namely, Udaipur,<br />

Banswara, Dungarpur and Sirohi, demonstrations of<br />

high yielding varieties of wheat (HD 2932, DBW 17) in<br />

3.8 ha, paddy (P 2511) - 8.0 ha, mustard (Pusa Vijay,<br />

Pusa Tarak) - 4.3 ha, green gram (Pusa Vishal) - 3 ha,<br />

pigeonpea (Pusa 2002) – 3 ha, were conducted. During<br />

Rabi 2010-11, the average yield of demonstrated wheat<br />

varieties WR 544, HD 2932, DBW 17, HD 2684 and HD<br />

2864 was 3.61 t/ha, 3.86 t/ha, 3.75 t/ha, 3.88 t/ha, 3.94 t/<br />

ha and 3.28 t/ha, respectively. All the wheat varieties<br />

performed better than the local check variety Raj 3077<br />

(2.43 t/ha). The gram variety P 1008 gave an average<br />

yield of 1.72 t/ha which was 56.21% higher than the<br />

local check. During Kharif <strong>2011</strong>, rice variety Pusa 2511<br />

gave better yield (3.24 t/ha) in comparison to existing<br />

cultivars in Banswara district. Farmers accepted this<br />

variety due to good yield and better fragrance. The rain<br />

in the district during vegetative growth was less, but<br />

the farmers harvested good yield. The variety Pusa<br />

Vishal of green gram was liked by the farmers due to<br />

bold grains and better yield (1.26 t/ha) which was 50%<br />

higher than the local variety. Farmers kept seed for the<br />

next year. The rice variety P 2511 gave better yield (3.24<br />

t/ha) in comparison to existing local variety, Kali Kamod<br />

(2.45 t/ha). Farmers accepted this variety due to good<br />

yield and better fragrance. Although, there was low<br />

rainfall during vegetative growth, still farmers<br />

harvested good yield.<br />

6.2.6.2 Seed production and multiplication<br />

Seed production and multiplication of suitable<br />

varieties of paddy (PRH 10, P 2511, P-1401)- 13.3<br />

hectare, pigeon pea (P 2002)- 3.30 ha, moong (Pusa<br />

Vishal)- 2.25 ha in the project area was taken up. Total<br />

seed produced of paddy was 31.2 t of P 2511, 26 t of P<br />

1401 and 4.063 t of PRH 10 variety. For pigeonpea (P<br />

2002), 3.3 t seed was produced and for mungbean (Pusa<br />

Vishal 2.7 t seed was produced. Seed production and<br />

multiplication of suitable vegetable varieties of<br />

vegetables, viz., bhindi (Pusa A4)- 3.0 ha, bottle guard<br />

(Pusa Naveen)- 2.00 ha, brinjal (Pusa Uttam)- 0.2 ha<br />

116<br />

Scientists visiting the seed production plot of vegetable crops<br />

was also done in the project area and total 110.4 tonnes<br />

quality seed was produced. A book on “Rajasthan ke<br />

Janajatiya Kshetron mein phaslon ke kit rog va kharpatvar<br />

evam unka niyantran” was published. One 5 days oncampus<br />

training at IARI, New Delhi on “Value addition<br />

of Agri-Horti Produce” was organized for 25 tribal<br />

women of Udaipur district under this project.<br />

6.3 TECHNOLOGY ASSESSMENT<br />

AND TRANSFER<br />

6.3.1 Assessment and Promotion of<br />

<strong>Agricultural</strong> Technologies and Developing<br />

Market-led Extension Models<br />

This Project has been implemented in four villages<br />

of Haryana and Uttar Pradesh in the NCR namely<br />

Badarpur Said (Faridabad district), Pabsara (Sonipat<br />

district), Kumbawas (Gurgaon district) and Partapur<br />

(Ghaziabad district) with the objective of developing<br />

these villages as model villages through integrated<br />

development. Farmers’ problems were prioritized and<br />

potential crop based interventions and trainings were<br />

planned and implemented accordingly.<br />

6.3.1.1 Crop based interventions<br />

Demonstrations were carried out for different<br />

varieties of wheat ( HD 2932, HD 2987, HD 2733, HD<br />

2894, HD 2851, HD 2967, WR 544), lentil (K-75),<br />

mustard (Pusa Jagannath, Pusa Vijay) and gram (BGD<br />

72). In village, Pabsara, wheat variety HD 2733<br />

outperformed all other varieties followed by HD 2987


in comparison to local check variety (PBW 343, 4.75 t/<br />

ha). Significant increase in net profit from improved<br />

wheat varieties was realised in comparison to local<br />

check. Lentil K-75 and gram BGD 72 gave higher yield<br />

to the tune of 38.32 and 12.70 per cent over the local<br />

checks (1.43 t/ha) and (1.93 t/ha), respectively.<br />

Local: PBW 343,<br />

HYV: HD 2733<br />

Local: PBW 343,<br />

HYV: HD 2894<br />

Local: PBW 343,<br />

HYV: HD 2932<br />

Local: PBW 502,<br />

HYV: HD 2932<br />

During Kharif <strong>2011</strong>, different varieties of paddy<br />

(P 1121, PRH 10, P 1401, PB 1, P 2511, P 1509), arhar<br />

(P 2001), okra (Pusa A4), bottle gourd (Pusa Naveen<br />

and Pusa Santushti), moong (Pusa Vishal), amaranthus<br />

(PLC and P-Kiran) were demonstrated. The paddy<br />

variety PRH-10 gave highest yield of 6.25 t/ha which<br />

was 67.96% higher than the local check variety, sharbati<br />

(3.72 t/ha) resulting in BC ratio of 2.22. Paddy varieties<br />

Pusa 1121 and Pusa 1401 were well accepted for their<br />

cooking quality. P 1509 gave an average yield of 3.5 t/<br />

ha in comparison to 2.85 t/ha of local check variety<br />

sarbati and this variety was found tolerant to blast and<br />

BLB in village Pabsara. The best traits of the variety<br />

reported by farmers were its short duration, fine grain<br />

and good aroma. More tillers and less incidence of<br />

disease were observed in variety P 401 as compared to<br />

P 1121 in village Badarpur Said.<br />

Arhar variety P 2001 gave an average yield of 1.72<br />

t/ha in comparison to 1.37 t/ha yield of local variety.<br />

Moong, Pusa Vishal gave an average yield of 1.0 t/ha<br />

in comparison to 0.62 t/ha in village Partapur. However,<br />

this was a new introduction in village Dhani<br />

117<br />

Kumbhawas and Pabsara and its benefit cost ratio was<br />

1.75 and 1.66, respectively.<br />

6.3.1.2 Water management technologies for<br />

sustainable agriculture<br />

Overall coordination was done for layout of 253<br />

demonstrations on five water management technologies,<br />

namely system of rice intensification (SRI), raised bed,<br />

biogas, laser leveling and micro-irrigation, in three<br />

operational areas Bulandshahar, Jhajjar and Alwar.<br />

Proper management of irrigation led to substantial saving<br />

of irrigation water under the different technologies.<br />

Savings in irrigation water were accompanied by savings<br />

in energy utilization and farmers’ time. An increase in<br />

productivity was also realized in case of the interventions.<br />

Bio-gas slurry demonstrations in paddy and wheat crop<br />

helped the farmers to save three and one complete<br />

irrigation, respectively.<br />

Water saved and the gains in productivity<br />

Water management Crop Irrigation Gain<br />

technology water in<br />

saving yield<br />

(%) (%)<br />

System of rice intensification<br />

(SRI)<br />

Paddy 33.33 2.27<br />

Laser levelling Paddy 25.00 4.61<br />

Wheat 20.00<br />

Raised bed planting Maize 37.50 12.67<br />

Wheat 30.00<br />

Onion<br />

(kharif )<br />

10.00 18.00<br />

Drip irrigation Cotton 38.70 75.00


Drip system installed in villages Gujuki and Tilwar, Alwar, Rajasthan<br />

Farmers were trained on various water saving<br />

technologies and interactions arranged with<br />

progressive farmers to motivate them to adopt the<br />

technologies. Twenty six farmers installed drip system<br />

on nearly 34 hectares in Tilwar, Gujuki, Salpuri,<br />

Sunehra, Chauma, Alawara, Sirmaur and Kalsana<br />

villages of Alwar district<br />

6.3.1.3 Establishment of orchard for economic<br />

prosperity<br />

Kinnow, lemon, guava, aonla and mango orchards<br />

were established in the model villages for enhancing<br />

income and ensuring nutritional security in the villages.<br />

More than 95% of the planted saplings of above fruit<br />

crops were established at all the locations. The growth<br />

related performance of these saplings encouraged other<br />

farmers to adopt fruit plantation.<br />

6.3.1.4 Awareness and capacity building<br />

Six farmers from each of the four model villages<br />

were given hands-on training on protected cultivation<br />

of vegetables. This training helped them to gain<br />

knowledge and develop skills for protected cultivation.<br />

During summer <strong>2011</strong>, cucumber was grown in lowcost<br />

polyhouse in Rajpur village. Similarly, 500 farmers<br />

and 150 farm women from these villages were also<br />

118<br />

given exposure during the events of agricultural<br />

exhibition and Pusa Krishi Vigyan Mela.<br />

6.3.2 Strengthening Extension Education<br />

Programme for Developing Innovative<br />

Models and Techniques for Higher<br />

Productivity and Profitability in Agriculture<br />

The National Extension Programme was further<br />

strengthened in collaboration with 17 ICAR institutes/<br />

SAUs for faster diffusion of IARI varieties and<br />

production technologies to greater numbers of farmers<br />

in different parts of the country. This programme was<br />

effective in dissemination of IARI technologies in far<br />

off locations.<br />

6.3.2.1 Rabi 2010-11<br />

A total of 398 demonstrations covering an area of<br />

140 hectares were conducted at 17 locations. The major<br />

observations are as under:<br />

Wheat<br />

Crop Variety Number of Saplings<br />

● HD 2985 emerged as the high yielding variety with<br />

less water requirement having medium bold grain<br />

and good fodder quality.<br />

● HD 2932 was found good in tillering with medium<br />

height giving more straw of good quality. Seeds<br />

Kumbhawas Badarpur Said Rajpur Soodna<br />

Kinnow Kinnow 220 - - -<br />

Lemon Baramasi 200 100 100 100<br />

Guava Lalit and L49 - - 125 200<br />

Aonla NA 7 and Krishna - - 100 100<br />

Mango Amrapali, Dasheri - - - 160


were found bold with good ear heads. This variety<br />

performed well in timely sown and slightly late<br />

sown conditions.<br />

● HD 2733, number of tillers were found (15-20) more<br />

than any other variety. Ear heads are compact,<br />

medium height, more straw, no lodging, no disease<br />

attack, more yield (5.00-5.50 t/ha)<br />

● HS 420, HS 490 and HS 507- found to be free of<br />

rust while other popular varieties suffered<br />

heavily due to rust. Farmers were satisfied with<br />

performance of these varieties regarding<br />

tillering, earhead length etc. The potential for<br />

adoption of these varieties was reported to be<br />

good at Kangra.<br />

● In Bilaspur region (HP), HS 277 gave good tillering<br />

as well as yield (6.25 t/ha).<br />

● Wheat varieties HD 2987 (5.43 t/ha), HD 2894 (5.21<br />

t/ha) and HD 2733 (5.0 t/ha) yielded fairly well<br />

across the zones throughout the country.<br />

Lentil<br />

● Plants of L 4076 were erect with dark green colour,<br />

bold seed and high yields (1.2 t/ha). Water<br />

requirement of this variety was low and it fetched<br />

better market price.<br />

● K 75 performed well with good branching, less<br />

insect-pests attack, very good fruiting, bold grain,<br />

high yield at all the locations.<br />

● L 4076 was preferred by farmers for its bold and<br />

attractive grain and yield (1.50 t/ha) in Varanasi,<br />

UP.<br />

Gram<br />

● BGD 72 had good branching, bold pods and grains,<br />

good in taste, but less liked in the market.<br />

Onion<br />

● Pusa Red produced medium sized compact blubs,<br />

which fetched better market price. It is high<br />

yielding with good in taste<br />

Carrot<br />

● Pusa Rudhira was found to have very good roots,<br />

uniform size, long, no pith and red attractive<br />

colour. It fetched 10-20% higher market price<br />

because of its good in taste.<br />

119<br />

Mustard<br />

● At Kangra, the average crop yield of Pusa Bold, Pusa<br />

Agrani and Pusa Mahak was recorded to be 43.7,<br />

32.8 and 39.1% higher than the local check (Gobhi<br />

sarson, Neelam), respectively. The variety, thus,<br />

provided a net return ratio of 1.65-1.92. On the other<br />

hand, at Una, the varieties yielded 7, 29.3 and 23.3%<br />

lower than the local check. At Hamirpur, the farmers<br />

recorded 220-240 pods/plant with 9-10 seeds/pod<br />

in case of Pusa Bold and Pusa Mahak while Pusa<br />

Agrani had only 48-51 pods/plant with about 6<br />

grains/pod. The potential for adoption of these<br />

varieties was reported to be good at Kangra.<br />

Pea<br />

● The green pod yield of the variety Pusa Pragati was<br />

reported to be 14.1-22.4% higher than the local<br />

check with a net return ratio of 1.22-1.26. The<br />

growers were satisfied with the variety as they<br />

observed completely filled pods with more number<br />

of grains as compared to popular variety Punjab<br />

89. The potential for adoption of the variety was<br />

reported to be good at Palampur district.<br />

Palak var. All Green<br />

● The green leaf yield of the variety was reported to<br />

be 20% higher than the local check. The potential<br />

for adoption of this variety was reported to be good<br />

at Kangra.<br />

● Palak variety P. Bharati was well accepted in<br />

Karnataka because of its good market price,<br />

broader leaves, rapid growth and four times more<br />

harvest as compared to local varieties.<br />

Okra var. Pusa A 4<br />

It was accepted across eastern districts, Rajasthan,<br />

and western UP and Haryana owing to its good yield<br />

(12.5-14.0 t/ha), taste and marketability.<br />

6.3.2.2 Kharif <strong>2011</strong><br />

A total of 500 demonstrations on paddy (P 1460, P<br />

2511, PRH 10, P 44, P 1121, PB 1, P 1401), Moong<br />

(P Vishal), Palak (P. Harit), Carrot (Nantis), Cowpea<br />

(V 578), Bottlegourd (P Naveen), Arhar (P 2001) were<br />

conducted at different locations of ICAR institutes/<br />

SAUs covering an area of 206.4 ha. Some of the results<br />

of these demonstrations are detailed below.<br />

● PRH 10 variety of paddy was liked by farmers due<br />

to short duration character of the variety.


● P 2511 was liked by farmers due to its aroma and<br />

taste, however, they were not satisfied with respect<br />

of its marketability at Varanasi area.<br />

● Farmers were satisfied with yield (3.1 t/ha) and<br />

high demand of variety Pusa 1121 in the market.<br />

They reported the lodging problem in this variety<br />

during slightly off weather situation. Some fields<br />

were attacked by brown plant hopper (BPH) and<br />

damaged the crop in spots.<br />

● Overall performance of the variety Pusa 1401 in<br />

respect of yield (3.7 t/ha) is good but bacterial leaf<br />

blight was observed in this variety.<br />

● Higher yield of P 2511 (4.64 t/ha) was at par with<br />

the coarse grain variety of paddy. Farmers<br />

observed false smut disease in this variety.<br />

● Farmers reported that the yield of Pusa 44 variety<br />

(3.36 t/ha) was higher than the local basmati<br />

sharbati. But in the market, the rate of Pusa 44<br />

variety was less in comparison to the local basmati<br />

sharbati. Farmers also observed that the Pusa 44<br />

variety was susceptible to bacterial leaf blight<br />

disease.<br />

● Okra variety (Pusa A 4) was accepted across eastern<br />

districts of Rajasthan, western UP and Haryana on<br />

account of good yield (12.5-14.0 t/ha), taste and<br />

marketability.<br />

● Farmers at Varanasi area reported that fruiting in<br />

Pusa Naveen is better than that of other varieties.<br />

However, fruits were smaller than Mahyco Hybrid.<br />

Producers sell in local mandi from where it is<br />

transported to Kolkata and Delhi alternatively.<br />

Farmers get low price, if they sell to traders of<br />

Kolkata because their preference is for long bottle<br />

Front line demonstrations on wheat with application of zero tillage and use of bio-fertilizer<br />

120<br />

gourd. However, Delhi traders buy it at a little<br />

higher price than the long one. People in Eastern<br />

India like long and bigger size bottle gourd, while<br />

in the North, particularly Delhi, they prefer small<br />

size bottle gourd.<br />

6.3.3 Participatory On-farm Seed<br />

Production of Improved Varieties of IARI<br />

● At Jhajjar location, 200 kg seed of bottle gourd<br />

(Pusa Naveen) was produced by farmers.<br />

● At Bharatpur, 1.0 t seed of carrot (P, Rudhira) was<br />

produced at farmers’ fields.<br />

● Production of 78 t of paddy seed of varieties Pusa<br />

44, Pusa 1401, Pusa 1121 and Pusa 1460 during<br />

Kharif <strong>2011</strong>, and 45 t of wheat seed of variety HD<br />

2967 during Rabi 2010-11 was done in<br />

collaboration with Young Farmers Association of<br />

Punjab, Rakhra.<br />

● Total of 35.1 t of quality seed of wheat varieties<br />

namely HD 2733, HD 2851, HD 2894 and DBW 17<br />

was produced in Punjab in collaboration with YFA,<br />

Patiala (Punjab).<br />

● Total of 84 t of paddy seed (P 1401, P 44, P 1460)<br />

was produced.<br />

6.3.4 Front Line Demonstrations on Wheat<br />

(in collaboration with DWR)<br />

During Rabi 2010-11, 35 FLDs on wheat in selected<br />

villages of districts Aligarh and Bulandshahr in UP<br />

were conducted on newly released varieties of wheat,<br />

DBW 17 and PBW 550 with the application of zero<br />

tillage and use of bio-fertilizer (Azotobacter + PSB).<br />

S. Technology Variety No. of Area Yield Increase in<br />

No. Demos (ha) (t/ha) yield (%)<br />

Test Check<br />

1. New Released Variety DBW 17 15 6.60 4.78 4.26 12.38<br />

PBW 550 4 2.40 4.56 5.05 -9.64<br />

2. Use of biofert. (Azotobacter+PSB+Micorrhyza DBW 17 6 3.00 4.91 4.45 10.42<br />

3. Zero tillage DBW 17 6 2.40 4.79 4.55 5.43<br />

PBW 550 4 1.60 4.95 4.67 6.10<br />

Total 35 16.00


6.3.5 Innovative Transfer of Technology<br />

Model: Partnership between IARI and Non-<br />

Government Organisations for Effective<br />

Transfer of <strong>Agricultural</strong> Technologies to the<br />

Farmers<br />

Under this programme 31 NGOs of repute from<br />

17 states of the country are involved in assessment and<br />

dissemination of IARI technologies in their operational<br />

areas. During Rabi 2010-11, 545 demonstrations<br />

covering 196.11 ha of area for 10 crops were conducted<br />

across various regions. Similarly, during Kharif <strong>2011</strong>,<br />

678 demonstrations covering 263.80 ha and 6 crops<br />

were conducted at different locations of operations of<br />

the partners.<br />

Rabi 2010-11<br />

● At Gorakhpur, wheat variety HD 2733 gave yield<br />

(4.09 t/ha) advantage of 47.13% over the local check<br />

followed by HD 2985 (3.35 t/ha.)<br />

● At Dola, UP, wheat variety HD 2894 (5.42 t/ha)<br />

outperformed HD 2851 (5.13 t/ha) and the local<br />

check PBW 343 (4.0 t/ha). The B:C ratio for above<br />

IARI varieties were 3.25, 3.01 respectively.<br />

● At Aligarh, HD 2932 (4.95 t/ha) gave 33.22% of yield<br />

advantage over local (3.54 t/ha).<br />

● Mustard (Pusa Vijay) : Badly affected with white<br />

rust and aphids at Jammu.<br />

● At Gorakhpur, Pusa Jagannath (2.87 t/ha) gave 37%<br />

more yield over local variety (2.1 t/ha).<br />

● Gram (BGD 72) gave an average yield of 2.94 t/ha<br />

at Gorakhpur, which was 30% higher to farmers<br />

own seed (1.34 t/ha).<br />

● Lentil (L 4076) gave an average yield of 1.79 t/ha,<br />

which was 31% more than the local check with B:<br />

C ratio of 3.85.<br />

Kharif <strong>2011</strong><br />

● Paddy variety P 1121 was demonstrated at<br />

Dehradun (UK), Hisar (Har), Baghpat (UP) and<br />

Bilaspur (HP). The average yield ranged from 4.52<br />

t/ha to 3.0 t/ha. The highest was at Bilaspur (HP)<br />

and lowest at Dehradun. However, its BC ratio was<br />

7.5 at Dehradun while it was 1.77 at Hisar. The<br />

farmers like this variety due to good tillering and<br />

its high market price.<br />

121<br />

● Demonstrations on paddy variety P 2511 were<br />

conducted in Gorakhpur, and Lucknow in UP,<br />

Bilaspur (HP) and Chhapra (Bihar). Its average<br />

yield was 4.82 t/ha in Bilaspur. Farmer preferred<br />

this variety for its high yielding and short duration<br />

character. Its average yield in Bihar was 5.15 t/ha<br />

in comparison to local Sona Mansun variety<br />

resulting in 47.12 % increase in the yield.<br />

● A total of 81 demonstrations of P 44 were<br />

demonstrated in Eastern Region of UP, Kerala, West<br />

Bengal and Dehradun. It yielded 5.4 t/ha in Bihar,<br />

which was 52.29% higher than the local check. This<br />

variety gave 86% higher yield at Dehradun in<br />

comparison to local variety Kasturi (2.9 t/ha). At<br />

Kerala there was average increase in yield was up<br />

to 40%. There was no specific pest infestation. The<br />

best trait of variety was abundant growth and good<br />

straw yield.<br />

● Twenty six on-farm assessments of PRH 10 were<br />

conducted in eastern UP and Bihar. In eastern UP,<br />

the average yield obtained was 4.6 t/ha (local Saryu<br />

52: 2.08 t/ha). PRH 10 is definitely a higher yielding<br />

hybrid with better grain quality. Since it matures<br />

only in about 110 days, the farmers felt that they<br />

can take potato and any other short duration crop<br />

after harvesting of PRH 10 followed by a short<br />

duration variety of wheat, say Halna which<br />

matures in 100 days and does well even if planted<br />

in first week of January. In Bihar, there was 73.57%<br />

higher yield of this variety in comparison to local<br />

(3.5 t/ha) with B:C ratio of 1.89.<br />

● In West Bengal, paddy varieties Pusa 44 and PNR<br />

381 were assessed. All the varieties gave higher<br />

yield than local check. The average increase in yield<br />

was up to 15.86 %. The BC ratio of variety PNR 381<br />

was 1.86. The extent of infestation of disease was<br />

than 5%. All the varieties have potential for<br />

adoption in the area. Best traits of the variety PNR<br />

381 are higher yield and better market price.<br />

● Bhindi variety Pusa A4 gave an average yield of<br />

12.5 t/ha in Gorakhpur region. In Jhalawar Region,<br />

however, average yield of 6.75 t/ha in comparison<br />

to 6.0 t/ha yield of local check variety with CB ratio<br />

of 1: 3.44 was found.<br />

● Pigeon pea variety P 992 gave an average yield of<br />

1.85 t/ha as compared to yield of local variety (1.43<br />

t/ha) at Chhapra, Bihar.


6.3.6 Pusa Krishi Vigyan Mela-2012<br />

The annual Krishi Vigyan Mela of the <strong>Indian</strong><br />

<strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong>, New Delhi on the<br />

theme “Prosperity through Innovative Farm<br />

Technologies” was organised from 1 st to 3 rd March 2012.<br />

Farm technologies developed by IARI for enhanced<br />

productivity and income were displayed in the<br />

thematic pandal. Besides 35 stalls of ICAR <strong>Institute</strong>s, 6<br />

KVKs, 46 private companies, 2 news papers, 29 NGOs<br />

and 12 Public Sector Undertakings, participated in the<br />

mela to demonstrate their technologies / products for<br />

display or sale. There were ten stalls exclusively<br />

devoted to show the innovations developed by the<br />

farmers. About twenty five progressive farmers from<br />

Extension Operational Areas of the <strong>Institute</strong> also putup<br />

their stalls for display and sale of their farm produce.<br />

Farmers were provided free of cost consultancy service<br />

like soil testing, mushroom cultivation etc., at the mela<br />

site by various agricultural experts.<br />

More than 1,00,000 visitors from different parts of<br />

the country including farmers, farm women, extension<br />

workers, entrepreneurs, students and others visited the<br />

mela. Three technical sessions were organised as a part<br />

of the farmers-scientist-industry interface on different<br />

themes. In addition to these, a ‘Women Empowerment<br />

Workshop’ was also organized in which more than 5000<br />

farm-women and farm-men from different parts of the<br />

country participated. Over 21.5 t of seeds of high<br />

yielding varieties of different crops were sold through<br />

Pusa Seed Sale Counter during the mela period. In<br />

recognition of the outstanding contributions in<br />

technology development and dissemination in<br />

partnership with IARI, seven farmers from different<br />

122<br />

parts of the country were bestowed with “IARI Fellow”<br />

award. Thirty two progressive farm-men and farmwomen<br />

from different States of the country were<br />

honoured for their innovations in the field of<br />

agriculture.<br />

6.3.7 Off-campus Exhibitions<br />

The Centre for <strong>Agricultural</strong> Technology<br />

Assessment and Transfer (CATAT), <strong>Indian</strong> <strong>Agricultural</strong><br />

<strong>Research</strong> <strong>Institute</strong>, New Delhi participated in 12<br />

National and International Exhibitions during <strong>2011</strong>-<br />

2012. These exhibitions were organised in the states of<br />

Uttar Pradesh, Delhi, Rajasthan, Chhattisgarh, Jammu<br />

& Kashmir, Haryana, Punjab and Uttrakhand. IARI<br />

received the First Prize at the Kisan Mela Avam Pashu<br />

Vigyan Pradarshni at the <strong>Indian</strong> Veterinary <strong>Research</strong><br />

<strong>Institute</strong>, Izatnagar and the Second Prize at Mustard<br />

Vigyan Mela organized by DRMR, Bharatpur for the<br />

excellent display of the exhibits, live materials and<br />

literature. Sale of IARI seed was also conducted in the<br />

exhibitions.<br />

6.3.8 Training Programmes Conducted<br />

6.3.8.1 Trainings for farmers and extension<br />

workers<br />

CATAT and ATIC organized 17 on-campus training<br />

programmes for agricultural officials and progressive<br />

farmers. These programmes were attended by 429<br />

participants from Uttar Pradesh, Uttrakhand, Bihar,<br />

Assam, Rajasthan and NCR of Delhi. The major areas<br />

covered were good agriculture practices (GAP) in<br />

agriculture, organic farming, post-harvest<br />

management, soil and water management, integrated


nutrient management, nursery management and value<br />

addition in agricultural and horticultural produce.<br />

These programmes were sponsored by SIRD (Assam),<br />

Delhi Development Department, NAIP, ATMA (Patna)<br />

and ATMA Jhalawar, Rajasthan.<br />

6.3.8.2 Model training course on “Micro<br />

Enterprise Promotion in Agriculture and Allied<br />

Areas”<br />

CATAT organised an eight days model training<br />

course on “Capacity Building of Development<br />

Department Personnel on Micro Enterprise Promotion<br />

in Agriculture and Allied Areas” sponsored by the<br />

Directorate of Extension, Government of India in<br />

September <strong>2011</strong>. Thirty two trainees from eleven states<br />

of the country and from various State agricultural and<br />

allied departments participated in the training. The<br />

major objective of the course was to sensitize and<br />

enable the extension personnel and officials for<br />

conceptual comprehension and skills inculcation for<br />

promoting micro-enterprise in agriculture and allied<br />

fields.<br />

6.3.9 <strong>Agricultural</strong> Technology Information<br />

Centre (ATIC)<br />

6.3.9.1 Services rendered by ATIC<br />

The <strong>Agricultural</strong> Technology Information Centre<br />

(ATIC) is based on a single window concept and<br />

provides farm information advisory services, sale of<br />

seeds and other critical inputs to different stakeholders<br />

at one location and contact point for guidance of<br />

farmers and other agri-entrepreneurs visiting the<br />

institute for varied purposes. A total number of 21,509<br />

farmers / entrepreneurs, development department<br />

officials, students, and NGO representatives from 22<br />

states of India visited ATIC during the year for farm<br />

advisory, diagnostic services, purchase of technological<br />

inputs/ products and trainings. Maximum number of<br />

farmers visited ATIC to purchase seeds or inquire about<br />

seeds and varieties (11,055).This was followed by those<br />

seeking horticultural and medicinal plants related<br />

information (6021), plant protection (1552), agro-based<br />

enterprises (1135), farm literature (4546), dairy (240),<br />

agricultural implements (745). State-wise, out of total<br />

farmers visiting ATIC, Uttar Pradesh. ranked first (28<br />

%), followed by Haryana (21%), Delhi (18 %), Rajasthan<br />

123<br />

(16%) and others (17%). Besides farm advisory services<br />

to visiting farmers, ATIC also provides farm advice<br />

through Pusa Agri Com 1800-11- 8989 (toll free), Pusa<br />

Helpline (011-25841670), exhibitions, farm literature<br />

and letters. A Level II Kisan Call Centre (1800-180-1551)<br />

has also been established at ATIC for addressing the<br />

problems and queries of farmers of Delhi state, which<br />

are escalated from level I. These lines were used by<br />

5028 farmers / entrepreneurs from 18 states to get<br />

information about seed availability (2875), production<br />

technology (2205), plant protection (1205), agro-based<br />

enterprises (645), literature (651), biofertilisers (357) and<br />

others (780). ATIC’s telephone based information<br />

delivery services hold immense potential for reaching<br />

the distant farmers in time.<br />

Sale of seeds at ATIC<br />

6.3.9.2 State of the art technologies<br />

ATIC has been using state-of-the-art technologies<br />

such as touch panel computer display systems, screen<br />

rollers, illuminated display panels and models, to<br />

demonstrate important IARI technologies in crop<br />

production including nutrient and water management<br />

to visiting farmers. A unit of bee keeping (apiary) with<br />

4 bee hives has been established in ATIC which can be<br />

a source of information for starting an agro-based<br />

enterprise for visiting rural youths and farmers. A biogas<br />

plant (Gobar gas plant) of 4 cubic meter size has<br />

been constructed as a demonstration on sustainable<br />

farming system and adoption of eco friendly<br />

technologies. Drip irrigation system has been installed<br />

in ATIC crop cafeteria for demonstrating water saving<br />

technology to the visiting farmers.


Touch Screen Computer Display Panel at ATIC<br />

6.3.9.3 Technology products and publications<br />

Technology products and publications worth about<br />

`15.37 lakhs and ` 0.95 lakhs, respectively, were sold by<br />

ATIC during <strong>2011</strong>-12. Two bulletins on Kharif Fasalon ki<br />

Kheti, Sabji Fasalon ki Utpadan Taknikiya, Fal Evam Foolon<br />

ki Kheti and Four issues of farm magazine Prasar Doot<br />

were published by the centre during the reporting<br />

period. Fifteen Pamphlets (reprints) on cereals, pulses,<br />

vegetables and fruit crops were distributed free to<br />

visiting farmers. More than 36 farmers got farm advisory<br />

services through letters/e-mails during the period.<br />

6.3.9.4 Upgradation of crop cafeteria<br />

ATIC’s Crop Cafeteria has been upgraded to high<br />

intensity field crop based cropping system<br />

demonstrations involving following sequence.<br />

1. Wheat (November to April)- summer mung (April<br />

to June) - rice (July to November)<br />

The crop cafeteria at ATIC<br />

124<br />

2. Wheat (November to April)-green manuring (April<br />

end to June) - rice (July to October)<br />

3. Wheat (November to April)- green manuring<br />

(April to June) - arhar (July to November End)<br />

4. Wheat (November to April)- green manuring<br />

(April to June) followed by bajra for forage (July to<br />

September) followed by mustard (October to<br />

March)<br />

These live demonstrations included a mix of cereal,<br />

pulse, oilseed, fodder and vegetable varieties. For<br />

generating awareness about medicinal plants, small<br />

plots of aloe vera, ashwagandha, satavar, coleus, giloe,<br />

mushkdana, kalmegh, sadabahar, konch, mint, tulsi<br />

(basil), lemon grass, Java citronella, etc. have been<br />

developed. High density fruit trees orchard of lemon<br />

(Kagzi Kalan), mango (Amrapali), guava (Lucknow<br />

49, Allahabadi Safeda and Lalit), ber (Banarasi Karaka<br />

and Gola) and aonla (NA -7, NA -10, Lakshmi 52,<br />

Chakaiya)<br />

Demonstration of Pusa Basmati<br />

1 (Pusa 1460)<br />

Demonstration of HD 2967<br />

6.3.10 Krish Vigyan Kendra, Shikopur,<br />

Gurgaon<br />

6.3.10.1 Front line demonstrations<br />

Under KVK scheme. During Rabi 2010-11 and Kharif<br />

<strong>2011</strong>, 107 FLDs in 41.40 ha were conducted for<br />

disseminating location-specific technologies in<br />

oilseeds, pulses and cereal crops.<br />

Sponsored front line demonstrations. During Rabi<br />

2010-11, the KVK organized 22 demonstrations on


FLDs organized at the farmers’ field during 2010-11<br />

Season Crop Varieties No. of Area Yield Increase<br />

Demos (ha) (kg/ha) (%)<br />

Rabi 2010-11 Demo Local<br />

Mustard Pusa Vijay 47 20.00 2152 1935 11.21<br />

(Krishna)<br />

Gram Pusa 1103 07 2.00 1728 1625 6.34<br />

(HC 1)<br />

Barley BH 393 10 4.00 5256 4860 8.15<br />

(PL 426)<br />

Wheat HD 2894 05 2.00 5118 4660 7.52<br />

(PBW 343)<br />

HD 2851 05 2.00 5089 -do- 6.71<br />

Total Rabi 74 30.00<br />

Kharif <strong>2011</strong> Arhar Pusa 2001 10 4.00 1888 1795 5.18<br />

(Manak)<br />

Summer Moong SML 668 13 4.00 582 First time -<br />

introduction<br />

Paddy Pusa 1121 06 2.00 3734 3525 5.93<br />

(PB 1)<br />

Bhindi (Okra) Pusa A-4 03 1.20 7596 7213 5.31<br />

(Local)<br />

Bottle gourd P. Naveen 01 0.20 15700 14925 5.19<br />

(Local)<br />

Total Kharif 33 11.40<br />

Grand Total 107 41.40<br />

wheat and barley over an area of 13 ha sponsored by<br />

the Directorate of Wheat <strong>Research</strong> (DWR), Karnal and<br />

53 demonstrations on wheat, mustard, gram, paddy,<br />

FLDs sponsored by Directorate of Wheat <strong>Research</strong> (DWR)<br />

Season Crop Varieties No. of Area Yield Increase<br />

Demos (ha) (kg/ha) (%)<br />

125<br />

Demo Local<br />

Rabi 2010-11 Wheat DBW 17 09 5.00 4932 4660 3.60<br />

(PBW 343)<br />

Barley RD 2668 13 8.00 5184 4860 6.66<br />

(PL 426)<br />

Total 22 13.00<br />

pearl millet and moong on 29.20 ha on farmers’ fields<br />

under National Extension Programme.


FLDs sponsored under National Extension Programme<br />

Season Crop Varieties No. of Area Yield Increase<br />

Demos (ha) (kg/ha) (%)<br />

126<br />

Demo Local<br />

Rabi 2010-11 Wheat HD 2851 02 0.80 5240 4760 10.08<br />

(PBW 343)<br />

HD 2932 02 0.80 5635 -do- 18.38<br />

HD 2894 02 0.80 5401 -do- 13.46<br />

Total 06 2.40<br />

Mustard Pusa Vijay 13 5.20 2246 1935 16.07<br />

(Krishna)<br />

Pusa Jagannath 05 2.00 2178 -do- 12.35<br />

Total 18 7.20<br />

Gram BGD 72 01 0.40 1816 1625 11.70<br />

(local)<br />

Total Rabi 25 10.00<br />

Kharif <strong>2011</strong> Paddy PB 1121 04 1.60 3565 3525 11.20<br />

(PB 1)<br />

PB 1401 02 0.80 3606 -do- 2.30<br />

Total 06 2.40<br />

Pearl millet HHB 197 09 6.80 3600 3170 13.50<br />

( Pioneer)<br />

PA 9444 05 4.80 3550 -do- 11.90<br />

JK 26 05 4.00 3520 -do- 11.00<br />

H 4201 01 0.40 3490 -do- 10.00<br />

Total 20 16.00<br />

Moong Pusa Vishal 02 0.80 823 — —<br />

Total Kharif 28 19.20<br />

Grand Total 53 29.20<br />

Mustard (P Vijay) demonstration by KVK Demonstration of barley (BH 393) by KVK


6.3.10.2 Training programmes conducted for<br />

different target groups<br />

Several training programmes on diverse topics<br />

were organized for various target groups to equip them<br />

with skills and knowledge to enhance their incomes<br />

and apprise farmers about developments in production<br />

technologies. Vocational trainings for income<br />

generation and employment enhancement were<br />

organized in the areas of dress making, dairy<br />

management, kitchen gardening, nursery<br />

management, plant protection and pest control<br />

services, vermicomposting, bee-keeping and value<br />

addition and agro-processing. Discipline-wise,<br />

programmes were organized in the disciplines of crop<br />

production, dairy management, horticulture, plant<br />

protection, post-harvest management and agricultural<br />

engineering. Around 1028 participants attended the<br />

Disseminating the technology for vermicomposting through<br />

demonstration<br />

Type of training with No. of No. of<br />

target groups programmes beneficiaries<br />

Male Female Total<br />

Vocational trainings for<br />

rural youth and girls 20 227 164 391<br />

Day long on/off campus<br />

trainings for farmers and<br />

farm women 59 891 137 1028<br />

In-service (refresher course) 07 137 — 137<br />

trainings for field extension<br />

functionaries<br />

Total 86 1255 301 1556<br />

127<br />

various programmes organised. Refresher courses for<br />

in-service candidates were organized in integrated<br />

plant nutrient management, IPM, livestock production<br />

and management, participatory rural management,<br />

and first aid in animals. The beneficiaries of these<br />

courses numbered 137. In addition to these, one<br />

programme on “Skill Development in Horticulture”<br />

was organized. This programme was sponsored by<br />

Gramin Bank.<br />

6.3.10.3 On-farm testing<br />

Forty on-farm trials were conducted on different<br />

field/farm based problems and two trials were<br />

conducted on animal based problems. The OFTs were<br />

conducted with the active participation of farmers and<br />

recommendations were developed based on the<br />

results.<br />

Name of the On-Farm Testing Trial No. of<br />

Trials<br />

Rabi 2010-11<br />

Management of pod borer in gram 03<br />

Management of stem rot in mustard 04<br />

Varietal evaluation in rabi crops 12<br />

(mustard, barley and wheat)<br />

Total 19<br />

Kharif <strong>2011</strong><br />

Varietal evaluation of arhar 04<br />

Varietal evaluation of pearl millet 03<br />

Leaf blight management in marigold 03<br />

Effect of plant hormones on size & uniformity 03<br />

of flowering and yield in African marigold<br />

Effect of plant hormones to control fruit dropping 03<br />

in young orchards of lemon<br />

Varietal evaluation in kharif onion 03<br />

Effect of different deworming drugs 01<br />

on calf mortality (10 calves)<br />

To test efficiency of mineral mixture on 01<br />

reproductive performance in buffalo (10 buffalo)<br />

Total 21<br />

Grand Total 40


6.3.10.4 <strong>Agricultural</strong> extension activities and<br />

farm advisory services<br />

For dissemination of technologies among the<br />

farming community, the KVK organized various<br />

extension activities in the villages as well as at KVK<br />

campus. Over 500 activities were organized. These<br />

activities included field days, radio and television talks,<br />

lectures by subject matter specialists, field visits by SMS<br />

to farmers’ fields, exhibitions, soil and water testing,<br />

special days to commemorate world food day, women<br />

in agriculture, technology weeks, and farm advisory<br />

services over telephone. KVK continued to publish a<br />

quarterly newsletter in Hindi “Krishi Vigyan Patrika”,<br />

which provides information on technological<br />

developments and production related information to<br />

farmers at their doorstep.<br />

KVK observing Technology Week<br />

6.3.11 Regional Station, Pusa, Bihar<br />

Four frontline demonstrations were laid out in<br />

Samastipur and Muzaffarpur districts of Bihar. The<br />

Frontline demonstrations were conducted on the use<br />

of bio-fertilizers, Azatobactor and PSB (1), zero tillage<br />

(1) and new variety (2). With a view to popularize IARI<br />

wheat varieties, among farmers, forty-nine<br />

demonstrations of four timely sown wheat varieties<br />

(HD 2733, HD 2824, K 307 and HP 1761) and four late<br />

sown wheat varieties (HD 2985, WR 544, HI 1563 and<br />

PBW 373) were laid out in five districts of Bihar. The<br />

response of farmers was very encouraging. Among<br />

timely sown varieties, HD 2824 and K 307 preformed<br />

128<br />

very well with average wheat yields ranging from 4.955<br />

t/ha. Similarly among late sown varieties, HD 2985, WR<br />

544 and PBW 373 performed well with average yields<br />

around 4.4 t/ha. Twenty demonstrations of papaya cv.<br />

Pusa Dwarf (20 plants each) were given to the farmers<br />

of Samastipur, Muzaffarpur and Vaishali districts of<br />

Bihar with a purpose of popularizing cultivation of<br />

papaya and upscaling to commercial level.<br />

6.3.12 Regional Station, Indore, Madhya<br />

Pradesh<br />

Forty-four FLDs of 11 recently released IARI wheat<br />

varieties were conducted in 23 hectares in 11 villages<br />

of tribal and backward regions of Dhar and Indore<br />

districts of Madhya Pradesh. Average increase in grain<br />

yield was 36% in these demonstrations. In addition to<br />

this, under the NAIP Project on “Strategies to enhance<br />

adaptive capacity to climate change in vulnerable<br />

regions”, 268 demonstrations of 5 wheat varieties (HI<br />

1500, HI 1531 and HI 1544 of bread wheat and HI 8627<br />

and HI 8638 of durum wheat) were conducted in 60<br />

hectares area, and 233 demonstartions of three gram<br />

varieties (JG 11, JG 16, and JG 130) were conducted in<br />

45 hectares area in tribal and backward regions of Dhar<br />

district of Madhya Pradesh. Average yield increase for<br />

wheat was 10%, while that in gram was 22 % in these<br />

demonstrations.<br />

Hon’ble Member of Parliament (Rajya Sabha) Dr. M.S.<br />

Swaminathan delivering speech during Diamond Jubilee of IARI<br />

Regional Station, Indore<br />

The Station also celebrated it Diamond Jubilee on<br />

March 24, 2012. On this occasion Dr. M.S. Swaminathan<br />

delivered a speech laying emphasis on the need of


esearch in durum wheat as well as its extension to<br />

minimize chances of rust epidemics and to reduce<br />

prevalent malnutrition. An extension bulletin “Madhya<br />

Bharat Main Malvi Gehoon Ki Kheti–Avasyakta Aur<br />

Upyogita” and a technical bulletin”60 Years of Wheat<br />

<strong>Research</strong>: IARI Regional Station, Indore” were released<br />

on this occasion.<br />

6.3.13 Regional Station, Katrain<br />

Forty- two field demonstrations of different<br />

vegetables were conducted on farmers’ fields and the<br />

varieties showed 15 to 28 % higher yield over the check.<br />

Exhibitions were conducted and technical information<br />

on production of improved vegetables was<br />

disseminated to farmers during the Kullu Dussehra<br />

festival.<br />

6.3.14 Regional Station, Karnal<br />

Under the seed village programme, seed<br />

production was undertaken on 16 ha area in Kharif <strong>2011</strong><br />

(paddy cv 1121) and 16 ha area in Rabi <strong>2011</strong>-12 (wheat<br />

cv HD 2967) in three villages of Karnal district for<br />

horizontal spread of seeds from farmer to farmer. In<br />

addition to this, 15 training programmes were<br />

organized on various aspects of quality seed<br />

production. The aeas covered in the different training<br />

programmes included seed agronomy, weed control,<br />

disease and insect management, genetic purity,<br />

129<br />

harvesting and post harvest management. The target<br />

group included resource poor farmers, especially farm<br />

women, who actively participated in the programme.<br />

6.3.15 Regional Station, Wellington<br />

The Station conducted front line demonstrations<br />

on 20 ha of land for successfully promoting wheat as<br />

an alternate viable crop in Southern Hills Zone. The<br />

varieties promoted are CoW(W) 1, HW 5207, CoW 2<br />

and HD 2833. The adoption of this crop by the farmers<br />

can be an important means of enhancing incomes of<br />

resource poor farmers in non-traditional wheat<br />

growing areas.<br />

6.3.16 Regional Station, Shimla<br />

A total of 8 front line demonstrations were<br />

conducted by the Shimla Station in different villages<br />

of Himachal Pradesh for popularizing newly released<br />

rust resistant wheat and barley varieties among the<br />

farmers. A farmers’ day was organized in February 2012<br />

which was attended by 29 farmers from Mandi district.<br />

A farmers-scientists interaction was held to discuss the<br />

problems and prospects of wheat and barley cultivation<br />

in the hills. Farmers took keen interest in wheat and<br />

barley varieties developed at the Centre. They were<br />

acquainted with wheat varieties developed at this<br />

Centre, also suitable for cultivation in North-Eastern<br />

region.


7. EMPOWERMENT OF WOMEN AND<br />

MAINSTREAMING OF GENDER ISSUES<br />

The contribution of rural women in the agricultural and allied sectors is significant. Even more significant is the<br />

role that they play as managers of their homes. Various capacity building activities were taken up by the <strong>Institute</strong><br />

to equip women with the skills necessary to enhance their incomes and employment through increased<br />

participation and efficient management of their work in agriculture. Trainings were also organised to create<br />

greater awareness among women about home management and nutrition.<br />

7.1 CAPACITY BUILDING OF SELF<br />

HELP GROUPS FOR GENDER<br />

EMPOWERMENT<br />

Exposure visit of women SHG members from Nooh<br />

(Mewat), Haryana was organized to sensitise them<br />

about the latest agricultural technologies developed<br />

at IARI for higher income and productivity. Literature<br />

was provided to them on package of practices of<br />

various crops. Linkage through toll free Pusa Agricom<br />

was also introduced to them. Efforts were made to<br />

link up SHG women given training for non-farm<br />

enterprise establishment with the market which<br />

included “skill test” and “selection” by an export<br />

organization and linking up with the local markets<br />

for purchase of raw materials and sale of finished<br />

products.<br />

130<br />

Capacity building programmes for women<br />

empowerment were also organized in village Badarpur<br />

Said and Dhani Kumbhavas. Two trainings on post<br />

harvest processing of seasonal vegetables, tomato,<br />

cauliflower, carrot, and peas were organized in Badarpur<br />

Said, in which 50 farm women participated. The trained<br />

women farmers made an average of 10 kg of ketchup at<br />

their household level. In village Dhani Kumbhavas,<br />

training on disease management in milch animals,<br />

nursery management of horticultural crops and one<br />

month training on tailoring was conducted. About 100<br />

farm women from all four villages participated in a<br />

NABARD sponsored on campus training on value<br />

addition in dry flowers in collaboration with Floriculture<br />

and Landscaping Division, IARI.<br />

The KVK, Shikopur took several initiatives targeted<br />

towards the capacity building of rural farm women.<br />

Name of activity No. of Activities No. of Beneficiaries<br />

A Vocational trainings<br />

• Dress designing & tailoring 01 50<br />

• Dairy management 02 58<br />

• Preservation of fruits & vegetables 01 18<br />

• Post harvest technology of marigold flower 01 20<br />

B Agriculture extension and farm advisory service<br />

Total 05 146<br />

• Celebration of women’s day as agriculture day 01 35<br />

• Method demonstration 08 82<br />

• Day long trainings in villages 08 153<br />

• Women’s visit in agricultural fairs 03 180<br />

Total 20 450<br />

Grand Total 25 596


The important programmes and activities organized<br />

for rural women during the period included<br />

• Vocational training courses for self employment<br />

and income generation.<br />

• Trainings in villages for updating the farm<br />

knowledge/skills.<br />

• Method demonstration for skill development<br />

• Visit of rural women in agriculture fairs and<br />

exhibitions.<br />

• Celebration of women’s day as agriculture day<br />

Training programme in value addition for rural women<br />

As shown in the table above, a total number of 25<br />

activities were organized for rural women during the<br />

period and through these activities 596 rural women<br />

were benefited. Out of 596 participants, 12.5% belonged<br />

to SC, 64% to OBC and 23.50 % to other categories.<br />

Capacity building modules on Management<br />

Development, Communication, Enterprise<br />

Establishment and ICT applications, selected on the<br />

basis of Training Needs Assessment of women SHGs<br />

were designed. Appropriate training methods and<br />

technologies were chosen for different types of learning<br />

such as cognitive knowledge, development of<br />

behavioural skills and development of awareness.<br />

Modules included participatory methods, simulation<br />

exercises, projective techniques, role play and case<br />

analysis etc. which will result in improvement in the<br />

knowledge (Cognitive Dimension), skill (psychomotor<br />

Dimension) and awareness (affective dimension) of<br />

SHG women. This in turn will result in enhancing the<br />

effectiveness and sustainability of SHGs.<br />

131<br />

Vocational training for rural women on<br />

dress designing and tailoring<br />

7.2 IMPACT OF SHGs ON WOMEN<br />

EMPOWERMENT<br />

A SWOT analysis of data collected from 200 women<br />

SHG members from Ganderbal (Jammu and Kashmir),<br />

Chitrakoot (Madhya Pradesh), Patna (Bihar) Jhunjhunu<br />

and Chittorgarh (Rajasthan), Kurukshetra, Ambala,<br />

Jhajjar (Haryana) and Hapur (Uttar Pradesh) revealed<br />

that besides increase in income as the major factor,<br />

enrollment of critical mass of women SHG in the<br />

village, formation of federation, involvement in<br />

community action, access to regular schemes of the<br />

government, networking and group affiliation were the<br />

factors that most influenced the sustainability of SHGs.<br />

The impact of SHG formation on empowerment<br />

dimensions was perceived to be maximum for self<br />

development followed by economic, social and political<br />

empowerment.<br />

Interaction with members of self-help groups


8. POST-GRADUATE EDUCATION AND<br />

INFORMATION SYSTEM<br />

The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> is India’s largest and foremost <strong>Institute</strong> in the field of agricultural<br />

research and higher education and training. A formal course leading to a two year diploma, ‘Associateship of<br />

IARI’ in various fields of agriculture was started in 1923, which was awarded to 903 graduates up to 1957. The<br />

P.G. School of IARI was accorded the status of a “Deemed University” in 1958 and has since been engaged in<br />

providing high quality agricultural education at the post-graduate level in the country. Keeping the tradition of<br />

the glorious past, the PG School endeavours to scale newer heights in agricultural research, education, and training<br />

through upgradation of course curriculum and by adopting new methods of teaching.<br />

8. POST-GRADUATE EDUCATION<br />

8.1.1 Admission during the Academic<br />

Session <strong>2011</strong>-12<br />

The Post Graduate School of IARI continues to<br />

attract a large number of students seeking admission<br />

to various PG courses in all five categories of<br />

admission, viz., open competition, faculty upgradation,<br />

ICAR in-service nominees, departmental<br />

candidates and foreign students. The admissions to<br />

the Ph.D. programme are made on the basis of<br />

candidates’ performance in a national level entrance<br />

examination conducted in different parts of the<br />

country followed by an interview. While the<br />

admissions to the M.Sc. programme are made on the<br />

basis of an ‘All-India Entrance Test’ conducted by the<br />

Education Division of the <strong>Indian</strong> Council of<br />

<strong>Agricultural</strong> <strong>Research</strong>. The foreign students are<br />

admitted through DARE, Ministry of Agriculture.<br />

During the academic year <strong>2011</strong>-12, two hundred sixty<br />

one students were selected for admission to various<br />

M.Sc. and Ph.D. courses as per details given below.<br />

Category M.Sc. Ph.D. Total<br />

Open Competition 108 138 246<br />

Foreign Students 4 11 15<br />

Total 112 149 261<br />

132<br />

8.1.2 Golden Jubilee Convocation of the<br />

<strong>Institute</strong><br />

The Golden Jubilee Convocation of the P.G. School<br />

of the <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> was held<br />

on February 20, 2012. Hon’ble Prime Minister of India,<br />

Dr. Manmohan Singh, was the Chief Guest. Hon’ble<br />

Union Minister of Agriculture and Food Processing<br />

Industries, Shri Sharad Pawar, presided over the<br />

function. Hon’ble Union Minister of State for<br />

Agriculture, Food Processing Industries and<br />

Parliamentary Affairs, Shri Harish Rawat; Hon’ble<br />

Ministers of State for Agriculture and Food Processing<br />

Industries, Dr. Charan Das Mahant; Hon’ble Member<br />

of Parliament (Rajya Sabha), Dr. M.S. Swaminathan;<br />

Dr. S. Ayyappan, Secretary, Department of <strong>Agricultural</strong><br />

<strong>Research</strong> and Education (DARE) and Director-General,<br />

<strong>Indian</strong> Council of <strong>Agricultural</strong> <strong>Research</strong> (ICAR) and<br />

several other dignitaries graced the ceremony. Dr. H.S.<br />

Gupta, Director, IARI in his welcome address<br />

highlighted the salient achievements of the <strong>Institute</strong>.<br />

In his Convocation Address, Dr. Manmohan Singh<br />

appreciated the significant research and academic<br />

contributions made by the <strong>Institute</strong> in the upliftment<br />

of agriculture and rural India. While addressing a large<br />

gathering of scientists/students/guests Dr. Singh said,<br />

“We have adopted a multi-pronged strategy to improve<br />

returns to farming and step up investment in rural<br />

infrastructure. Our flagship programme Bharat Nirman


has focussed on increasing investment in rural roads,<br />

rural electrification, irrigation, rural housing and rural<br />

communications. We launched the Mahatma Gandhi<br />

National Rural Employment Guarantee Programme<br />

which is both a safety net for the poor and also a<br />

powerful instrument for undertaking works that will<br />

enhance land productivity. We launched the Rashtriya<br />

Krishi Vikas Yojana and the Rainfed Areas<br />

Development Programme. These policies have begun<br />

to pay off and the country has reached new plateaus in<br />

foodgrain production. Food production at the end of<br />

the XI Plan will exceed 250 million tonnes, an all time<br />

record.” He further stated, “It is estimated that we<br />

would need an addition of nearly 50 million tonnes of<br />

food grains in the next 10 years to meet domestic<br />

demand. Increased production of foodgrains is<br />

certainly an important plank of food security and our<br />

efforts to rid the country of the scourge of malnutrition.<br />

We would need to produce more fruits & vegetables<br />

and protein rich products such as milk, eggs, fish and<br />

meat.” The Prime Minister exhorted the agricultural<br />

scientists and students to pursue a multi-pronged<br />

strategy which seeks to boost productivity and<br />

production through product-specific interventions.<br />

A Ph.D. student receiving his degree certificate from<br />

Dr. Manmohan Singh, Hon’ble Prime Minister of India at the<br />

convocation. Also seen in the picture is Dr. H.S. Gupta, Director,<br />

IARI (centre)<br />

At the Golden Jubilee Convocation 202 candidates<br />

(120 M.Sc. and 82 Ph.D.) including 18 international<br />

students were awarded degrees. Mr. R. Thava Prakash<br />

Pandian (M.Sc., Plant Pathology) and Dr. Shailendra<br />

133<br />

Kumar Jha (Ph.D., Genetics) received the “Best Student<br />

of the Year Award”. Five students each in M.Sc. and<br />

Ph.D. also received IARI Merit Medals.<br />

The Degree of Doctor of Science (Honoris Causa)<br />

was conferred on Dr. Manmohan Singh, for his<br />

outstanding contributions acclaimed internationally in<br />

the field of Economics. The degree was presented by<br />

Shri Sharad Pawar.<br />

Dr. Manmohan Singh, Hon’ble Prime Minister of India,<br />

Government of India receiving the Degree of Doctor of Science<br />

(Honoris Causa) from Shri Sharad Pawar, Hon’ble Union Minister<br />

of Agriculture at the convocation<br />

The first “Dr. A.B. Joshi Memorial Award” for the<br />

biennium <strong>2011</strong>-2012 consisting of a cash prize of<br />

` 1,00,000/-, a medal and a citation was awarded to<br />

Dr. R.S. Paroda, Chairman, Farmers’ Commission of<br />

Haryana for his invaluable contributions in the field of<br />

agricultural research and education. Dr. Pious Thomas,<br />

Principal Scientist, IIHR, Bengaluru received the 12 th<br />

“Shri Hari Krishna Shastri Memorial Award” for the<br />

year <strong>2011</strong> for conducting very useful research on<br />

molecular profiling, and marker assisted selection,<br />

besides innovative research in endophytic<br />

microbiology. Dr. Subhash Chandra, Principal Scientist,<br />

Division of Entomology, IARI received the 17 th<br />

“Sukumar Basu Memorial Award” for his excellent<br />

research contributions in developing a decision support<br />

system to facilitate simulation of growth and yield of<br />

annual crops, and Dr. R.N. Padaria, Principal Scientist,<br />

Division of <strong>Agricultural</strong> Extension was given the “Best<br />

Teacher Award” for his achievements in academics<br />

during <strong>2011</strong>.


On this special ceremony, the Chairman of<br />

the Session, Hon’ble Union Minister of Agriculture<br />

Shri Sharad Pawar also released 10 varieties of different<br />

crops developed by the <strong>Institute</strong>.<br />

Dr. R.S. Paroda, Chairman, Farmers’ Commission of Haryana<br />

receiving the first Dr. A.B. Joshi Memorial Award from<br />

Dr. Manmohan Singh<br />

The 42 nd Lal Bahadur Shastri Memorial Lecture was<br />

delivered by Dr. M.C. Saxena, Senior Advisor to the<br />

Director-General, ICARDA on February 18, 2012 on the<br />

topic “Harnessing the Potential of Dry Areas for<br />

Ensuring Food Security”. Dr. J.S. Samra, CEO, National<br />

Rainfed Area Authority, Govt. of India presided over<br />

the function. In his very informative lecture, Dr. Saxena<br />

Dr. M.C. Saxena, Senior Advisor to the Director General, ICARDA<br />

(seated 2nd from right) delivered the 42 nd Lal Bahadur Shastri<br />

Memorial Lecture, Dr.J.S. Samra,CEO, National Rainfed Area<br />

Authority, Dr. H.S. Gupta, Director & Dr.H. S. Gaur, Dean are also<br />

seen in the picture<br />

134<br />

emphasized that agriculture was expected to feed some<br />

8.3 billion people by 2030 and over 83% of those would<br />

be from developing countries. He further mentioned<br />

that by 2030, 60% more food would be needed and food<br />

security continues to be the major challenge of the<br />

international community. Dr. Saxena proposed that<br />

with available infrastructure for ARD and support for<br />

S&T innovations, urgent policy actions were needed<br />

to usher-in and sustain Green Revolution in the dry<br />

areas.The Chairman, Dr. J.S. Samra concluded with the<br />

remarks that major changes in our organizational<br />

structure, functioning and infrastructure would be<br />

required to face the emerging challenges.<br />

A national conference on “Shaping Human<br />

Resource for Global Competitiveness” and Global<br />

Alumni Meet were organized on February 18, 2012 at<br />

Dr.B.P. Pal Auditorium, to intro-spect the performance<br />

of agriculture graduates in different fields, assess the<br />

present needs and draw the future road map to meet<br />

the global challenges in agriculture. The conference was<br />

inaugurated by Hon’ble Minister of State for Agriculture,<br />

Food Processing Industries and Parliamentary Affairs,<br />

Shri Harish Rawat. Prof. V. L. Chopra, former Member,<br />

Planning Commission, Dr. S. Ayyappan, Secretary,<br />

DARE & DG, ICAR, Dr. S. L. Mehta, former VC,<br />

MPUA&T, Udaipur, Dr. H.S. Gupta, Director, IARI,<br />

Dr. H. S. Gaur, Dean and Joint Director (Education), IARI<br />

and Dr. N.K. Dadlani, Director, National Seed<br />

Association of India graced the function.The<br />

deliberations were held on two themes,viz., (i) IARI<br />

education in the global context: Striving for excelleence,<br />

and (ii) <strong>Agricultural</strong> research to meet global food security<br />

needs. The conference was attended by nearly 600 IARI<br />

alumni from India and abroad.<br />

8.1.3 National Education Day Lecture<br />

The <strong>Institute</strong> observed the National Education Day<br />

on November 21, <strong>2011</strong>. On this occasion, Dr. R.S.<br />

Paroda, Chairman, Trust for Advancement of<br />

<strong>Agricultural</strong> <strong>Research</strong> (TAAS), New Delhi, who was<br />

the chief guest, delivered a lecture on “Higher<br />

<strong>Agricultural</strong> Education System in India”. Dr. H.S. Gaur,<br />

Dean & Joint Director (Education), IARI delivered the<br />

welcome address and highlighted the significance of<br />

the National Education Day. Dr. H.S. Gupta, Director,<br />

IARI, presided over the function.


In his lecture, Dr. Paroda emphasized the need for<br />

a different breed of teachers besides training at all levels<br />

for maintaining quality in education and ensuring<br />

sustainable agricultural development. He exhorted the<br />

young scientists to engage in research that solves the<br />

problems of farmers. Dr. Malavika Dadlani, Joint<br />

Director (<strong>Research</strong>), IARI proposed a vote of thanks.<br />

Dr. R.S. Paroda, Chairman, TAAS (extreme right) and Dr. H.S.<br />

Gupta, Director, IARI lighting a lamp at the inaugural function of<br />

the National Education Day<br />

8.1.4 Dr. B.P. Pal Memorial Lecture<br />

The 18 th Dr. B.P. Pal Memorial Lecture was<br />

delivered by Dr. Yoginder K. Alagh, Chairman, <strong>Institute</strong><br />

of Rural Management, Anand on May 28, <strong>2011</strong> on the<br />

topic ‘The Future of <strong>Indian</strong> Agriculture’. In his lecture,<br />

Dr. Alagh suggested that the research systems will have<br />

to concentrate on a much larger cafeteria of crops and<br />

support to non-crop agriculture, including animal<br />

husbandry, fish and forests. The function was chaired<br />

by Hon’ble Member of Parliament (Rajya Sabha) and<br />

Chairman, M.S. Swaminathan <strong>Research</strong> Foundation,<br />

Chennai, Dr.M.S. Swaminathan.<br />

8.1.5 Institution Building in Other Countries<br />

A delegation led by Hon’ble Member of Parliament<br />

(Rajya Sabha) and Chairman, M.S. Swaminathan <strong>Research</strong><br />

Foundation, Chennai, Professor M.S. Swaminathan<br />

including Dr. H.S. Gupta, Director, IARI visited Myanmar<br />

in July, <strong>2011</strong>. The delegation observed the acute need to<br />

strengthen the agricultural research, education and<br />

extension in Myanmar and suggested to establish an<br />

Advanced Centre for <strong>Agricultural</strong> <strong>Research</strong> and<br />

135<br />

Education (ACARE) at Yezin. Later, a team led by Dr.<br />

H.S.Gaur, Dean & Joint Directors (Education) including<br />

Drs. R.K. Pal, Head, Division of Post Harvest Technology,<br />

Jitendra Kumar, pulse breeder, A.K. Singh, rice breeder,<br />

and R. Roy Burman, Senior Scientist, <strong>Agricultural</strong><br />

Extension visited the Yezin <strong>Agricultural</strong> University (YAU)<br />

and the Department of <strong>Agricultural</strong> <strong>Research</strong> (DAR),<br />

Yezin. The team had discussions with Hon’ble Rector,<br />

YAU and DG, DAR, and senior faculty members, visited<br />

the various departments, laboratories, research farms and<br />

prepared a detailed project report for the establishment<br />

of ACARE for strengthening research on improvement<br />

of rice and pulses, post harvest technology, participatory<br />

knowledge management and human resource<br />

development aimed at improving the income, living,<br />

nutritional and working conditions of the farmers and<br />

the people of Myanmar. The team also discussed the draft<br />

with His Excellency Dr. V.S. Seshadri, Ambassador of<br />

India to Myanmar, who appreciated the efforts made.<br />

The IARI has also been invited to establish<br />

Universities of <strong>Agricultural</strong> Sciences in Afghanistan<br />

and Africa.<br />

8.1.6 Modernization of PG Laboratories and<br />

Lecture halls<br />

Modernisation of PG laboratories and lecture halls<br />

was undertaken under the scheme for strengthening of<br />

PG education programme at deemed university. Teaching<br />

facilities were modernized in a number of Divisions by<br />

adding audio-visuals, LCD projectors, multi-media<br />

systems, interactive boards, etc. Some of the PG<br />

laboratories and lecture halls were renovated and<br />

refurnished. Equipments were repaired/procured,<br />

computer facilities improved and text books procured in<br />

the main Library as well as divisional libraries. Laboratory<br />

manuals were prepared in teaching disciplines.<br />

8.1.7 Training Programmes<br />

The <strong>Institute</strong> organized several national and<br />

international short-term training courses (regular, ad<br />

hoc and individual) and refresher courses in specialized<br />

areas for the scientists of National <strong>Agricultural</strong><br />

<strong>Research</strong> System (NARS) under the programmes like<br />

“Centres of Excellence” and “Centres of Advanced<br />

Studies”. Some special training courses were also<br />

organized for the benefit of professionals, farmers and<br />

extension workers.


Important training programmes organized<br />

Topic/Name of the training course Date No. of trainees<br />

Division of <strong>Agricultural</strong> Chemicals<br />

Naturally Occurring Nutraceuticals, Crop Protectants and other Biomolecules for January 23 to 22<br />

Application in Human and Crop Health February 2, 2012<br />

Health Benefitting Phytoceuticals from Vegetables, Fruits and Non-food Crops March 21-23, 2012 11<br />

Division of <strong>Agricultural</strong> Economics<br />

Quantitative Methods for <strong>Agricultural</strong> Policy <strong>Research</strong> October 17-22, <strong>2011</strong> 18<br />

<strong>Agricultural</strong> Growth, Diversification and Food Security November 15 to 13<br />

December 5, <strong>2011</strong><br />

Division of <strong>Agricultural</strong> Engineering<br />

Protected Cultivation of Horticultural Crops for Farmers June 14-17, <strong>2011</strong> 25<br />

Project Formulation, Risk Assessment, Scientific <strong>Report</strong> Writing and Presentation September 26-30, <strong>2011</strong> 18<br />

Training for Rural Youth/Farmers and Technical Staff on Dal Milling and November 23-29, <strong>2011</strong> 10<br />

Oil Expelling Operations<br />

Division of <strong>Agricultural</strong> Extension<br />

Enhancing Motivation for High Job Performance November 30 to 26<br />

December 2, <strong>2011</strong><br />

Innovative Communication Interventions for Sustainable <strong>Agricultural</strong> Development January 18 to 25<br />

February 7, 2012<br />

Vegetable Seed Production January 20, 2012 30<br />

Technology and Value Addition of Baby Corn March 20-21, 2012 100<br />

Enhancing the Adoption of Pulse Production Technologies March 21, 2012 100<br />

(Village -Jasaur Kheri, Jhajhar, Haryana)<br />

Enhancing the Adoption of Pulse Production Technologies March 23, 2012 60<br />

(Village-Padmada Khurd, Alwar, Rajasthan)<br />

Protection of Plant Variety and Farmers’ Rights at Badarpur Said, Faridabad, Haryana March 30, 2012 120<br />

Division of <strong>Agricultural</strong> Physics<br />

EDUSAT Based Off-campus Training Programme on Remote sensing, GIS and GPS August 1 to October 28, <strong>2011</strong> 46<br />

Hyperspectral Remote Sensing for Agriculture August 2-11, <strong>2011</strong> 20<br />

EDUSAT Based Off - campus Advance Training Programme on February 13 to 40<br />

Hyperspectral Remote Sensing, GIS and GPS March 30, 2012<br />

Division of Biochemistry<br />

Current Techniques & Protocols under the aegis of the December 8-28, <strong>2011</strong> 20<br />

ICAR Centre of Advanced Faculty Training (CAFT)<br />

Division of Microbiology<br />

Entrepreneurship Development Program on Biofertilizers and Compost Inoculant January 23-28, 2012 2<br />

136


Topic/Name of the training course Date No. of trainees<br />

Division of Floriculture and Landscaping<br />

Value Addition and Dry Flower Product Making for Sustainable Livelihood for March 12-14, 2012 20<br />

Farm Women at Dhani Kumbhavaas village, Gurgaon district<br />

Value Addition and Dry Flower Product Making for Sustainable Livelihood for March 16-18, 2012 20<br />

Farm Women at Badarpur Saed village, Faridabad district<br />

Value Addition and Dry Flower Product Making for Sustainable Livelihood for March 21-23, 2012 20<br />

farm women of Rajpur village, Sonepat district<br />

Division of Nematology<br />

Nematode Problems in Field and Horticultural Crops and their Management November 3-10, <strong>2011</strong> 22<br />

Division of Plant Pathology<br />

Mushroom Cultivation September 20-26, <strong>2011</strong> 47<br />

Monitoring and Forecasting of Plant Disease Epidemics under Climate Change Scenario October 10 to 22<br />

November 1, <strong>2011</strong><br />

Division of Post Harvest Technology<br />

Pre- and Post-harvest Management of Horticultural Produce for Export March 13-17, 2012 15<br />

Division of Seed Science and Technology<br />

Seed Quality Assurance November 22-26, <strong>2011</strong> 15<br />

International training on “Seed Production and Quality Evaluation” October 17-29, <strong>2011</strong> 7<br />

organized for officials of AARDO member countries<br />

Quality Seed Production March 15-17, 2012 25<br />

Seed Production of Field Crops March 28, 2012 30<br />

Division of Soil Science and <strong>Agricultural</strong> Chemistry<br />

Soil Testing, Plant Analysis and Water Quality Assessment September 6-26, <strong>2011</strong> 19<br />

Water Technology Centre<br />

Enhancing Water Productivity in Agriculture for Livelihood through 24 trainings of 1200<br />

Training and Demonstration: Training of Trainers and Farmers 7- day each<br />

Sensor Based Application for Enhancing Water Use Efficiency for February 14-27, 2012 13<br />

Wireless Irrigation and Fertigation Control<br />

Micro Irrigation and Plasticulture Applications under PFDC 28 trainings 1856<br />

of one-day each<br />

Centre for Protected Cultivation Technology (CPCT)<br />

Greenhouse Technology for Horticulture Crops May 3-6, <strong>2011</strong> 30<br />

Greenhouse Technology for Horticulture Crops May 7-10, <strong>2011</strong> 30<br />

Protected Cultivation of High Value Vegetables and Cut Flowers June 19, <strong>2011</strong> 150<br />

Training of Horticulture officers IFFCO Foundation June 14-17, <strong>2011</strong> 13<br />

Regional Station, Karnal<br />

Beej Phaslon Ka Sasya Prabandh March 15-16, 2012 25<br />

137


Topic/Name of the training course Date No. of trainees<br />

Beej Utpadan Parshikshan March 23, 2012 20<br />

Regional Station, Pusa (Bihar)<br />

Quality Seed Production March 1-3, 2012 35<br />

Hybrid Seed Production March 28, 2012 100<br />

Management of Soil Carbon and Water Management in Agriculture August 25, <strong>2011</strong> 25<br />

Modern Agriculture and Nursery Management December 24-30, <strong>2011</strong> 24<br />

Vocational Training Courses<br />

ATIC<br />

Krishi Vigyan Kendra, Shikohpur, Gurgaon (Haryana)<br />

Vermi-compost Technology September 5-15, <strong>2011</strong> 50<br />

November 19-30, <strong>2011</strong><br />

January 16-24, 2012<br />

Commercial Dairy Farming May 20-31, <strong>2011</strong> 110<br />

June 3-13, <strong>2011</strong><br />

September 12-22, <strong>2011</strong><br />

Dress Designing and Tailoring May 23 to July 6, <strong>2011</strong> 50<br />

Nursery Management of Fruits, Vegetables and Flowers August 30 to 30<br />

September 7, <strong>2011</strong><br />

September 19-26, <strong>2011</strong><br />

October 10-18, <strong>2011</strong><br />

Bee Keeping September 20-30, <strong>2011</strong> 37<br />

November 8-16, <strong>2011</strong><br />

Preservation of Seasonal Fruits and Vegetables January 17-23, 2012 18<br />

Kitchen Gardening May 26 to June 2, <strong>2011</strong> 22<br />

September 27 to<br />

October 4, <strong>2011</strong><br />

Plant Protection and Pest Control Services August 1-11, <strong>2011</strong> 25<br />

January 27 to<br />

February 4, 2012<br />

Motor Winding September 21-30, <strong>2011</strong> 9<br />

Agro-Processing January 11-12, 2012 20<br />

Post-Harvest Technology for Marigold Flowers March 12-14, 2012 20<br />

In-service trainings for field extension functionaries<br />

Integrated Plant Nutrient Management May 27, <strong>2011</strong> 47<br />

November 25, <strong>2011</strong><br />

Integrated Pest Management June 10, <strong>2011</strong> 44<br />

September 16, <strong>2011</strong><br />

Livestock Production & Management December 6, <strong>2011</strong> 15<br />

Participatory Rural Appraisal (PRA) January 20, 2012 21<br />

138


Topic/Name of the training course Date No. of trainees<br />

First aid in Animals (For VLDAs) March 16, 2012 10<br />

Directorate<br />

Effective Office Management of RTI (conducted by National Productivity Council, Munnar) May 9-13, <strong>2011</strong> 1<br />

Capacity Building of Administrative Personnel of S&T Department , Govt. of India June 6-24, <strong>2011</strong> 3<br />

September 12-30, <strong>2011</strong><br />

Orientation Programme for ARS Trainees January 11-25, 2012 9<br />

Bioinformatics Applications in <strong>Agricultural</strong> Sciences December 21-23, <strong>2011</strong> 20<br />

8.2 INFORMATION AND DATABASE<br />

8.2.1 Bioinformatics<br />

8.2.1.1 Wheat informatics<br />

Contents in the wheat portal was updated.<br />

Developed SNP Prédictions Tool, called ‘SNPredictor’,<br />

which predicts, all potential SNP’s (Single Nucleotide<br />

Polymorphs) for a given EST data. These are helpful in<br />

predicting the causes of mutation in the organisms and<br />

can also be used to predict the potential contigs.<br />

8.2.2 Agri-informatics<br />

8.2.2.1 Consortium for e-Resources in<br />

Agriculture (CeRA)<br />

Nearly 1776 on line journals are available for full<br />

text from nine publishers in addition to nearly 1120<br />

journals abstracts. Photocopies provided (18,512 pages)<br />

against 5314 articles from the holding of the library.<br />

Two hundred and fifty two articles were received from<br />

different institutes and delivered to concerned students<br />

and faculty. A new website for CeRA was developed<br />

(URL: http://cera.iari.res.in). Under CeRA, ten<br />

awareness cum monitoring workshops covering 12<br />

institutions under NARS were organized. During <strong>2011</strong>-<br />

12, more than 5000 reprints of articles from journals<br />

were distributed to CeRA members in NARS.<br />

8.2.2.2 Rice Knowledge Management Portal<br />

(RKMP)<br />

The RKMP portal of IARI was updated. ‘SMS<br />

KRISHI’ facility introduced by IARI to facilitate SMS<br />

service to the farmers to address their farm-related<br />

queries. This service was provided to all registered users.<br />

USI<br />

139<br />

8.2.3 e-Granth: Strengthening of Digital<br />

Library and Information Management under<br />

NARS<br />

As a subcomponent of ICDS of component – I of<br />

NAIP, e-Granth was started from May 2009 with 12<br />

Libraries of ICAR <strong>Institute</strong>s and SAU’s as consortia<br />

partners and IARI as the lead center. Under the project<br />

7,531 new books and old unresolved records were<br />

added in worldCat through Connextion Software of<br />

Online Computer Library Center (OCLC). Nearly<br />

62,184 publications are accessible in worldcat<br />

(catalogue of 71,000 libraries of the world) which are<br />

available in IARI Library. About 50 lakh pages of rare<br />

books, journals and IARI publications were selected<br />

for digitization and 17,35,394 pages were scanned<br />

during reported period.<br />

8.2.4 Software Development: Leveraging<br />

Technology System 1.0 and Asset<br />

Management System 1.0<br />

The Leveraging Technology online system was<br />

developed for submission of monthly reports to the<br />

council on “Leveraging Technology”, which covered<br />

all Sections, Units, Divisions, Project Directorates and<br />

Regional Stations of IARI. The online Asset<br />

Management system was also developed with a view<br />

to keep a track of assets in every division/unit of IARI.<br />

These systems were developed using open source<br />

platform and hosted on a Linux server. The front end<br />

was coded in PHP and the backend was managed with<br />

MySQL. The web application was designed to work<br />

on all browsers.


8.3 LIBRARY SERVICES<br />

IARI Library is one of the largest and the finest<br />

agro- biological libraries in South East Asia housing a<br />

large collection of publications including books/<br />

monographs, journals, reports, bulletins, post graduate<br />

theses and other reference materials. The Library<br />

functions as the depository of Food and <strong>Agricultural</strong><br />

Organization (FAO), and Consultative Group of<br />

International <strong>Agricultural</strong> <strong>Research</strong> (CGIAR) institutes’<br />

publications. Several training programme/demos and<br />

tests were conducted during the reported period on<br />

the aspects of RFID based automation, asset register of<br />

institute, DSpace software, CD ROM databases,<br />

Networking, etc.<br />

8.3.1 Acquisition Programme<br />

8.3.1.1 Books<br />

During the period of report, the Library procured<br />

747 publications which include 295 in Hindi and 452<br />

in English costing ` 31,69,044. The Library also acquired<br />

64 gift publications and 202 PG Students’ theses from<br />

IARI and 3 RFT theses.<br />

8.3.1.2 Serials<br />

The Library procured 806 journals/serials through<br />

subscription, gifts and exchanges. It subscribed to 158<br />

foreign journals (out of which 17 online access) and<br />

342 <strong>Indian</strong> journals, advances, and annual reviews.<br />

Exchange relationship was maintained with 67<br />

institutions globally and nationally. One hundred<br />

eighty five annual scientific/ technical reports of<br />

different institutions and 92 bulletins were received in<br />

the Library during the reported period. The<br />

expenditure on serial acquisition from plan and PG<br />

strengthening scheme was `1,65,64,082.<br />

8.3.2 Documentation Activities<br />

8.3.2.1 AGRIS project<br />

The IARI Library is declared as an input center for<br />

National <strong>Agricultural</strong> <strong>Research</strong> Database (NARD)<br />

under AGRIS Project. The Library is assigned the job<br />

of scanning articles from 10 <strong>Indian</strong> journals. The input<br />

was done in ISO format using AGRIN methodology.<br />

During the reported period, 209 articles were scanned,<br />

processed and sent to Directorate of Knowledge<br />

140<br />

Management in Agriculture, ICAR for inclusion in<br />

AGRIS Index.<br />

8.3.2.2 Development news in agriculture<br />

Four thousand four hundred ninety-eight issues<br />

of 14 newspapers were scanned and 92 news items<br />

pertaining to IARI as well as ICAR were sent to the<br />

Directorate, Principal Scientist (PME) and CATAT.<br />

8.3.2.3 Document processing<br />

In all, 724 documents consisting of 683 books and<br />

41 bulletins were processed (classifying and<br />

cataloguing).<br />

8.3.3 Resource Management<br />

8.3.3.1 Binding of publications<br />

In all, 900 volumes consisting of 3,600 loose issues<br />

of journals, reports and bulletins were bound and 9,600<br />

volumes accessioned.<br />

8.3.3.2 Reference, circulation and stack<br />

maintenance<br />

Apart from approximately 2000 registered<br />

members, the Library served everyday approximately<br />

125 to 130 users, who consulted approximately 1500 to<br />

2000 documents. During the period under report,<br />

38,270 publications were issued to its members. In all,<br />

55 documents were issued under Inter Library Loan<br />

System to various institutions.<br />

8.3.4 Services<br />

8.3.4.1 Reprography services<br />

During the period, over 9400 photocopies were<br />

provided to scientific and technical staff from the<br />

holdings of the Library.<br />

8.3.4.2 CD-Rom workstation<br />

Three prominent international databases on<br />

agricultural aspects were subscribed to provide CD-<br />

ROM services. Ten user terminals were provided to<br />

users in CD-ROM workstation of the library. These<br />

databases are accessible to scientists/students/users<br />

through LAN. In all, 34,705 references were<br />

downloaded by the scientists and students of IARI and<br />

research scholars from all over India. Twenty thousand<br />

one hundred eighty five references were downloaded<br />

on payment basis, generating a revenue of ` 37,335.


9. PUBLICATIONS<br />

An important mandate of the <strong>Institute</strong> is to generate scientific information, add value to information and<br />

share the information nationally and internationally. Publications are an integral component of the information<br />

system. During the reported period, the <strong>Institute</strong> brought out quality publications in the form of research papers<br />

in peer reviewed journals, books/ book chapters, popular articles, etc. both in English and Hindi. Apart from<br />

these publications, the <strong>Institute</strong> brought out several regular and ad hoc publications both in English and Hindi.<br />

The details of these publications are given below:<br />

9.1 RESEARCH/SYMPOSIA PAPERS<br />

a) <strong>Research</strong> papers published in international<br />

journals<br />

268<br />

b) <strong>Research</strong> papers published in national<br />

journals<br />

368<br />

c) Symposia/conference papers 609<br />

9.2 BOOKS/CHAPTERS IN BOOKS<br />

a) Books 32<br />

b) Chapters in Books 269<br />

9.3 POPULAR ARTICLES 250<br />

9.4 IN HOUSE PUBLICATIONS<br />

9.4.1 Regular Publications (English)<br />

● IARI <strong>Annual</strong> <strong>Report</strong> 2010-<strong>2011</strong> (ISSN: 0972-6136)<br />

● IARI NEWS (Quarterly (ISSN: 0972-6144)-4 issues<br />

● IARI Current Events (Monthly)-12 issues<br />

(Available on IARI website)<br />

9.4.2 Ad hoc Publications (English)<br />

● Wheat Pathology in the <strong>Indian</strong> Context (ISBN 978-<br />

81-88708-69-7)<br />

● Catalogue of Fungal Specimens in Herbarium<br />

Cryptogamae Indiae Orientalis (HCIO) (ISBN 978-<br />

81-88708-71-0)<br />

● PG School Publications (ISBN 978-81-88708-72-7)<br />

● Agriculture for Inclusive Growth (ISBN 978-81-<br />

88708-73-4)<br />

141<br />

● Rice Breeding and Genetics <strong>Research</strong> Centre-A<br />

Story of Success (ISBN 978-81-88708-74-1)<br />

● Advances in Rootstocks for overcoming Biotic and<br />

Abiotic Stresses in Fruit Crops (ISBN 978-81-88708-<br />

75-8)<br />

● A Practical Manual on Plant Bacteriology (ISBN<br />

978-81-88708-77-2)<br />

● Plant Variety Protection in Ornamental Crops<br />

(ISBN 978-81-88708-78-9)<br />

● Practical Manual on Soil Physical Measurements<br />

(ISBN 978-81-88708-79-6)<br />

● A Practical Manual on Biocontrol of Plant Diseases<br />

(ISBN 978-81-88708-80-2)<br />

● Climate Change Impact, Adaptation and Mitigation<br />

in Agriculture: Methodology for Assessment and<br />

Application (ISBN 978-81-88708-82-6)<br />

● Low Carbon Options in Rice and Wheat<br />

Production Systems: Potentials and Problems<br />

(ISBN 978-81-88708-83-3)<br />

● Practical Manual on Remote Sensing, Data<br />

Processing, GIS and GPS (ISBN 978-81-88708-84-0)<br />

● Practical Manual on Value Addition in Ornamental<br />

Crops (ISBN 978-81-88708-85-7)<br />

● Technological Options for Enhanced Productivity<br />

and Profit (ISBN 978-81-88708-86-4)<br />

● Hyperspectral Remote Sensing for Agriculture<br />

(ISBN 978-81-88708-87-1)<br />

● Systematics of the genus Siddiqia (Nematoda:<br />

Longidoroidea) (TB-ICN: 83/<strong>2011</strong>)


● Greenhouse Cucumber Production and Protection<br />

(TB-ICN: 84/<strong>2011</strong>)<br />

● Remote Sensing for Enhancing Imput Use<br />

Efficiency (TB-ICN:85/<strong>2011</strong>)<br />

● Value-addition of Wheat through Genetic<br />

Approaches and its Scope in India (TB-ICN: 86/<br />

<strong>2011</strong>)<br />

● Groundwater Pollution Status of Intensively<br />

Cropped IARI Farm, New Delhi (TB-ICN: 87/<strong>2011</strong>)<br />

● Decision Support System in Water Resources<br />

Management - A Review (TB-ICN: 88/<strong>2011</strong>)<br />

● Seed Production Technology of Brinjal (TB-ICN:<br />

89/<strong>2011</strong>)<br />

● Root-knot Nematode Meloidogyne graminicola:<br />

A Key Nematode Pest of Rice (TB-ICN: 90/2012)<br />

● Diversified Agriculture (TB-ICN: 91/2012)<br />

● 60 Years of Wheat <strong>Research</strong>: IARI-Regional Station,<br />

Indore (TB-ICN: 92/2012)<br />

9.4.3 fu;fer çdk’ku ¼fgUnh½<br />

◆ iwlk lqjfHk ¼okf"kZd½ (ICN : H-98/2010)<br />

◆ iwlk lekpkj ¼=Sekfld½ (ISSN 0972-7280)<br />

◆ izlkj nwr ¼=Sekfld½<br />

◆ lkef;dh ¼ekfld½ ¼dsoy laLFkku dh osCklkbV ij miyC/k½<br />

9.4.4 rnFkZ çdk’ku ¼fgUnh½<br />

◆ ltkoVh Qlyksa esa ikS/kk fdLeksa dk laj{k.k % orZeku Lrj<br />

(ISBN 978-81-88708-70-3)<br />

142<br />

◆ xq.koŸkk ;qDr cht mRiknu] iSdsftax ,oa HkaMkj.k (ISBN 978-<br />

81-88708-76-5)<br />

◆ mPp mRiknu ,oa vk; gsrq mUur Ñf"k izkS|ksfxfd;ka (ISBN<br />

978-81-88708-81-9)<br />

◆ jch Qlyksa dh mUur [ksrh (ICN : H-104 /<strong>2011</strong>)<br />

◆ Qy ,oa Qwyksa dh [ksrh (ICN : H-105 /<strong>2011</strong>)<br />

◆ Hkkjrh; Ñf"k vuqla/kku laLFkku {ks=h; dsUnz dVjkb± }kjk fodflr<br />

fofHkUu lfCt;ksa dh fdLesa (ICN : H-107 /<strong>2011</strong>)<br />

◆ eDdk dk iqVhdkjh lw=Ñfe gsVsjksMsjk th & eDdk dk izeq[k<br />

lw=Ñfe ihM+d ,oa mldk izca/ku (ICN : H-108 /2012)<br />

◆ [kjhQ Qlyksa dh [ksrh (ICN : H-109 /2012)<br />

◆ lCth Qly mRiknu dh rduhfd;ka (ICN : H-110 /2012)<br />

◆ ladj /kku cht mRiknu rduhd (ICN : H-111 /2012)<br />

◆ Qyksa ,oa lfCt;ksa ds ewY;o/kZu dh ljy rduhdsa (ICN : H-<br />

112 /2012)<br />

◆ xsgwa esa eq[; [kjirokjksa dk izca/ku (ICN : H-113 /2012)<br />

◆ cht Qlyksa ds lL; izca/k (ICN : H-114 /2012)<br />

◆ e/; Hkkjr esa ekyoh xsgwa dh [ksrh % vko’;drk ,oa mi;ksfxrk<br />

(ICN : H-115 /2012)<br />

◆ tSfod [ksrh dh vksj c


10. COMMERCIALIZATION AND IPR ACTIVITIES<br />

The mandate of the <strong>Institute</strong> Technology Management Unit (ITMU) relates to registration of patents, facilitation<br />

of contract research projects and consultancies by the <strong>Institute</strong> scientists, intellectual property rights, and interaction<br />

with the agri-business industry. During the period, the ITMU has organised following activities:<br />

10.1 INTELLECTUAL PROPERTY<br />

RIGHTS<br />

A. Patents Filed<br />

1. Samfungin: A novel fungicide and the process for<br />

making the same (Dr. Madhuban Gopal & Others,<br />

Division of <strong>Agricultural</strong> Chemicals).<br />

2. Development of substituted alkene as a potential<br />

nematicide (Dr. Madhuban Gopal & Others,<br />

Division of <strong>Agricultural</strong> Chemicals).<br />

3. Nanoencapsulated Hexaconazole: A novel<br />

fungicide and the process for making the same (Dr.<br />

Madhuban Gopal, Division of <strong>Agricultural</strong><br />

Chemicals).<br />

4. Pigeonpea Pod Stripper (Dr. Jagnnath Prasad<br />

Sinha, Division of <strong>Agricultural</strong> Engineering).<br />

5. Digital Soil Test Fertilizer Recommendation (STFR)<br />

Meter (Dr. Samar Chandra Datta, Division of Soil<br />

Science & <strong>Agricultural</strong> Chemistry).<br />

6. Development of slow release nano formulations<br />

of bioactive molecules and method of preparation<br />

thereof (Dr. N. A. Shakil, Senior Scientist, Division<br />

of <strong>Agricultural</strong> Chemicals).<br />

7. A product and process for the decontamination of<br />

pesticide residues from vegetables by using safe<br />

reagent (Dr. Madhuban Gopal, Division of<br />

<strong>Agricultural</strong> Chemicals).<br />

8. Production of cocktail polyclonal antibodies for<br />

broad spectrum ELISA based diagnosis of<br />

potyviruses and cucumoviruses using fusion<br />

construct derived from coat protein gene sequences<br />

from Papaya ringspot and Cucumber mosaic virus<br />

(Dr. Bikash Mandal, Division of Plant Pathology).<br />

143<br />

9. Nanocopper-a copper based formulation to<br />

combat bacterial blight of pomegranate, rice and<br />

bean (Dr. Kalyan K. Mondal, Division of Plant<br />

Pathology).<br />

B. Patents Renewed<br />

1. A process for the preparation of Mosquito<br />

Larvicidal Formulations based on Rabdosia<br />

Melissoides Ingredients (Dr. B.S.Parmar & Dr. Lalit<br />

Kumar, Division of <strong>Agricultural</strong> Chemicals).<br />

2. Additives for improved photostability of<br />

Azadirachtin-A (Dr. Prem Dureja & Others,<br />

Division of <strong>Agricultural</strong> Chemicals).<br />

3. Process for the preparation of Pesticidal Oxime<br />

Esters (Dr. Suresh Walia and Dr. B.S. Parmar,<br />

Division of <strong>Agricultural</strong> Chemicals).<br />

4. Process for the preparation of Mono/Di/Polyol<br />

Ester Pesticides (Dr. Suresh Walia & Others,<br />

Division of <strong>Agricultural</strong> Chemicals).<br />

5. A hyper-spectral data analyzing method for<br />

characterization and discrimination of natural/<br />

man-made resources from air borne platforms<br />

(Dr. Ravinder Kaur, Division of Environmental<br />

Sciences).<br />

6. Efficient process for the preparation of Neem based<br />

Reduced Azadirachtin(s) Pesticides (Dr. Suresh<br />

Walia & Others, Division of <strong>Agricultural</strong><br />

Chemicals).<br />

7. Synthetic gene encoding Cry 1 Fa 1�-endotoxin of<br />

Bacillus thuringiensis (Dr. P. Ananda Kumar,<br />

NRCPB).<br />

8. Synthetic gene encoding a chimeric ä-endotoxin of<br />

Bacillus thuringiensis (Dr. P. Ananda Kumar,<br />

NRCPB).


9. Biopesticidal formulation with improved shelf life<br />

and the process of preparation (Dr. Prem Dureja<br />

and others, Division of <strong>Agricultural</strong> Chemicals).<br />

10. Novel superabsorbent hydrogel/s and the method<br />

of obtaining the same (Dr. Anupama, Division of<br />

<strong>Agricultural</strong> Chemicals).<br />

D. Varieties Protected Under PPV&FRA<br />

144<br />

C. Patent Granted<br />

Novel superabsorbent hydrogel/s and the method<br />

of obtaining the same (Patent No. 250349) granted on<br />

28.12.<strong>2011</strong>.<br />

Sl. Variety Name Type of Date of Principal<br />

No. Variety Filing Inventor<br />

1. Wheat HD 2985 (Pusa Basant) New 1.6.<strong>2011</strong> Dr. G. P. Singh<br />

Division of Genetics<br />

2. Wheat HD 2987(Pusa Bahar) New 1.6.<strong>2011</strong> Dr. G. P. Singh<br />

Division of Genetics<br />

3. Wheat HD 2967 New 1.6.<strong>2011</strong> Dr. R. K. Sharma<br />

Division of Genetics<br />

4. Cabbage Pusa Ageti Extant 1.6.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

5. Cauliflower Pusa Meghna Extant 1.6.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

6. Brinjal Pusa Ankur Extant 1.6.<strong>2011</strong> Dr. Ravinder Kumar,<br />

Division of Vegetable Science<br />

7. Cauliflower Pusa Sharad Extant 13.6.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

8. Brinjal Pusa Bindu Extant 13.6.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

9. Bread Wheat HI 1563 Pusa Prachi New 25.7.<strong>2011</strong> Dr. A. N. Mishra<br />

IARI Regional Station, Indore<br />

10. Tomato Pusa Sadabahar Extant 27.7.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

11. Tomato Pusa Rohini Extant 27.7.<strong>2011</strong> Dr. Pritam Kalia<br />

Division of Vegetable Science<br />

12. Chrysanthemum Pusa Anmol Extant 27.7.<strong>2011</strong> Dr. K. V. Prasad<br />

Division of Floriculture & Landscaping<br />

13. Chrysanthemum Pusa Centenary Extant 27.7.<strong>2011</strong> Dr. K. V. Prasad<br />

Division of Floriculture & Landscaping


E. Copyrights Filed<br />

1. ResourCeS - A Regional Resource Characterizing<br />

System (Dr. Ravinder Kaur, Division of<br />

Environmental Sciences).<br />

2. USAR- An EIA Tool for managing salt affected<br />

agricultural lands and irrigation waters (Division<br />

of Environmental Sciences).<br />

Memorandum of understanding signed<br />

145<br />

10.2 TECHNOLOGY<br />

COMMERCIALIZED<br />

A. Memorandum of Understanding Signed<br />

Seventeen memorandum of understanding (MoUs)<br />

signed during the year under report with fifty-one<br />

private partners generating a revenue of ` 49.70 Lakh.<br />

Sl. No Technologies Licensee Companies Date of MoU<br />

1. Liquid Biofertilizer M/s Sai Bio Organics, Punjab 30.3.2012<br />

2. Neutraceuticals and Functional Foods M/s Ozone Biotech, Faridabad 3.3.2012<br />

3. PCR based detection Kit for bacterial blight of Ostwal & Harit, Malegaon 2.2.2012<br />

pomegranate<br />

4. Candy from Fruits (Aonla, Mango, Carrot) M/s Gold Win Agro Foods Pvt Ltd, New Delhi 29.2.2012<br />

5. Chrysanthemum Variety Pusa Anmol M/s Leadbeter Seeds, Bangalore 1.2.2012<br />

6. Pusa Bajra Puff M/s Agro Tech Foods Limited, Gurgaon 12.1.2012<br />

7. Maize-PEEHM 5 M/s Goutami Seeds Pvt. Ltd., Kurnool 17.11.<strong>2011</strong><br />

M/s Sampoorna Seeds 15.11.<strong>2011</strong><br />

M/s Sri Laxmi Venkateshwara Seeds, Kurnool 8.11.<strong>2011</strong><br />

M/s Muralidhar Seeds Corporation 8.11.<strong>2011</strong><br />

M/s Victory Seeds Ltd, Kurnool, AP 20.7.<strong>2011</strong><br />

8. Wheat Variety HD 2967 M/s ID Agri Seeds Pvt. Ltd., Delhi 9.9.<strong>2011</strong><br />

M/s Akash Seeds & Co. 30.9.<strong>2011</strong><br />

M/s Amar Seeds, Punjab 5.10.<strong>2011</strong><br />

M/s Amar Seeds, Punjab 21.10.<strong>2011</strong><br />

M/s Asian Seeds, Karnal 24.10.<strong>2011</strong><br />

M/s Aujla Seeds, Machhiwara<br />

M/s Bhagati Seed Farm, Punjab<br />

M/s Bhatinda Seed Farm, Bhatinda, Punjab<br />

M/s Bhatti Agri Seeds, Sirsa, Haryana<br />

M/s Bhawani Seeds & Biotech<br />

M/s Dhaliwal Seed Farm<br />

M/s Dhaliwal Seed Pvt. Ltd., Kurukshetra<br />

M/s Hans Moderan Agri. Seeds, Karnal<br />

M/s Harbir Agrotech<br />

M/s Haryana Seeds Co., Haryana<br />

M/s Hygiene Kamboj Seed Farm, Punjab<br />

M/s Japreet Singh Gill<br />

M/s Kamboj Export<br />

M/s Kurukshetra Seeds Pvt Ltd, Haryana<br />

M/s Mehla Seed Farm, Karnal, Haryana<br />

M/s Model Agritech India Ltd.<br />

M/s Navodaya Seed Farm<br />

M/s Nirankari Agri Seeds<br />

M/S Parbhat Seed Traders, Kurukshetra


Sl. No Technologies Licensee Companies Date of MoU<br />

M/s Punjab Beej<br />

M/s Sahil Seeds, Ludhiana, Punjab<br />

M/s Sahu Seed Farm<br />

M/s San Seed Farm, Moga, Punjab<br />

M/s Sandeep Seeds, Ludhiana<br />

M/s Sandeep Seeds, Ludhiana, Punjab<br />

M/s Sandhu Seed Farm, Sirsa, Haryana<br />

M/s Sekhon seed farm, Punjab<br />

M/s Sekhon seed farm, Sangrur, Punjab<br />

M/s Vignette Hi-tech Seeds Co. Karnal<br />

9 Wheat Variety HI 1563 M/s Pan Seeds Pvt. Ltd., Kolkata-700 001 18.6.<strong>2011</strong><br />

10 Tomato- PH 8 M/s Bhartiya Beej Nigam Ltd., 24.5.<strong>2011</strong><br />

Distt. Udham Singh Nagar, Rudrapur, Uttarakhand<br />

11 Brinjal- PH 9 M/s Bhartiya Beej Nigam Ltd., 24.5.<strong>2011</strong><br />

Distt. Udham Singh Nagar, Rudrapur, Uttarakhand<br />

12 Bottle Gourd- PH 3 M/s Bhartiya Beej Nigam Ltd., 24.5.<strong>2011</strong><br />

Distt. Udham Singh Nagar, Rudrapur, Uttarakhand<br />

13 Bitter gourd PH 2 M/s Bhartiya Beej Nigam Ltd., 24.5.<strong>2011</strong><br />

Distt. Udham Singh Nagar, Rudrapur, Uttarakhand<br />

14 Cucumber- Pusa Sanjog M/s Bhartiya Beej Nigam Ltd., 24.5.<strong>2011</strong><br />

Distt. Udham Singh Nagar, Rudrapur, Uttarakhand<br />

15 Pusa Fruit Drink M/s Gold Win Agro Foods Pvt. Ltd., New Delhi 8.11.<strong>2011</strong><br />

M/s Shree Krishna Pickles, New Delhi 23.7.<strong>2011</strong><br />

16 Pusa Soya Nuts M/s Pravin Reinforced Plastics Pvt. Ltd., New Delhi 23.7.<strong>2011</strong><br />

17 RNAi gene construct against ToLCV virus M/s Bejo Sheetal Seeds Pvt. Ltd, Jalna, Maharashtra 28.7.<strong>2011</strong><br />

B. Consultancies /Contract <strong>Research</strong><br />

Proposals/ Agreements<br />

1. Consultancy for effective and affordable biological<br />

agents (entomopathogenic nematodes and other<br />

bio-agents) for the management of white grub<br />

menace on sugarcane crop in western UP for an<br />

NGO- FARMER (Dr. Sharad Mohan, Division of<br />

Nematology).<br />

2. Contract research for worldwide study of<br />

pluralistic agricultural extension system for<br />

International Food Policy <strong>Research</strong> <strong>Institute</strong><br />

(IFPRI), Washington (Dr. Ram Bahal, Division of<br />

<strong>Agricultural</strong> Extension).<br />

3. Contract research on high density CFU microbial<br />

formulation for International Panaacea Limited,<br />

146<br />

New Delhi (Dr. Pratibha Sharma, Division of Plant<br />

Pathology).<br />

4. Contract research for bio-efficacy trial and residual<br />

analysis in potato under controlled application of<br />

chlorpropham 50% HN for M/s. Rajhans Fertilizers<br />

Ltd. Indore (Dr. R.K. Pal, Division of PHT).<br />

5. Contract research for bioefficacy of capsicin and<br />

bicolor against sucking insects of Okra, Brinjal and<br />

Chillies for M/s. Sree Ramcides Chemicals Pvt. Ltd.,<br />

Chennai (Dr. R.K. Sharma, Division of<br />

Entomology).<br />

6. Consultancy for research for weather and remote<br />

sensing based crop yield modelling for use in crop<br />

insurance for ICICI Lombard General Insurance<br />

Co. Ltd., Mumbai (Dr. Vinay Sehgal, Dr. R. Sahoo,


Dr. Ravender Singh, Division of <strong>Agricultural</strong><br />

Physics).<br />

7. Consultancy for evaluating bio-fuel plant effluents<br />

and recommending a suitable effluent<br />

management system for Agni Bio-Power Energy<br />

Pvt. Ltd. Mohali, Punjab (Dr. Ravinder Kaur,<br />

Division of Environmental Sciences).<br />

8. Contract research for evaluation of bio-efficacy of<br />

new herbicide molecule PIH 485 (25% WG) on<br />

weeds in wheat and rabi maize and residual toxicity<br />

on succeeding crop for M/s P.I. Industries Limited,<br />

Gurgaon (Dr. Rajvir Sharma, Division of<br />

Agronomy).<br />

9. Contract research for bio-efficacy and phytotoxicity<br />

studies of Insure Perform 12% FS against seed<br />

borne diseases in wheat for BASF India Ltd,<br />

Mumbai, (Dr. Anuja Gupta, IARI Regional Station,<br />

Karnal).<br />

10.3 OTHER ACTIVITIES<br />

A. Formation of a Producer Company<br />

With a motto of converting farmers to<br />

entrepreneurs, ZTM-BPD Unit facilitated the formation<br />

of a Producer company named “beej India Producers<br />

Co. Ltd” and was registered under Companies Act<br />

1956. This incubating company has 50 farmers with 20<br />

subscribed founding members. It has 8 member<br />

Executive Board with IARI as Advisory Director.<br />

Activities were initiated as Seed Venture from Rabi 2012<br />

covering about 100 ha, targeting Wheat, Pulses,<br />

Oilseed, Potato and Vegetable crops.<br />

B. Technology Promotional Events<br />

1. Meets Organized/Participated<br />

i. IARI Industry Day for Pearl Millet<br />

An <strong>Institute</strong> industry day was organized on<br />

September 27, <strong>2011</strong> for Pearl Millet. Over 30<br />

participants including people from industry attended<br />

the meet.<br />

ii. ICAR-Industry Meet<br />

Participated in ICAR-CII Meet <strong>2011</strong> held at NASC<br />

Complex, New Delhi on May 23, <strong>2011</strong>. IARI-ZTM &<br />

147<br />

BPD Unit coordinated the display of technologies<br />

pertaining to seeds, planting material, plant<br />

biotechnology and post harvest processes/ products<br />

from all the ICAR institutes. More than 150<br />

technologies were displayed in the exhibition.<br />

iii. ZTM & BPD Unit wins Best Incubator Award<br />

During the 2nd Global Agri - Business Incubation<br />

Conference held at IARI, New Delhi during February<br />

6-8, 2012, Hon’ble former President of India, Dr. A.P.J.<br />

Abdul Kalam, presented the Best Incubator Award to<br />

IARI, New Delhi and IVRI, Izatnagar.<br />

Dr. H S Gupta, Director, IARI receiving the Best Incubator Award<br />

from Hon’ble former President of India Dr. A.P.J. Abdul Kalam.<br />

Also seen in the picture is Dr Bangali Baboo, National Director,<br />

NAIP(left)<br />

2. Entrepreneurship Development Programme<br />

(EDP)<br />

Four entrepreneurship development programmes<br />

(EDP) were conducted to impart skills to upcoming<br />

entrepreneurs. The programmes were on: (i) Plant


Entrepreneurship Development Programme (EDP) with IARI<br />

technologies<br />

Tissue Culture (December 19-23, <strong>2011</strong>), (ii) Biofertilizer<br />

and Composting Methods (January 23-28, 2012), (iii)<br />

Protected Crop Cultivation Technologies (March 13,<br />

2012), and (iv) Hydroponics (February 8-15, 2012).<br />

3. News Bulletin<br />

A news bulletin named TAKSAY (Taknique se<br />

Vyavsay) was published from IARI-ZTM BPD Unit<br />

148<br />

covering activities like technology commercialization,<br />

agri-business incubation, IP protection, EDP and<br />

technologies from North Zone <strong>Institute</strong>s.<br />

4. Business Incubation<br />

The following business incubates associated with<br />

the IARI: (i) M/s. Abu Biotech in the area of in vitro<br />

propagation of medicinal and high value plants like<br />

Stevia rubidiana, (ii) M/s KAD Biotech in the area of<br />

tissue culture for multiplication of Stevia rubidiana<br />

and (iii) M/s Sai Bio Organics in the area of<br />

biofertilizer.<br />

5. Corporate Membership<br />

Continuous interaction with the industry and the<br />

entrepreneurial community has resulted in the<br />

development of a network of corporate members.<br />

About 158 corporate members were registered with<br />

BPD Unit during the period under report making a total<br />

of 205.


11. LINKAGES AND COLLABORATION<br />

The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> has<br />

linkages with various national and international<br />

institutes/organizations.At national level the <strong>Institute</strong><br />

has close linkages with almost all agricultural sciences<br />

research institutes, centres, project directorates,<br />

coordinated projects as well as a few selected institutes<br />

of the ICAR. Similar linkages exist for natural resource<br />

and socio-economic research institutes. Collaboration<br />

exists with almost all state agricultural universities<br />

(SAUs), selected conventional universities, several of<br />

the institutes of the CSIR and departments of Ministry<br />

of Science and Technology such as the Departments of<br />

Biotechnology, Space <strong>Research</strong>, Meteorology, and<br />

several other ministries/departments/organizations of<br />

the Government of India.<br />

At the international level, the <strong>Institute</strong> has close<br />

linkages with some of the CGIAR’s international<br />

agricultural research centres (IARCs), viz., ICRISAT,<br />

CIMMYT, IRRI, and ICARDA. It also has linkages with<br />

other international organizations, viz., FAO, IAEA,<br />

USAID, UNDP, WMO, UNIDO and UNEP. Several<br />

bilateral research linkages involving developed and<br />

developing countries also exist. These include linkages<br />

with USDA, selected universities in USA, Canada,<br />

Australia, World Bank, Rockfeller Foundation,<br />

149<br />

European Commission, JAICA, JIRC, JSPS, ACIAR,<br />

AVRDC (Taiwan), etc.<br />

The number of externally funded projects in<br />

operation during the period from 1.4.<strong>2011</strong> to 31.3.2012<br />

are given below:<br />

Details of externally funded projects in operation<br />

Name of funding agency<br />

No. of projects<br />

Within India<br />

DBT, DST, ICAR, CICR, CPRI (Mini Mission-HP), 146<br />

CSIR, NCPA, CPCB, Ministry of Water<br />

Resources, Ministry of New and Renewable<br />

Energy, Ministry of Environments & Forest,<br />

Basmati Export Development Foundation,<br />

Ministry of Earth Sciences, Directorate of<br />

Vanaspati, Vegetable Oils and Fats, National<br />

Medicinal Plant Board, DAC, SAC, NABARD,<br />

National Horticultural Mission, NRDC, BARC,<br />

PPV&FRA, ISRO, IIRS, NFBSRA (ICAR),<br />

NFBSFARA (ICAR), NAIP (ICAR), etc.<br />

Revolving Fund, ICAR Young Scientist Award, 08<br />

National Fellow Scheme of ICAR and ICAR<br />

Niche Area Project<br />

Outside India<br />

IPNI India Programme, USAID, UKIERI, 04<br />

CIMMYT, University of Sydney, Indo-Australian<br />

Programme


12. AWARDS AND RECOGNITIONS<br />

● The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> won the<br />

Sardar Patel Outstanding ICAR Institution Award<br />

for the year 2010 jointly with the Tamil Nadu<br />

<strong>Agricultural</strong> University, Coimbatore for its<br />

outstanding contribution in the field of agricultural<br />

research, education and extension. The Award<br />

carries ` 10,00,000 in cash, a citation and a plaque.<br />

Dr. H.S. Gupta, Director, IARI receiving the Sardar Patel<br />

Outstanding ICAR Institution Award 2010 from the Hon'ble<br />

Minister of State for Agriculture and Food Processing Industries,<br />

Shri Charan Das Mahant<br />

● <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> was<br />

conferred the Environment Leadership Award of<br />

Agriculture Today, <strong>2011</strong> for its pioneering work on<br />

development of sustainable agriculture, protection<br />

of environment, mitigation and adaptation to<br />

climate change and environmental policy planning<br />

for the benefit of farming community. The award<br />

carries a memento and a citation.<br />

● The <strong>Indian</strong> <strong>Agricultural</strong> <strong>Research</strong> <strong>Institute</strong> received<br />

Quality Management System Standard Certificate,<br />

NS-EN ISO 9001: 2008/ISO 9001:2008 of KVQA for<br />

providing education, research and training in the<br />

field of agriculture.<br />

● Dr. A.K. Saxena, Head, Division of Microbiology<br />

was nominated Member of the Soil Quality and<br />

Fertilizers Sectional Committee of BIS.<br />

150<br />

● Dr. B.S. Dwivedi, Head, Division of Soil Science<br />

and <strong>Agricultural</strong> Chemistry received (i) First<br />

Dr. J.S.P. Yadav Memorial Award and of the <strong>Indian</strong><br />

Society of Soil Science (ISSS) for excellence in Soil<br />

Science and (ii)Nominated Editor, Journal of the<br />

<strong>Indian</strong> Society of Soil Science and <strong>Indian</strong> Journal<br />

of the Agronomy.<br />

● Dr. J. P Sharma, Head, Division of <strong>Agricultural</strong><br />

Extension received (i) Shanti Prasad Goel Award<br />

by MOBILIZATION, New Delhi and (ii) Best<br />

Scientist Award by Young Farmers’ Association,<br />

Punjab.<br />

● Dr. K.V. Prabhu, Head, Division of Genetics<br />

received N.S. Cheema Award of 2012 for his<br />

contribution in the field of wheat and basmati rice<br />

varietal popularization and redefining basmati rice.<br />

● Dr. P. Kalia, Head, Division of Vegetable Science<br />

was elected Executive Councillor of the<br />

Horticultural Society of India.<br />

● Dr. R.K. Jain, Head, Division of Plant Pathology<br />

received (i) B.B. Mundkur Memorial Award by<br />

<strong>Indian</strong> Phytopathological Society, (ii) Nominated<br />

to the International Committee on Tospovirus<br />

(Bunyaviridae), and (iii) Vice- President, <strong>Indian</strong><br />

Virological Society.<br />

● Dr. R.K. Pal, Head, Post Harvest Technology was<br />

nominated Member of the RAC, CIPHET,<br />

Ludhaina and technical expert, SAARC Countries.<br />

● Dr. T. Janakiram, Head, Division of Floriculture and<br />

Landscaping was nominated (i) Executive<br />

Councillor of the Horticultural Society of India, (ii)<br />

Editor-in-Chief of the <strong>Indian</strong> Society of Ornamental<br />

Horticulture, (iii) Member of <strong>Institute</strong> Management<br />

Committee of IIHR, Bengaluru and Directorate of<br />

Floricultural <strong>Research</strong>, New Delhi, and (iv) Vice<br />

President, Rose Society of India.<br />

● Dr. V.V. Datar, Head, IARI, Regional Station, Pune<br />

received M.S. Pavgi Memorial Lecture Award by the<br />

<strong>Indian</strong> Phytopathological Society for <strong>2011</strong>-12.


● Dr. Pratibha Sharma, Professor, Division of Plant<br />

Pathology received (i) SAB Women Scientist Award<br />

by the Society for Applied Biotechnology, Tamil<br />

Nadu, (ii) Best Citizen of India by International<br />

Publishing House, and (iii) Fellow of the <strong>Indian</strong><br />

Society of Ornamental Horticulture, IARI.<br />

● Dr. Rashmi Aggarwal, National Fellow, Division<br />

of Plant Pathology was elected Editor of <strong>Indian</strong><br />

Phytopathology.<br />

● Dr. A.D. Munshi, Principal Scientist, Division of<br />

Vegetable Science was elected (i) Member of<br />

Editorial Board, Prasar Doot and received<br />

appreciation letter from Director, IARI for the<br />

Hindi Book Swa-Paragit Phaslon ki Beej Utpadan<br />

Takniki.<br />

● Dr. A.K. Patra, Principal Scientist, Division of Soil<br />

Science and <strong>Agricultural</strong> Chemistry received (i)<br />

Bharat Jyoti Award by India International<br />

Friendship Society and (ii) FAI-Dhiru Morarji<br />

Memorial Award.<br />

● Dr. (Mrs.) Anuja Gupta, Principal Scientist,<br />

Regional Station, Karnal received Pusa Vishist Hindi<br />

Pravakta Puruskar for 2010-11 of IARI.<br />

● Dr. Anupama, Principal scientist, Division of<br />

<strong>Agricultural</strong> Chemicals received Award for<br />

Excellence for her research work in the field<br />

<strong>Agricultural</strong> Chemicals.<br />

● Dr. Balraj Singh, Principal Scientist & In-charge,<br />

CPCT received (i) Distinguished Scientist Award<br />

2012 of GBPUA&T, Pantnagar, (ii) Distinguished<br />

Scientist Award by Hi-Tech Horticultural Society,<br />

Meerut, (iii) Member of the Consultative Group<br />

on Protected Cultivation for Haryana by Chairman,<br />

Haryana Kisan Ayog, and (iv) Member of the<br />

Technical Advisory Committee by CIH, Dimapur,<br />

Nagaland.<br />

● Dr. B.K. Singh, Principal Scientist, CATAT received<br />

(i) Dr. G.S. Vidyarthi Memorial Award by the<br />

<strong>Indian</strong> Society of Extension Education, New Delhi<br />

and (ii) Dr. S.L. Bhela Award by the Society of<br />

Extension Education, Agra.<br />

● Dr. K. Annapurna, Principal Scientist, Division of<br />

Microbiology was nominated as Editor-in-Chief of<br />

the <strong>Indian</strong> Society of <strong>Agricultural</strong> Science.<br />

151<br />

● Dr. Lata, Principal Scientist, Division of<br />

Microbiology was elected (i) Editor of Journal of<br />

the <strong>Indian</strong> Society of Soil Science, (ii) Executive<br />

Member of Association of Microbiologists of India<br />

and (iii) Member, Scientific Panel on<br />

●<br />

“Contaminants in the Food Chain” of Food Safety<br />

Standards Authority of India.<br />

Dr. P.K. Sharma, Principal Scientist, Regional<br />

Station, Karnal received National Award for<br />

guiding the best M. Tech. thesis in <strong>Agricultural</strong><br />

Engineering-<strong>2011</strong> by <strong>Indian</strong> Society for Technical<br />

Education (ISTE), New Delhi.<br />

● Dr. Robin Gogoi, Principal Scientist, Division of<br />

Plant Pathology was elected Fellow of the <strong>Indian</strong><br />

Phytopathological Society.<br />

● Dr. R. S. Chillar, Principal Scientist (WTC), Dr.<br />

Dabas, Senior Scientist, (CATAT), Dr. I.M. Mishra,<br />

Principal Scientist (<strong>Agricultural</strong> Engineering) and<br />

Dr. S.S. Parihar, Principal Scientist (WTC) received<br />

Groundwater Augmentation Award of Ministry of<br />

Water Resources.<br />

● Dr. Sunil Pabbi, Principal Scientist, Division of<br />

Microbiology was nominated Member of the<br />

Editorial Board, VEGETOS: An International<br />

Journal of Plant <strong>Research</strong>.<br />

● Dr. Adrash Kumar, Senior Scientist and Er J.K.<br />

Singh, Principal Scientist, Division of <strong>Agricultural</strong><br />

Engineering received 2012 ISAE Team Award.<br />

● Dr. A.K. Singh, Senior Scientist, Division of<br />

Genetics received (i) The Best Scientist Award by<br />

Young Farmers’ Association, Punjab for<br />

development of high yielding basmati rice varieties<br />

and marker assisted breeding, (ii) Agriculture<br />

Leadership Award <strong>2011</strong> for improvement of basmati<br />

rice varieties through conventional and marker<br />

assisted breeding.<br />

● Dr. Bikash Mondal, Senior Scientist, Division of<br />

Plant Pathology was elected (i) Fellow of <strong>Indian</strong><br />

Virological Society, (ii) Editor-in-Chief, <strong>Indian</strong><br />

Journal of Virology, and (iii) nominated to the<br />

International working Committee on Nanoviridae.<br />

● Dr. B. Ramakrishnan, Senior Scientist, Division of<br />

Microbiology was nominated Member of the<br />

Editorial Board, Journal of Bioremediation &<br />

Biodegradation.


● Dr. D.K. Sharma, Senior Scientist, CESCRA<br />

received First Pusa Visisthya Vakta Puraskar 2010-<br />

<strong>2011</strong>.<br />

● Dr. D.R. Biswas, Senior Scientist, Division of Soil<br />

Science and <strong>Agricultural</strong> Chemistry was elected<br />

Fellow of the ISSS.<br />

● Dr H. Pathak, Senior Scientist, CESCRA was<br />

nominated as (i) DARE/ICAR’s Coordinator for the<br />

climate negotiations in the UNFCCC, and (ii)<br />

Editor, <strong>Indian</strong> Journal of Agronomy.<br />

● Dr. K. V. Prasad, Senior Scientist, Division of<br />

Floriculture and Landscaping was nominated<br />

Executive Councillor of the Horticultural Society<br />

of India.<br />

● Dr. Manjeet Singh Nain, Senior Scientist, Division<br />

of <strong>Agricultural</strong> Extension received (i) <strong>Agricultural</strong><br />

Extension Young Scientist Award by the Society of<br />

Extension Education, Agra and (ii) Elected Fellow<br />

of the <strong>Indian</strong> Society of Extension Education, New<br />

Delhi.<br />

● Dr. Monika Wason, Senior Scientist, CATAT was<br />

nominated Editor of the “Prasar Doot”.<br />

● Dr. S. Naresh Kumar, Senior Scientist, Centre for<br />

Environment Science and Climate Resilient<br />

Agriculture (CESCRA) was elected Fellow of the<br />

<strong>Indian</strong> Society for Plant Physiology.<br />

● Dr. Neelam Patel, Senior Scientist and Dr. T.B.S.<br />

Rajput, Principal Scientist, WTC received<br />

Certificate of appreciation from IARI for writing<br />

research article in Hindi “Zaid fasalon mein uchit jal<br />

prabandhan”.<br />

● Dr. Nishi Sharma, Senior Scientist, CATAT was<br />

elected (i) Fellow, MOBILIZATION, New Delhi ,<br />

(ii) National Co-coordinator of National Seminar<br />

on Multi Sectoral Innovations for Rural Prosperity,<br />

and (iii) Editor, Journal of Community<br />

Mobilization and Sustainable Development.<br />

● Dr. Pankaj, Senior Scientist, Division of<br />

Nematology received the Prof. H.M. Shah<br />

Memorial Award of the Nematological Society of<br />

India for his contribution in the field of Nematode<br />

Management for the period 2007-<strong>2011</strong>.<br />

152<br />

● Dr. Rashmi Singh, Senior Scientist, Division of<br />

<strong>Agricultural</strong> Extension received recognition as an<br />

International Expert on Women Entrepreneurship<br />

by Asian Productivity Organization, Japan.<br />

● Dr. R. Roy Burman, Senior Scientist, Division of<br />

<strong>Agricultural</strong> Extension received (i) Young<br />

Professional Award by MOBILIZATION, New<br />

Delhi and (ii) S.N. Bhela Extension Professional<br />

Award by Society of Extension Education, Agra.<br />

● Dr. R.R. Sharma, Senior Scientist, Post Harvest<br />

Technology received (i) Dr. Rajendra Prasad Award<br />

(ICAR), (ii) Dr. Ram Nath Singh Award (IARI), and<br />

(iii) Elected Member, Editorial Board of American<br />

Journal of Plant Sciences, USA.<br />

● Dr. Shantanu Kumar Dubey, Senior Scientist,<br />

CATAT was elected Fellow, MOBILIZATION, New<br />

Delhi and (ii) Editor, Journal of Community<br />

Mobilization and Sustainable Development.<br />

● Dr. Sharad Mohan, Senior Scientist, Division of<br />

Nematology nominated as a country<br />

●<br />

representative to the European Society of<br />

Nematology (ESN).<br />

Dr. S.P. Datta, Senior Scientist, Division of Soil<br />

Science and <strong>Agricultural</strong> Chemistry received (i)<br />

The XII International Congress Commemoration<br />

Award by the ISSS and (ii) Nominated Editor,<br />

Journal of the <strong>Indian</strong> Society of Soil Science.<br />

● Dr. T.K. Behera, Senior Scientist, Division of<br />

Vegetable Science was elected (i) Fellow of the<br />

Horticulture Society of India and (ii) Editor,<br />

Horticulture Society of India.<br />

● Dr. T.K. Das, Senior Scientist, Division of<br />

Agronomy was elected Fellow of the <strong>Indian</strong> Society<br />

of Weed Science, Jabalpur.<br />

● Dr. Vinod, Senior Scientist, Division of Genetics<br />

received V.S. Mathur Memorial Award by ISGPB<br />

for wheat genetics and improvement.<br />

● Dr. A.K Mishra, Scientist (SS), USI received Young<br />

Scientist award from Computer Society of India<br />

(Delhi Chapter).<br />

● Dr. Renu Singh, Scientist (SS), CESCRA received<br />

Young Fellow Award by the Society for Recent<br />

Development in Agriculture.


13. BUDGET ESTIMATES<br />

Statement showing Budget Estimates & Revised Estimates for the year <strong>2011</strong>-12 and Budget Estimates for 2012-13 under<br />

Plan<br />

S. No. Sub Head Budget Revised Budget<br />

Estimates Estimates Estimates<br />

<strong>2011</strong>-12 <strong>2011</strong>-12 2012-13<br />

1. TA 95.00 72.50 118.44<br />

2. Other Contingencies 515.88 410.00 1200.00<br />

3. HRD 59.30 14.20 50.00<br />

4. Library 200.63 155.20 250.00<br />

5. Furniture 77.43 77.00 100.00<br />

6. Equipment 2309.57 1416.08 1200.00<br />

7. Works 2208.04 1419.00 3410.00*<br />

8. Provision for OBC quota 1934.15 210.00 400.00<br />

Total 7400.00 3773.98 6728.44<br />

9. NEH 0.00 65.00 80.00<br />

10. TSP 0.00 35.00 29.05<br />

Grand Total 7400.00 3873.98 6837.49<br />

*This includes ` 1000.00 lakh for repair which is 15% of the total allocation<br />

153<br />

` in lakh<br />

Statement showing Budget Estimates & Revised Estimates for the year <strong>2011</strong>-12 and Budget Estimates for 2012-13 under<br />

Non-Plan<br />

S. No. Name of the Head Budget Revised Budget<br />

Estimates Estimates Estimates<br />

<strong>2011</strong>-12 <strong>2011</strong>-12 2012-13<br />

Grants for Creation of Capital Assets (CAPITAL)<br />

1 Works<br />

(A) Land<br />

(B) Building<br />

i. Office building<br />

ii. Residential building<br />

iii. Minors Works<br />

2 Equipments 54.00 135.00 60.00<br />

3 Information & Technology<br />

` in lakh


4 Library Books & Journal 5.00 20.00 2.00<br />

5 Vehicles & Vessels<br />

6 Livestock 1.00 8.00<br />

7 Furniture & Fixtures 10.00 10.00<br />

8 Others<br />

Total - CAPITAL 70.00 165.00 70.00<br />

Grants in Aid - Salaries (REVENUE)<br />

1 Establishment Expenses<br />

(A) Salary<br />

i. Establishment charges 12456.00 11851.00 12375.00<br />

ii. Wages<br />

iii. Overtime allowance 4.00 4.00 4.00<br />

(B) Loan & Advances 11.00 16.00 11.00<br />

Total - Establishment Expenses 12471.00 11871.00 12390.00<br />

(Grants in Aid -Salaries)<br />

Grants in Aid - General (REVENUE)<br />

1 Pension and Other Retirement Benefits 9450.00 9000.00 9900.00<br />

2 Travelling Allowance<br />

(A) Domestic/Transfer T.A. 20.00 29.00 25.00<br />

(B) Foreign TA<br />

Total - Travelling Allowance 20.00 29.00 25.00<br />

3 <strong>Research</strong> & Oper. Expenses<br />

(A) <strong>Research</strong> Expenses 180.00 211.99 200.00<br />

(B) Operational Expenses 243.00 288.01 275.00<br />

Total - <strong>Research</strong> & Oper. Expenses 423.00 500.00 475.00<br />

4 Administrative Expenses<br />

(A) Infrastructure 1000.00 1550.00 1500.00<br />

(B) Communication 20.00 37.01 37.00<br />

(C) Repair & Maintenance<br />

i. Equipments, vehicles & others 100.00 177.23 341.00<br />

ii. Office building 350.00 739.00 600.00<br />

iii. Residential building 200.00 567.55 350.00<br />

iv. Minor works 66.00 257.81 180.00<br />

(D) Others (exc.TA) 200.00 1066.40 515.00<br />

Total - Administrative Expenses 1936.00 4395.00 3523.00<br />

5 Miscellaneous Expenses<br />

(A) HRD<br />

(B) Other Items(fellowships) 350.00 160.00 300.00<br />

(C) Publicity & Exhibitions 0.00 0.20 25.00<br />

(D) Guest House-Maintenance 0.00 41.70 50.00<br />

(E) Other Misc. 240.00 288.10 250.00<br />

Total - Miscellaneous Expenses 590.00 490.00 625.00<br />

Total Grants in Aid - GENERAL 12419.00 14414.00 14548.00<br />

Total Revenue (Grants in Aid- 24890.00 26285.00 26938.00<br />

Salaries+Grants in Aid-General)<br />

GRAND TOTAL (Capital+Revenue) 24960.00 26450.00 27008.00<br />

154


14. STAFF POSITION<br />

(As on 31.03.2012)<br />

Category Number of posts<br />

Sanctioned Filled<br />

155<br />

Direct By<br />

Recruitment Assessment Total<br />

A. SCIENTIFIC STAFF<br />

1) <strong>Research</strong> Management Personnel 6 5 – 5<br />

2) Principal Scientist 65 46 91 137<br />

3) Senior Scientist/Scientist (S.G.) 170 84 98 182<br />

4) Scientist 337 269* – 80<br />

Total 578 404 404<br />

B. TECHNICAL STAFF<br />

1) Category III 25 15<br />

2) Category II 308 246<br />

3) Category I 395 284<br />

4) Auxiliary 02<br />

Total 728 547<br />

C. ADMINISTRATIVE STAFF<br />

1) Group A 20 15<br />

2) Group B 276 191<br />

3) Group C 164 151<br />

Total 460 357<br />

D. SKILLED SUPPORTING STAFF 1307 1058<br />

Note: *Out of 269 positions of Scientist filled through direct recruitment only 80 are working in the grade of Scientist. The remaining 189 scientists<br />

(i.e. 91 Principal Scientists & 98 Senior Scientists) have been promoted as Principal Scientist and Senior Scientist through assessment.


I. On-going Projects at IARI as on 31.03.2012<br />

a) School of Crop Improvement 34<br />

b) School of Resource Management 29<br />

c) School of Crop Protection 19<br />

d) School of Basic Sciences 14<br />

e) School of Social Sciences 12<br />

f) Other projects 12<br />

g) Challenge projects 05<br />

Total 125<br />

II. Scientific Meetings Organized<br />

a) Workshops 16<br />

b) Seminars 11<br />

c) Summer institutes/Winter school 03<br />

d) Farmers’ day (s) 69<br />

e) Others 88<br />

Total 187<br />

III. Participation of Personnel in Scientific<br />

Meetings<br />

India<br />

a) Seminars 181<br />

b) Scientific meetings 202<br />

c) Workshops 103<br />

d) Symposia 110<br />

e) Others 131<br />

Total 727<br />

Abroad<br />

a) Seminars 28<br />

b) Scientific meetings 16<br />

c) Workshops 10<br />

d) Symposia 08<br />

e) Others 15<br />

Total 77<br />

15. MISCELLANY<br />

156<br />

IV. Significant Suggestions Given /<br />

Decisions Taken at the Meetings of Senior<br />

Management Personnel<br />

Board of Management<br />

● Establishment of Centre for Environment Science<br />

and Climate Resilient Agriculture (CESCRA).<br />

Academic Council<br />

● Institution of an award in the name of Dr. A.B. Joshi,<br />

the first <strong>Indian</strong> Dean, IARI; Director, IARI; and<br />

Deputy-Director General (Crop Sciences), ICAR.<br />

● Re-nomenclature of the M.Sc. degree in Post<br />

Harvest Technology as M.Tech. (Post Harvest<br />

Technology) for those students who are admitted<br />

with B.Tech. degree.<br />

● The students pursuing their M.Sc. / Ph.D.<br />

programme at IARI are given the option to write<br />

their theses in Hindi if they so desire. It is<br />

mandatory for thesis title, first page of the thesis,<br />

and the abstract of the thesis to be written in<br />

Hindi.<br />

<strong>Research</strong> Advisory Committee<br />

School of Crop Improvement<br />

● Work on basmati rice be published in the form of<br />

success story, highlighting the contribution and<br />

economic impact of PB 1121.<br />

● Collaborative research progamme aimed at solving<br />

the problem of mango malformation through<br />

biotechnological approaches needs to be pursued<br />

with full vigor. Possibly a Challenge Programme<br />

in inter-institutional mode will be desirable.<br />

● Alternatives to the existing wheat variety PBW 343<br />

for higher productivity and rust resistance in the<br />

north-western zone of the country is a must and<br />

should be given high priority.<br />

● Prime importance needs to be given for breeding<br />

varieties for high temperature tolerance in


<strong>Institute</strong>’s mandate crops, with special emphasis<br />

on terminal heat in wheat.<br />

● <strong>Research</strong> needs to be focussed on a few selected<br />

and mandated vegetable crops only. Hence,<br />

prioritization must be made for future research<br />

programmes.<br />

● Large scale multiplication of quality planting<br />

material for the best available mango hybrids be<br />

given top priority.<br />

● Major emphasis needs to be given to the<br />

development of technologies for food processing,<br />

packaging and also commercialization of value<br />

added products through PPP.<br />

School of Natural Resource Management<br />

● <strong>Research</strong> programmes of Water Technology Center<br />

should focus at maximizing production under<br />

rainfed agriculture in north-western region of the<br />

country.<br />

● Alternatives to the existing rice-wheat system<br />

should be worked out, with a greater emphasis to<br />

resource conservation technologies under direct<br />

seeded rice. Efforts should also be made to work<br />

out strategies for controlling weed and nematodes<br />

in direct seeded rice. Economic analysis of<br />

alternative systems be worked out.<br />

● Studies on rain water harvesting, microirrigation<br />

and fertigation technologies be given prime<br />

importance. Cost-benefit analysis of the drip<br />

irrigation technology should also be worked out<br />

for the benefit of end users.<br />

● Decision support systems and sensors for precision<br />

farming be developed in collaboration with other<br />

advanced <strong>Institute</strong>s.<br />

● Strategies on minimizing water consumption in<br />

transplanted rice may be looked into, and studies<br />

on improving efficiency of rice transplanters<br />

undertaken.<br />

● Training of scientists needed in the area of<br />

simulation modeling and WUE.<br />

● <strong>Research</strong> programmes pertaining to the use of<br />

nano-technology for fertilizer use & management<br />

be given greater emphasis.<br />

School of Crop Protection<br />

● Concerted research efforts needed in the area of<br />

IPM of important vegetable and horticultural crops<br />

157<br />

in collaboration with NCIPM. Efforts should also<br />

be made to test and popularize the crop-specific<br />

IPM packages on a large scale.<br />

● Due emphasis needs to be given to research on the<br />

use of bioagents for reducing the post harvest<br />

losses of important fruit and vegetable crops.<br />

● Technologies with respect to Trichoderma and<br />

Chaetomium based formulations along with<br />

Hydrogel Technology should be demonstrated on<br />

a large scale for the benefit of end users. Such<br />

experiments be taken up on farmers’ fields.<br />

● Studies on the efficient use of neem coated urea<br />

for enhancing NUE and WUE in rice may be taken<br />

up in view of good work carried out on neem<br />

pesticides at the <strong>Institute</strong>.<br />

● Integrated research programme is needed on<br />

improving virus resistance in papaya. Hence, a<br />

project at inter-divisional level be initiated as a<br />

matter of priority.<br />

School of Basic Sciences<br />

● Work on developing GM rice with relevant traits<br />

may be intensified.<br />

● <strong>Research</strong> programmes aimed at improving<br />

drought tolerance in wheat be strengthened.<br />

● Focussed research on selected crops and high<br />

priority areas needed to be the future aim involving<br />

all the Basic Sciences disciplines rather than taking<br />

small and diverse studies, keeping in view the<br />

interest of individual scientists.<br />

School of Social Sciences<br />

● Impact assessment and evaluation models for out<br />

scaling of institute innovations be the future thrust<br />

and given major priority.<br />

● Strong inter-disciplinary linkages with the<br />

Biological scientists of other schools is required for<br />

developing effective impact assessment models.<br />

● <strong>Research</strong> and teaching linkages with IASRI and<br />

NCAP to be established involving post-graduate<br />

faculty and students on priority. An MOU with<br />

NCAP be signed soon on the lines similar to IASRI<br />

and NBPGR for post-graduate teaching<br />

programme.<br />

● <strong>Institute</strong> should take lead in transfer of potential<br />

technologies to the end users. Efforts should also


e made to display / demonstrate the technologies<br />

to the end users prior to their large scale transfer.<br />

● Special attention needs to be given to linking<br />

farmers with market to enhance their income.<br />

● The technologies / products developed by IARI<br />

should be placed on the <strong>Institute</strong> website and made<br />

available to end users through ATIC and given<br />

wide publicity.<br />

Challenge Programmes<br />

● Studies carried out by other institutes with respect<br />

to these challenge programmes should also be<br />

looked into in order to avoid duplicity in research<br />

work and arrive at more meaningful research<br />

conclusions.<br />

● Collaboration with CIMMYT and IRRI will be<br />

desirable for the challenge programme on<br />

conservation agriculture.<br />

● Concerted efforts are required for breeding<br />

varieties for high temperature tolerance and<br />

terminal heat tolerance in wheat.<br />

● Only diseases and pests of national importance be<br />

addressed in priority vegetable crops.<br />

● Possibility of using marine aquatic algae for the<br />

production of biofuel may be examined and<br />

explored.<br />

● Adaptation and mitigation strategies to climate<br />

change be given high priority.<br />

Post Graduate School Activities<br />

● Need for regular upgradation of IARI faculty by<br />

imparting training / study tours in specialized<br />

fields of research in reputed national / international<br />

Institutions.<br />

● Faculty evaluation system be relooked for making<br />

it more effective and purposeful. Professors should<br />

be identified on the basis of their merit and<br />

scientific contributions. Entire post-graduate<br />

faculty in each Division be involved in the process<br />

of faculty evaluation system.<br />

● Intake of M. Sc. Students be gradually reduced and<br />

that of Ph. D. as well as female students be<br />

increased. Even gender balance be given due<br />

attention at the <strong>Institute</strong> level.<br />

● Renovation and upkeep of P.G. hostels be the top<br />

priority under 12th five year plan.<br />

158<br />

● Number of Post-doctoral Fellows to be increased<br />

from present 15 to at least 25 during the next plan.<br />

Finance and Administration<br />

● Filling of the scientific posts in various disciplines<br />

and technical positions to be taken up on priority,<br />

especially for senior scientists at IARI in view of a<br />

large number of vacancies already notified to the<br />

Council.<br />

● Assessment of technical staff should be done<br />

preferably on every six monthly basis.<br />

● HRD funds may be utilized for the international<br />

training programmes of the scientists in<br />

specialized areas of research and participation in<br />

seminars, conferences abroad, especially when<br />

they have been invited to make oral / lead or<br />

plenary papers.<br />

● Revolving fund schemes need to be reviewed. Due<br />

incentives / rewards should be given to the staff<br />

working in the Revolving fund schemes on a<br />

regular basis, as per provisions under the scheme<br />

and also backlog be got cleared on priority basis.<br />

Recommendations of the Technical Advisory<br />

Committee (TAC) for the Challenge<br />

Programmes of IARI<br />

The following recommendations were made by the<br />

members of TAC for bringing further improvement in<br />

the under mentioned five challenge programmes of<br />

IARI.<br />

1. Hybrid development in crops (wheat,<br />

pigeonpea and mustard)<br />

● Basic and strategic studies for improving the<br />

functionality of A, B and R lines in mustard need<br />

to be carried out.<br />

● Effective pollination control mechanisms are<br />

required for production of hybrids in wheat,<br />

mustard and pigeonpea.<br />

● Use of stable CMS lines in hybrid research<br />

programme may be given due emphasis.<br />

● Strategies for popularization and promotion of the<br />

available hybrids need to be carried out.<br />

● Efforts should be made to study the hybrid seed<br />

production of these major crops in relation to<br />

climate change.


● Quantifiable deliverables in the hybrid programme<br />

may be highlighted keeping in view the available<br />

manpower and resources in hand.<br />

2. Hybrid development in vegetable crops<br />

● Focused research in CMS based hybrid<br />

development in cauliflower and cabbage is<br />

required.<br />

● Major thrust needs to be given to studies on<br />

multiple disease resistance, uniformity,<br />

●<br />

reproductive biology, quality control in addition<br />

to yield. <strong>Research</strong> on leaf curl virus resistance in<br />

hybrid tomato needs to be pursued with full vigor.<br />

Work on early cauliflower may be given prime<br />

importance. Efforts should also be made to increase<br />

the curd size of early cauliflower for the benefit of<br />

end user.<br />

● Due emphasis needs to be given to marketing of<br />

developed varieties / hybrids of important<br />

vegetable crops by taking help from private<br />

companies.<br />

● Studies on functional male sterility and production<br />

of hybrid seeds in vegetable crops are needed.<br />

● The Division of vegetable Science should take lead<br />

in the development of vegetable hybrids for the<br />

year round cultivation and promotion of some<br />

underutilized vegetables.<br />

3. Enhancing resilience of <strong>Indian</strong> Agriculture to<br />

climate change<br />

● A Policy paper on residue utilization may be<br />

published on priority.<br />

● The work carried out under the challenge<br />

programme should be translated and up scaled to<br />

national policies. In this respect involvement of<br />

Economist in the challenge programme is must.<br />

● Effective technologies for increasing the<br />

productivity of rainfed areas needs to be worked<br />

out while addressing the problem of climate change.<br />

● Benefits accruing from the effect of elevated CO2 treatment under filtered ozone levels may be seen<br />

and recorded.<br />

● Efforts should be made to study long term effects<br />

of elevated temperature on the nitrogen cycle<br />

arising due to changes taking place in nitrogen /<br />

potassium / phosphorus fixing bacteria.<br />

159<br />

● Programme on climate change needs to be closely<br />

linked with conservation agriculture programme.<br />

Emphasis should be laid down on understanding<br />

the effect of conservation agriculture practices in<br />

mitigating the impact of elevated CO . 2<br />

● Breeding work should form an integral component<br />

of studies pertaining to screening of varieties for<br />

high temperature tolerance.<br />

● Studies on the effect of elevated CO on BPH<br />

2<br />

population and yield in rice under OTC need to be<br />

re-examined and further investigated.<br />

● Lethal temperature dose for BPH survival should<br />

be taken into consideration while studying the<br />

effect of elevated temperature on BPH population.<br />

4. Bioprospecting of microorganisms for<br />

sustainable production of second generation<br />

liquid biofuels<br />

● Strategic approaches aimed at identification of<br />

novel algal strains which can produce high levels<br />

of lipids as well as reduce incubation time for lipid<br />

accumulation needs to be looked into. Possibility<br />

of using oleo genus microbes (fungi) for lipid<br />

accumulation may also be explored.<br />

● Cost effective approaches for biofuel production<br />

to be worked out. In this respect, selection,<br />

sustainability, availability and cost of raw materials<br />

to be used for biofuel production may be given due<br />

importance.<br />

● Studies on screening of microbes for delignification<br />

and saccharification may be undertaken. Emphasis<br />

should also be given to the use of non-edible<br />

lignocellulosics for biofuel purpose.<br />

● Efforts should be made to isolate efficient algal<br />

strains which can convert pentoses and hexoses to<br />

ethanol for improved biofuel production<br />

5. Conservation agriculture for enhancing<br />

productivity and resource-use efficiency<br />

● Cutting edge research in the area of conservation<br />

agriculture, especially under rainfed conditions is<br />

required.<br />

● Studies on weed and insect dynamics, carbon<br />

sequestration and moisture regime under<br />

conservation agriculture may be given major<br />

emphasis.


● Development of suitable sensors and Decision<br />

Support Systems for integrated nutrient, pest and<br />

stress (abiotic / biotic) management to be taken up<br />

on priority.<br />

● Concerted efforts needed in the area of soil health<br />

and microbial studies.<br />

● Effective approaches for increasing the input use<br />

efficiency in direct seeded rice under conservation<br />

agriculture needs to be looked into.<br />

V. Resource Generation<br />

1. Consultancy & other services<br />

Consultancy services ` 4,18,470<br />

Contract research –<br />

Contract service –<br />

Training –<br />

Total (A) ` 4,18,470<br />

2. Revolving fund Sale Proceeds<br />

Revenue<br />

Generated<br />

(a) Seed ` 1,00,01,222<br />

(b) Commercialization ` 12,33,582<br />

(c) Prototype manufacturing ` 49,27,862<br />

Total (B) ` 1,61,62,666<br />

3. Post Graduate School receipt<br />

Training Programme<br />

(a) Foreigners & <strong>Indian</strong>s<br />

M.Sc./Ph.D Programme<br />

` 1,09,000<br />

(b) Institutional economic fee from<br />

foreign scholars under Work Plan<br />

`16,71,185<br />

(c) Receipt from Registrar<br />

Account No.<br />

5432(9029.201.4314) :<br />

` 1622004<br />

all fees except institutional economic fee,<br />

including sale of information |<br />

bulletin through D.D.<br />

(d) Cash transferred from Syndicate ` 9,11,187<br />

Bank to Director’s Account No.<br />

C-49(9029.305.17) from sale of<br />

information bulletin<br />

+ ` 280250<br />

160<br />

(e) Receipt deposited in Director’s ` 1,99,076<br />

Account No. C-49(9029.305.17)<br />

for theses evaluation, PDC & Misc.<br />

(does not include refund<br />

of IARI scholarship by students)<br />

Total (C) ` 47,92,702<br />

Grand Total (A+B+C) ` 2,13,73,838<br />

VI. Infrastructural Development<br />

● Construction of farmers training hall, guest room<br />

and boundary wall at the Regional Station, Indore.<br />

● Development of office-cum-laboratory building<br />

and establishment of vermi-composting system of<br />

12t per annum capacity at the IARI Centre,<br />

Dharwad.<br />

● Construction of threshing, seed drying and curing<br />

facility at main Vegetable <strong>Research</strong> Farm, covering<br />

of parking and exhibition enclosure at divisional<br />

UVRD, development of conference room and<br />

creation of tissue culture laboratory facilities in the<br />

Division of Vegetable Science.<br />

● Development of cold storage facility and car<br />

parking area at the Division of Floriculture and<br />

Landscaping.<br />

● Tiling of rooms and renovation of technical cell and<br />

committee room in the Division of Agronomy.<br />

● A recharge field for rain water harvesting of 10000<br />

m 3 capacity, a semi climate control greenhouse of<br />

1000 m 2 area, construction of 1000 m 2 zero energy<br />

naturally ventilated green house and 200 m 2<br />

greenhouse aqua-ponics facility were developed<br />

at the farm of CPCT.<br />

● Procured a new Holland Tractor (75 hp), three<br />

FARMTRAC Tractors (55hp), a FARMTRAC<br />

Tractor (65 hp), a Zurn Plot Combine Harvester, a<br />

Tipping Tractor Trailer and a non-Tipping Tractor<br />

Trailer at FOSU.<br />

● Development of a new laboratory and renovation<br />

of laboratories in the Division of Microbiology.<br />

● Construction of office cum Laboratory building at<br />

IARI, Regional Station, Pune.


● Development of glasshouse integrating to the<br />

transgenic research and a new class room in the<br />

Division of Nematology.<br />

● Renovation of Post Graduate and Training<br />

laboratories, divisional Library, Committee room,<br />

Students’ Room, Conference Room and flooring of<br />

corridors in the Division of Biochemistry.<br />

● (i) Renovation of a FACE, TGT and four OTCs with<br />

fully automatic monitoring of CO 2 , temperature,<br />

humidity and light, (ii) Two laboratories, (iii) False<br />

ceiling with lights and electrical works in four labs<br />

and corridors (ground and first floor), (iv) Flooring<br />

in growth chamber room, (v) repairing/<br />

redevelopment of two borewell, (vi) Repairing/<br />

replacement of polysheet (2 high temperature<br />

chamber-pot culture and 8 small OTCs, and (vii)<br />

Development of Committee Room in the Division<br />

of Plant Physiology.<br />

● Development of website of Centre of Advanced<br />

Faculty Training (CAFT), Board Room and creation<br />

of improved projection facility in Information Hall<br />

at the Division of <strong>Agricultural</strong> Extension.<br />

● Establishment of (i) a unit of Bee keeping (apiary)<br />

with 4 bee hives and honey extraction machine,<br />

(ii) a bio-gas plant (Gobar gas plant) of 4 cubic<br />

meter size, (iii) Drip irrigation system, (iv) ATIC<br />

conference hall, (v) installation of two Touch Panel<br />

Kiosks, two revolving scroller posters and 19<br />

illuminated display panels at ATIC.<br />

VII. All India Coordinated <strong>Research</strong> Projects<br />

in Operation during the year April 1, <strong>2011</strong> to<br />

March 31, 2012<br />

Project Headquarters<br />

1. All India Coordinated Project on Plant Parasitic<br />

Nematodes with Integrated Approach for their<br />

Control.<br />

161<br />

2. All India Network Project on Pesticide Residues<br />

National Centres Functioning at IARI under All<br />

India Coordinated <strong>Research</strong> Projects<br />

1. All India Network Project on Biofertilizers<br />

(Erstwhile All India Coordinated <strong>Research</strong> Project<br />

on Biological Nitrogen Fixation)<br />

2. All India Coordinated Project on Long-Term<br />

Fertilizer Experiments<br />

3. All India Coordinated <strong>Research</strong> Project on Soil Test<br />

Crop Response Correlations<br />

4. All India Coordinated <strong>Research</strong> Project on<br />

Floriculture Improvement<br />

5. All India Network Project on Pesticide Residues<br />

6. All India Coordinated <strong>Research</strong> Project on<br />

Renewable Energy Sources for Agriculture and<br />

Agro-based Industries<br />

7. All India Coordinated <strong>Research</strong> Project on<br />

Biological Control of Crop Pests and Weeds<br />

8. All India Coordinated <strong>Research</strong> Project on Soybean<br />

9. All India Coordinated <strong>Research</strong> Project on Honey<br />

Bees<br />

10. All India Coordinated <strong>Research</strong> Project on Sub-<br />

Tropical Fruits<br />

11. All India Coordinated <strong>Research</strong> Project on<br />

N.S.P.(Crops)<br />

12. All India Coordinated <strong>Research</strong> Project on Mustard<br />

13. All India Coordinated <strong>Research</strong> Project on Wheat<br />

14. All India Coordinated <strong>Research</strong> Project on Rice<br />

15. All India Coordinated <strong>Research</strong> Project on Pulses<br />

16. All India Coordinated <strong>Research</strong> Project on<br />

Pearlmillet


VIII. Foreign Visitors during April 1, <strong>2011</strong> to March 31, 2012<br />

S. Visitor (s) Month<br />

No.<br />

1. A 5-member delegation from Ethiopia April, <strong>2011</strong><br />

2. A 9-member delegation from Bhutan April, <strong>2011</strong><br />

3. Her Excellency Mrs. Orit Noked, Minister of Agriculture, Israel April, <strong>2011</strong><br />

4. A high level delegation from Ministry of Education, Taiwan May, <strong>2011</strong><br />

5. Dr. Emmanuel Fabiano, Vice Chancellor, University of Malawi May, <strong>2011</strong><br />

6. Mr. Hugues Ngouelondele, Mayor of Brazzaville, Republic of Congo June, <strong>2011</strong><br />

7. His Excellency Prof. Babury, Hon’ble Deputy Minister, Ministry of Higher Education, Afghanistan June, <strong>2011</strong><br />

8. A 5-member delegation from the Ministry of Agriculture of the Republic of Mozambique July, <strong>2011</strong><br />

9. An 18-member high level delegation led by Hon. Dr. Ahmed Yakubu Alhassan, Member of Parliament, Ghana July, <strong>2011</strong><br />

10. A 9-member delegation led by Dr. Romono Klome, Permanent Secretary, Ministry of Agriculture, Kenya August, <strong>2011</strong><br />

11. Visit of Ms. Diden Bilmez from Uludag University, <strong>Agricultural</strong> Economics, Turkey August-September, <strong>2011</strong><br />

12. A 3-member delegation from Ethiopia August, <strong>2011</strong><br />

13. A 20-member delegation of Editors/ Sr. Journalist of 10 Francophone Countries of Africa August, <strong>2011</strong><br />

14. Mr. Adeline Rolnick, <strong>Research</strong>er, Harvard College, USA August, <strong>2011</strong><br />

15. A 2-member delegation, Dr. Johan Dasaeger, Global Technical Product Manager (Nematology)<br />

& Dr. James Rauh, (B-Fate/Environmental Fare) from the DuPont, USA<br />

September, <strong>2011</strong><br />

16. His Excellency U. Thein Sein, President of the Republic of Union of Myanmar October, <strong>2011</strong><br />

17. Dr. Keith Jones, Executive Director, Intellectual Property Office, Washington State University, USA November, <strong>2011</strong><br />

18. A delegation from Austria led by Mr. Josef Kaifler, Head of Advisory Unit in the<br />

<strong>Agricultural</strong> Administration Pharmacist, Austria<br />

November, <strong>2011</strong><br />

19. A group of 35 Professors, Students and Dean of Environmental Studies,<br />

Department of Escuela Politecnica Javeriana of the Republic of Ecuador<br />

November, <strong>2011</strong><br />

20. A 5-member delegation from Rothamsted <strong>Research</strong> Station, UK November, <strong>2011</strong><br />

21. A 12-member Chinese delegation headed by Mr. Liu Kun, Vice- Governor of Guangdong, China December, <strong>2011</strong><br />

22. His Excellency, the Agriculture Minister of Indonesia December, <strong>2011</strong><br />

23. A 5-member delegation from Malaysia December, <strong>2011</strong><br />

24. The United State Agency for International Development (USAID) December, <strong>2011</strong><br />

25. Visit of Ms. Yoshiko Honda from Japan December, <strong>2011</strong><br />

26 Sh. Vasant Bharath, Hon’ble Minister of Food Production Land & Marine Affairs of Trinidad and Tobago January, 2012<br />

27. A 9-member delegation led by Mr. Martin Taylor, Chairman, Syngenta Foundation for Sustainable Agriculture January, 2012<br />

28. A 6-member Chinese delegation led by His Excellency Mr. Yu Youjun,<br />

Vice-Minister of the Office of the South-to-North Water Diversion Commission of the<br />

State Council of People’s Republic of China<br />

February, 2012<br />

29. A 13-member delegation from Switzerland February, 2012<br />

30. A 29-member delegation from America/ Canada February, 2012<br />

31. Dr. Alex Deghan, the Science and Technology Advisor, USAID March, 2012<br />

32. An 11-member delegation from Kandhar, Afghanistan March, 2012<br />

33. A group of 78- students attending Orientation Programme for African Students admitted in different<br />

<strong>Indian</strong> <strong>Agricultural</strong> University under India-Africa Forum Summit (IAFS)<br />

March, 2012<br />

34. A 4-member delegation from Iran led by Mr. Reza Ranjbor Karimi (PhD), Faculty Member,<br />

Assistant Professor in Organic Chemistry, IRAN<br />

March, 2012<br />

35. His Excellency, Mr. Bui Ba Bong, Deputy Minister of Agriculture and Rural Development, Vietnam March, 2012<br />

162


Chairman<br />

1. Dr. H.S. Gupta<br />

Director, IARI<br />

Members<br />

2. Dr. H.S. Gaur<br />

Dean & Joint Director<br />

(Education), IARI<br />

3. Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>)<br />

IARI<br />

4. Dr. K. Vijayaraghvan<br />

Joint Director (Extension)<br />

IARI<br />

5. Dr. A.K. Srivastava<br />

Director<br />

NDRI, Karnal<br />

6. Agril. Commissioner<br />

Deptt. of Agril. & Cooperation<br />

Ministry of Agriculture<br />

Krishi Bhawan<br />

New Delhi - 110 114<br />

7. Development Commissioner<br />

Delhi Administration<br />

Govt. of NCT of Delhi<br />

5/9 Under Hill Road<br />

Delhi - 110 054<br />

8. Dr. Swapan Kumar Datta<br />

Deputy Director- General (CS)<br />

ICAR, Krishi Bhawan<br />

New Delhi - 110 114<br />

Appendix 1<br />

Members of Board of Management of IARI<br />

(As on 31.03.2012)<br />

9. Director (Finance), ICAR<br />

Krishi Bhawan<br />

10. Dr. K. V. Prabhu<br />

Head, Division of Genetics<br />

11. Dr. A. K. Vyas<br />

Head, Division of Agronomy<br />

12. Dr. R. K. Jain<br />

Head, Division of Plant<br />

Pathology<br />

13. Dr. Raj Deo Rai<br />

Head, Division of Biochemistry<br />

14. Dr. Suresh Pal<br />

Head, Division of Agril.<br />

Economics<br />

15. Ms. Sudha Pillai<br />

Secretary (Planning<br />

Commission)<br />

Yojna Bhawan, New Delhi<br />

16. Dr. Chanda Nimbkar<br />

Director,<br />

Animal Husbandry Division<br />

Nimbkar <strong>Agricultural</strong><br />

<strong>Research</strong> <strong>Institute</strong>,<br />

Maharashtra - 415 523<br />

17. Dr. R. R. Hanchinal<br />

Vice Chancellor<br />

University of <strong>Agricultural</strong><br />

Sciences<br />

Dharwad - 580 005<br />

(Karnataka)<br />

163<br />

18. Sh. Rajendrakumar<br />

Shantilal Patel<br />

Ved Wali Khadki<br />

Khambholaj - 388 330<br />

Taluka & District Anand<br />

(Gujrat)<br />

19. Sh. M.J. Ummen,<br />

Mangaiathuparambil<br />

House : Arivilanjapoyil<br />

P.O. : Alakode<br />

Via. Kannur<br />

Distt. Kerala - 670 571<br />

Member-Secretary<br />

20. Sh. B.N. Rao<br />

Registrar & Joint Director<br />

(Admn.)


Chairman<br />

Dr. R.S. Paroda<br />

Former Secretary<br />

DARE & DG, ICAR and<br />

Chairman, Trust for Advancement<br />

of <strong>Agricultural</strong> Sciences<br />

Library Avenue, IARI Campus<br />

Pusa, New Delhi - 110 012<br />

Members<br />

Prof. S.L. Mehta<br />

Former Vice Chancellor (MPUAT)<br />

71, Gokul Nagar,<br />

Udaipur - 313 001 (Rajasthan)<br />

Prof. A.N. Mukhopadhyay<br />

Sangini, 151 Akanksha<br />

Udhyan II, Raibareilly Road<br />

Lucknow - 226 025, U.P.<br />

Appendix 2<br />

Members of <strong>Research</strong> Advisory Committee of IARI<br />

(As on 31.03.2012)<br />

Dr. M. Velayutham<br />

Former DDG (NRM), ICAR<br />

6A, Gardenia Apartment<br />

275, Kilpauk Garden Road<br />

Kilpauk, Chennai - 600 010<br />

Dr. G. L. Kaul<br />

Former VC, AAU<br />

KA- 59 A, Kaushambi<br />

Ghaziabad - 201 012 U.P.<br />

Dr. Mruthyunjaya<br />

Former National Director, NAIP<br />

A-701, Vasundhara Apartments<br />

Sector 6, Plot No. 16, Dwarka,<br />

New Delhi - 110 075<br />

Dr. Swapan Kumar Datta<br />

Deputy Director-General, (CS)<br />

ICAR, Krishi Bhavan<br />

New Delhi - 110 114<br />

Dr. H. S. Gupta<br />

Director<br />

IARI, New Delhi - 110 012<br />

Member-Secretary<br />

Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>)<br />

IARI, New Delhi


Chairman<br />

Dr. H.S. Gupta<br />

Director, IARI<br />

Co-Chairman<br />

Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>), IARI<br />

Members<br />

Dr. I.P. Abrol<br />

Former DDG (NRM), ICAR and<br />

Director, Centre for Advancement<br />

of Sustainable Agriculture<br />

NASC Complex, DPS Marg<br />

New Delhi - 110 012<br />

Appendix 3<br />

Members of TAC (Technical Advisory Committee)<br />

for Challenge Programmes<br />

(As on 31.01.2012)<br />

Prof. S.L. Mehta<br />

Former Vice Chancellor<br />

(MPUA&T)<br />

71 Gokul Nagar<br />

Udaipur - 313 001, Rajasthan<br />

Dr. Gautam Kalloo<br />

Former DDG (Crop Sciences) and<br />

Vice Chancellor, JNKV, Jabalpur<br />

Dr. P.K. Aggarwal<br />

Former National Professor, ICAR<br />

Regional Facilitator, Challenge<br />

Program on Climate Change,<br />

Agriculture & Food Security, IWMI<br />

India Office, NASC Complex, DPS<br />

Marg, New Delhi - 110 012<br />

Prof. R. Banerjee<br />

Head<br />

P.R. Sinha Centre for Bioenergy<br />

I.I.T., Kharagpur - 721 301


Chairman<br />

1. Dr. H.S. Gupta<br />

Director, IARI<br />

Vice-Chairman<br />

2. Dr. H.S. Gaur<br />

Dean & Joint Director<br />

(Education), IARI<br />

Members<br />

3. Dr. Arvind Kumar<br />

DDG (Edn.), ICAR<br />

4. Dr. K.C. Bansal<br />

Director, NBPGR, New Delhi<br />

5. Dr. V.K. Bhatia<br />

Director, IASRI, New Delhi<br />

6. Dr. P.A. Kumar<br />

Director, NRCPB, New Delhi<br />

7. Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>), IARI<br />

8. Dr. K. Vijayaragavan<br />

Joint Director (Extension)<br />

IARI<br />

9. Prof. A.K. Tyagi<br />

Director<br />

National <strong>Institute</strong> of Plant<br />

Genome <strong>Research</strong>,<br />

Aruna Asaf Ali Marg,<br />

P.O. Box No. 10531<br />

New Delhi - 110 067<br />

10. Dr. U.S. Singh<br />

STRASA Coordinator<br />

IRRI, <strong>Indian</strong> Liaison Office,<br />

NASC Complex, DPS Marg<br />

New Delhi - 110 012<br />

Appendix 4<br />

Members of Academic Council of IARI<br />

(As on 31.03.2012)<br />

11. Dr. I.P. Abrol<br />

Director,<br />

Centre for Advancement of<br />

Sustainable Agriculture<br />

NASC Complex<br />

New Delhi - 110 012<br />

12. Dr. P.G. Chengappa<br />

Former Vice-Chancellor<br />

43, II – Cross, Sneha Nagar<br />

Amrutha Halli Main Road<br />

Bengaluru – 560 092<br />

13. Dr. R. Sai Kumar<br />

Project Director,<br />

DMR, New Delhi - 110 012<br />

14. Dr. Ramesh Kumar<br />

Directorate of Floriculture,<br />

New Delhi - 110 012<br />

15. Dr. Ravinder Kaur<br />

Project Director,<br />

WTC<br />

16. Dr. Suresh Walia<br />

Professor, Agril. Chemicals<br />

17. Dr. V.C. Mathur<br />

Professor, Agril. Economics<br />

18. Dr. D.V.K. Samuel<br />

Head & Professor, Agril.<br />

Engineering<br />

19. Dr. Prem Lata Singh<br />

Professor, Agril. Extension<br />

20. Dr. (Ms.) I.M. Santha<br />

Professor, Biochemistry<br />

21. Dr. Rajendra Parsad<br />

Professor, Agril. Statistics<br />

22. Dr. A.K.Vyas<br />

Head & Professor, Agronomy<br />

23. Dr. (Ms.) Usha K. Chopra<br />

Professor, Agril. Physics<br />

24. Dr. P.K. Malhotra<br />

Professor<br />

Computer Application<br />

25. Dr. Prajneshu<br />

Professor, Bioinformatics<br />

26. Dr. R.D. Gautam<br />

Professor, Entomology<br />

27. Dr. S.D. Singh<br />

Professor<br />

Environmental Sciences<br />

28. Dr. K.V. Prabhu<br />

Head & Professor, Genetics<br />

29. Dr. Subodh Joshi<br />

Professor, Horticulture<br />

30. Dr. V.R. Sagar<br />

Professor<br />

Post Harvest Technology<br />

31. Dr. A.K. Singh<br />

Head, Division of Fruits &<br />

Horticultural Technology<br />

32. Dr. T. Jankiram<br />

Head, Division of Floriculture<br />

& Landscaping<br />

33. Dr. Pritam Kalia<br />

Head, Division of Vegetable<br />

Science<br />

34. Dr. Dolly Wattal Dhar<br />

Professor, Microbiology


35. Dr. Srinivasan<br />

Professor, Molecular Biology<br />

& Biotechnology<br />

36. Dr. Sudarshan Ganguly<br />

Professor, Nematology<br />

37. Dr. I.S. Bisht<br />

Professor, Plant Genetic<br />

Resources<br />

38. Dr. Pratibha Sharma<br />

Professor, Plant Pathology<br />

39. Dr. V.P. Singh<br />

Professor, Plant Physiology<br />

40. Dr. S.S. Parihar<br />

Professor, Seed Science<br />

& Technology<br />

41. Dr. R.D. Singh<br />

Professor, Soil Science &<br />

<strong>Agricultural</strong> Chemistry<br />

42. Dr. R.K. Sharma<br />

Professor<br />

Water Science & Technology<br />

43. Dr. R.S. Chhillar<br />

Master of Halls of Residences<br />

44. Ms. Usha Khemchandani<br />

In-charge<br />

IARI Library<br />

45. Dr. Sunil Pabbi<br />

Faculty Representative<br />

46. Dr. Anil Sirohi<br />

Faculty Representative<br />

47. Dr. K.M. Manjaiah<br />

Officer Incharge, AIM Cell<br />

PG School<br />

48. Shri H.H. Kumarasamy<br />

President, PGSSU<br />

49. Shri Bontha Vidyadhar<br />

Students’ Representative<br />

Member-Secretary<br />

50. Sh. B.N. Rao<br />

Registrar & Joint Director<br />

(Admn.)


Chairman<br />

1. Dr. H.S. Gupta<br />

Director, IARI,<br />

New Delhi<br />

Members<br />

2. Dr. K.D. Kokate<br />

DDG, (Extension)<br />

ICAR, KAB, Pusa<br />

New Delhi - 110 012<br />

3. Dr. K. Vijayaragavan<br />

Joint Director (Extension),<br />

IARI, New Delhi<br />

4. Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>)<br />

IARI, New Delhi<br />

5. Sh. B.N. Rao<br />

Registrar & Joint Director<br />

(Admn.), IARI<br />

6. Dr. K.V. Prabhu<br />

Head, Genetics<br />

IARI, New Delhi<br />

7. Dr. A.K. Vyas<br />

Head, Agronomy<br />

IARI, New Delhi<br />

8. Dr. R.K. Jain<br />

Head, Plant Pathology<br />

IARI, New Delhi - 110 012<br />

Appendix 5<br />

Members of Extension Council of IARI<br />

(As on 31.03.2012)<br />

9. Dr. Suresh Pal<br />

Head, Agril. Economics<br />

IARI, New Delhi<br />

10. Dr. V.A. Tonapi<br />

Head, Seed Science and<br />

Technology, IARI,<br />

New Delhi<br />

11. Dr. D.V.K. Samuel<br />

Head, Agril. Engg.<br />

IARI, New Delhi<br />

12. Dr. B.S. Dwivedi<br />

Head, Soil Science &<br />

<strong>Agricultural</strong> Chemistry<br />

IARI, New Delhi<br />

13. Dr. G.T. Gujar<br />

Head, Entomology<br />

IARI, New Delhi<br />

14. Dr. Subodh Joshi<br />

Professor, Vegetable Science<br />

IARI, New Delhi<br />

15. Dr. Ravinder Kaur<br />

Project Director, WTC<br />

IARI, New Delhi<br />

16. Dr. A.N. Mishra, Head, IARI<br />

Regional <strong>Research</strong> Station,<br />

Indore (MP)<br />

17. Agril. Commissioner, Deptt.of<br />

Agriculture & Cooperation,<br />

Ministry of Agriculture, Krishi<br />

Bhavan, New Delhi<br />

18. Sh. D.K. Thakur<br />

Joint Director (Agriculture),<br />

Govt. of NCT of Delhi, MSO<br />

Building, 11th Floor, IP Estate,<br />

New Delhi<br />

19. Sh. Kailash Chandra, Director<br />

(Ag. Mktg.) Govt. of NCT of<br />

Delhi, 49, Shamnath Marg, Old<br />

Sectt., Delhi-54<br />

20. Dr. Khajan Singh, Principal<br />

Scientist. Dairy Extension,<br />

NDRI, Karnal<br />

21. Dr. M. Kazmi, Director (FI),<br />

Directorate of Extension,<br />

Krishi Vistar Sadan, Behind<br />

Agronomy Division, IARI<br />

Campus, New Delhi - 110 012<br />

Member-Secretary<br />

22. Dr. J.P. Sharma<br />

Head, <strong>Agricultural</strong> Extension,<br />

IARI, New Delhi


Chairman<br />

Director, IARI<br />

Members<br />

Deputy Director-General (Crop<br />

Sciences), ICAR<br />

Appendix 6<br />

Members of <strong>Institute</strong> <strong>Research</strong> Council<br />

(As on 31.03.2012)<br />

Joint Director (<strong>Research</strong>), IARI<br />

All Project Directors/Project<br />

Coordinators of IARI<br />

All Heads of Divisions / Regional<br />

Stations of IARI<br />

All Principal Investigators of IARI<br />

Member-Secretary<br />

Principal Scientist (PME), IARI


Chairman<br />

1. Dr. H.S. Gupta<br />

Director, IARI<br />

Members<br />

2. Dr. H.S. Gaur<br />

Dean & Joint Director<br />

(Education), IARI<br />

3. Dr. Malavika Dadlani<br />

Joint Director (<strong>Research</strong>)<br />

IARI<br />

4. Dr. K. Vijayaragavan<br />

Joint Director (Extension),<br />

IARI<br />

5. Dr. Madhuban Gopal<br />

National Fellow, Division of<br />

<strong>Agricultural</strong> Chemicals<br />

Appendix 7<br />

Members of Executive Council of IARI<br />

(As on 31.03.2012)<br />

6. Dr. Pritam Kalia<br />

Head, Division of Vegetable<br />

Science<br />

7. Dr. Y.P. Sharma<br />

Head, IARI Regional Station,<br />

Amartara Cottage, Shimla<br />

8. Dr. A. K. Saxena<br />

Head, Division of<br />

Microbiology<br />

9. R. K. Pal, Head,<br />

Division of Post Harvest<br />

Technology<br />

10. Dr. R. K. Jain, Head,<br />

Division of Plant Pathology<br />

11. Dr. Raj Deo Rai<br />

Head, Division of<br />

Biochemistry<br />

12. Dr. Suresh Pal<br />

Head, Division of <strong>Agricultural</strong><br />

Economics<br />

13. Dr. Ramesh Kumar<br />

Director, Directorate of<br />

Floriculture, Pusa Campus,<br />

New Delhi-110012<br />

14. Dr. S.S. Atwal<br />

Head, Regional Station, Karnal<br />

15. Dr. Swapan Kumar Datta,<br />

DDG (CS)<br />

ICAR, Krishi Bhawan<br />

Member-Secretary<br />

16. Sh. B.N. Rao<br />

Registrar & Joint Director<br />

(Admn.)


Chairman<br />

1. Dr. H.S. Gupta<br />

Director<br />

Members (Official Side)<br />

2. Dr. H.S. Gaur<br />

Dean & Joint Director<br />

(Education)<br />

3. Dr. Jagdish Kumar<br />

Head, R.S. Wellington<br />

4. Sh. Radhey Sham<br />

Comptroller<br />

5. Dr. P. Natu<br />

Sr. Scientist (PME)<br />

Directorate<br />

6. Sh. Puspender Kumar<br />

Chief Admn. Officer<br />

Secretary (Official Side)<br />

7. Sh. B.N. Rao<br />

Registrar & Joint Director<br />

(Admn.)<br />

Appendix 8<br />

Members of <strong>Institute</strong> Joint Staff Council (IJSC)<br />

(As on 31.03.2012)<br />

Members of the Staff Side<br />

(Elected)<br />

1. Sh. Veer Pal Singh<br />

Technical Officer (T-5)<br />

Centre for Protected<br />

Cultivation Technology<br />

2. Sh. S.C. Dixit<br />

T-4, Division of Genetics<br />

3. Sh. Mithlesh Narayan<br />

(T-4), Division of Genetics<br />

4. Sh. Chetan Swaroop Issar<br />

AAO, Directorate<br />

5. Sh. Radhey Krishan Thakur<br />

UDC, Directorate<br />

6. Sh. Yogesh Kumar<br />

UDC, Directorate<br />

7. Sh. Ajit Singh Rainu<br />

UDC, Division of Entomology<br />

8. Sh. Umesh Thakur<br />

SSS, Directorate<br />

9. Sh. Bijender Singh<br />

SSS, CATAT<br />

10. Sh. Dharm Singh<br />

SSS, Division of Soil Science &<br />

<strong>Agricultural</strong> Chemistry<br />

11. Sh. Shashi Kant Kamath<br />

SSS, Seed Production Unit<br />

Secretary (Staff Side)<br />

12. Sh. Ganesh Rai<br />

T-2, Division of Entomology


Directorate<br />

Director<br />

Dr. H.S. Gupta<br />

Dean & Joint Director (Education)<br />

Dr. H.S. Gaur<br />

Joint Director (<strong>Research</strong>)<br />

Dr. Malavika Dadlani<br />

Joint Director (Extension)<br />

Dr. K. Vijayaragavan<br />

Joint Director(Admn.) &<br />

Registrar<br />

Mr. B.N. Rao<br />

Principal Scientist (PME)<br />

Dr. B.R. Atteri<br />

Incharge, Publication Unit<br />

(English)<br />

Dr. R.L. Sapra<br />

Principal Scientist (ITMU)<br />

Dr. Archna Suman<br />

Comptroller<br />

Mr. Radhey Sham<br />

Chief Administrative Officers<br />

Mr. P.K. Jain<br />

Mr. Pushpendra Kumar<br />

Chief Finance & Accounts Officer<br />

Ms.Bharti Jhade<br />

<strong>Agricultural</strong> Chemicals<br />

Head<br />

Dr. V.T. Gajbhiye<br />

Professor<br />

Dr. Suresh Walia<br />

Appendix 9<br />

Personnel<br />

(As on 31.03.2012)<br />

Network Project Coordinator<br />

Dr.K.K.Sharma<br />

National Fellow<br />

Dr. Madhuban Gopal<br />

<strong>Agricultural</strong> Economics<br />

Head<br />

Dr. Suresh Pal<br />

Professor<br />

Dr. V.C. Mathur<br />

<strong>Agricultural</strong> Engineering<br />

Head & Professor<br />

Dr. D.V.K. Samuel<br />

<strong>Agricultural</strong> Extension<br />

Head<br />

Dr. J.P. Sharma<br />

Professor<br />

Dr. Prem Lata Singh<br />

<strong>Agricultural</strong> Physics<br />

Head<br />

Dr. Ravender Singh<br />

Professor<br />

Dr. Usha Kiran Chopra<br />

Agronomy<br />

Head & Professor<br />

Dr. A.K. Vyas<br />

Biochemistry<br />

Head<br />

Dr. R.D. Rai<br />

Professor<br />

Dr. I.M. Santha<br />

Entomology<br />

Head<br />

Dr. G.T. Gujar<br />

Professor<br />

Dr. R.D. Gautam<br />

National Fellow<br />

Dr. G.K. Mahapatro<br />

Floriculture and Land-scaping<br />

Head<br />

Dr. T. Janakiram<br />

Fruits and Horticultural<br />

Technology<br />

Head<br />

Dr. A.K. Singh<br />

Genetics<br />

Head & Professor<br />

Dr. K.V. Prabhu<br />

Microbiology & CCUBGA<br />

Head<br />

Dr. A.K. Saxena<br />

Professor<br />

Dr. Dolly Wattal Dhar<br />

Nematology<br />

Head<br />

Dr. A.K. Ganguly<br />

Professor<br />

Dr. Sudershan Ganguly<br />

Project Coordinator<br />

Dr. R.K. Jain


Plant Pathology<br />

Head<br />

Dr. R.K. Jain<br />

Professor<br />

Dr. Pratibha Sharma<br />

National Fellow<br />

Dr. Rashmi P. Aggarwal<br />

Plant Physiology<br />

Head<br />

Dr. R.K. Sairam<br />

Professor<br />

Dr. V.P. Singh<br />

Post Harvest Technology<br />

Head<br />

Dr. R.K. Pal<br />

Professor<br />

Dr. Vidya Ram Sagar<br />

Seed Science and Technology<br />

Head<br />

Dr. Vilas A. Tonapi<br />

Professor<br />

Dr. S.S. Parihar<br />

Soil Science and <strong>Agricultural</strong><br />

Chemistry<br />

Head<br />

Dr. B.S. Dwivedi<br />

Professor<br />

Dr. R.D. Singh<br />

Vegetable Science<br />

Head<br />

Dr. Pritam Kalia<br />

Professor (Hort.)<br />

Dr. Subodh Joshi<br />

Centre for Environment Science<br />

and Climate Resilient<br />

Agriculture (CESCRA)*<br />

Incharge<br />

Dr. R.K. Rattan<br />

Professor<br />

Dr. Shiv Dhar Singh<br />

Water Technology Centre<br />

Project Director<br />

Dr. Ravinder Kaur<br />

Professor<br />

Dr. R.K. Sharma<br />

Centre for <strong>Agricultural</strong><br />

Technology Assessment and<br />

Transfer<br />

Incharge<br />

Dr. Ambrish Kumar Sharma<br />

Centre for Protected Cultivation<br />

Technology<br />

Incharge<br />

Dr. Balraj Singh<br />

<strong>Agricultural</strong> Technology<br />

Information Centre (ATIC)<br />

Incharge<br />

Dr. Monika Wasan<br />

Farm Operation Service Unit<br />

Incharge<br />

Dr. Man Singh<br />

National Phytotron Facility<br />

Incharge<br />

Dr. K.V.Prabhu<br />

Seed Production Unit<br />

Incharge<br />

Dr. B.S. Tomar<br />

Unit for Simulation and<br />

Informatics (USI)<br />

Incharge<br />

Dr. H. Chandrasekharan<br />

IARI Library<br />

Incharge (Library Services)<br />

Ms. Usha Khemchandani<br />

Regional Station, Amartara<br />

Cottage, Shimla<br />

Head<br />

Dr. Y.P. Sharma<br />

Regional Station, Indore<br />

Head<br />

Dr. A.N. Mishra<br />

Regional Station, Kalimpong<br />

Incharge<br />

Dr. Ravindra Kumar<br />

Regional Station, Karnal<br />

Head<br />

Dr. S.S. Atwal<br />

Regional Station, Katrain<br />

Head<br />

Dr. R.N. Barwal<br />

Regional Station, Pune<br />

Head<br />

Dr. V.V. Datar<br />

Regional Station, Pusa<br />

Head<br />

Dr. I.S. Solanki<br />

Regional Station, Wellington<br />

(The Nilgiris)<br />

Head<br />

Dr. Jagdish Kumar<br />

Rice Breeding & Genetics<br />

<strong>Research</strong> Centre, Aduthurai<br />

Incharge<br />

Dr. M. Nagarajan<br />

Centre for Improvement of<br />

Pulses in South, Dharwad<br />

Incharge<br />

Dr. V. Hegde<br />

IARI KVK, Shikohpur, Gurgaon<br />

Incharge<br />

Dr. Anjani Kumar<br />

*Formerly Division of Environmental<br />

Sciences and including NRL.

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