Book of Extended summaries ISDA

Book of Extended summaries ISDA Book of Extended summaries ISDA

20.12.2022 Views

International Conference on Reimagining Rainfed Agro-ecosystems: Challenges & Opportunities during 22-24, December 2022 at ICAR-CRIDA, Hyderabad Rajanna, G.A., Pathanjali, N., Singh, A., Manna, S., Dass, A. and Singh, V.K. 2021. Seed treatment and slurry application of hydrogels enhances wheat yields under soybeanwheat system. (In) Extended Summaries: 5 th International Agronomy Congress, November 23-27, 2021, India, pp 1042-1043. Farm Ponds in Semi-Arid Region of Maharashtra Sarita Chemburkar, Taufique Warsi, Ankita Yadav WOTR’s Centre of Resilience Studies (W-CReS), Pune T1-03O-1133 Groundwater is an important natural resource used across the globe for various purposes, including household activities, agriculture, industries, and urbanization. Agriculture productivity has always been largely influenced by water, which directly affects farmer's income and livelihood. Farmers also face challenges with water scarcity around the world, such as reduced crop production due to a lack of water, and decreased income due to unpredictable rainfall. Due to climate changes, rainfall distribution is uncertain, which results in lower income due to erratic amounts of rain, and farmers can only grow crops during the rainy season. Farm ponds are becoming an increasingly popular as a water storage tanks or reservoirs, designed for rainwater harvesting on agricultural land for irrigation purposes, cattle feed, and fish farming. The Maharashtra State Government, as well as Central Government, has been promoting Farm Pond through various schemes with the provision of subsidy. Farm ponds are traditional water harvesting structures to capture surface runoff and to utilize this stored rainwater during lean periods for agriculture. Benefits of the farm ponds include improvement in land productivity, supplemental irrigation to crops, reduced water logging in high rainfall events, and fish culture when sufficient water is available. Observations indicate that multiple sources of water are used to fill the farm ponds, with bore wells and dug wells accounting for the majority of the supply. Thus, for filling the farm ponds, farmers exploit groundwater which eventually affects the water level of the neighboring farmers (non-Farm pond owners). The problem of using farm ponds as a storage tank has imposed a negative impact on surrounding farmers that leads to inequality among the different sizes of landholding of farmers. The marginal and small farmers are suffering the most because they have less capability to invest a large amount of money for individual facilities. The negative externalities mostly impact poor farmers and fail ineffective agriculture activities. It is important to relook and regularize the policy for proper use and to ensure groundwater sustainability as epitomized in the current study. Resilience through land and water management interventions, water management and governance 11 | Page

International Conference on Reimagining Rainfed Agro-ecosystems: Challenges & Opportunities during 22-24, December 2022 at ICAR-CRIDA, Hyderabad T1-04O-1181 Climate Resilience Through Inclusive Water Management Over A Decade: A Successful Case Study of Yelerampura Gram Panchayat, Tumakuru District, Karnataka P.R. Ramesh 1 , N. Loganandhan 1 , J. M. Prashanth 1 , Praveen Kumara 1 and D.V.S. Reddy 2 1 ICAR-Krishi Vigyan Kendra, Hirehalli, Tumakuru-572 168, Karnataka, India 2 ICAR-Agricultural Technology Application Research Institute, Zone-XI, H.A. Farm Post, Bengaluru-560024, Karnataka, India Water is one of the primary life sources for all the species living on the earth, including the mankind. It is also one of the major constituents for production of food, another source of life, on which human beings are dependent. The dry spells affect the productivity of crops, due to non-availability of water during the critical stages of growth, intensive rainfalls spoil by instigating flower droppings, deterioration of grains in standing crops, crop lodging etc., apart from another major impairment called soil erosion. As per a study conducted by Santanu Kumar Bal et.al., (2022) on principal rainfed crops in major dryland regions of India, the yield loss due to impact of dry spells was about 75–99% in 24% of sorghum, 23% of groundnut and 13% of pearl millet and it was about 50–74% in 44% of cotton, 24% of groundnut, 17% of maize, 16% each of pearl millet & sorghum and 12% of pigeon pea growing regions. As per another study conducted by Yan li et.al., (2019) in the United States, excessive rainfall can reduce maize yield up to −34% (−17 ± 3% on average), relative to the expected yield from the long-term trend, comparable to the up to −37% loss by extreme drought (−32 ± 2% on average) from 1981 to 2016. So, if any one thinks of a single solution that would solve this twin-issues, he cannot forego the key climate resilient interventions like farm ponds, percolation ponds and simple in-situ moisture conservation practices like trench cum bunding, formation ridges and furrows, etc. In order to mitigate the above described climate vulnerability, a national level project was initiated by Indian Council of Agricultural Research (ICAR), by the name - National Innovations in Climate Resilient Agriculture’ (NICRA) in the year, 2010. Planning, coordination and monitoring of the programme at national level is the responsibility of ICAR- Central Research Institute for Dryland Horticulture CRIDA, Hyderabad. At district level, the selected KVK is responsible for implementing the project at village level through farmer’s participatory approach. Under this programme, the interventions were focused only to address climate related constraints for stabilizing the productivity and not general agriculture development. 12 | Page Resilience through land and water management interventions, water management and governance

International Conference on Reimagining Rainfed Agro-ecosystems: Challenges &<br />

Opportunities during 22-24, December 2022 at ICAR-CRIDA, Hyderabad<br />

T1-04O-1181<br />

Climate Resilience Through Inclusive Water Management Over A Decade:<br />

A Successful Case Study <strong>of</strong> Yelerampura Gram Panchayat, Tumakuru<br />

District, Karnataka<br />

P.R. Ramesh 1 , N. Loganandhan 1 , J. M. Prashanth 1 , Praveen Kumara 1 and D.V.S.<br />

Reddy 2<br />

1 ICAR-Krishi Vigyan Kendra, Hirehalli, Tumakuru-572 168, Karnataka, India<br />

2 ICAR-Agricultural Technology Application Research Institute, Zone-XI, H.A. Farm Post,<br />

Bengaluru-560024, Karnataka, India<br />

Water is one <strong>of</strong> the primary life sources for all the species living on the earth, including the<br />

mankind. It is also one <strong>of</strong> the major constituents for production <strong>of</strong> food, another source <strong>of</strong> life,<br />

on which human beings are dependent. The dry spells affect the productivity <strong>of</strong> crops, due to<br />

non-availability <strong>of</strong> water during the critical stages <strong>of</strong> growth, intensive rainfalls spoil by<br />

instigating flower droppings, deterioration <strong>of</strong> grains in standing crops, crop lodging etc., apart<br />

from another major impairment called soil erosion. As per a study conducted by Santanu<br />

Kumar Bal et.al., (2022) on principal rainfed crops in major dryland regions <strong>of</strong> India, the yield<br />

loss due to impact <strong>of</strong> dry spells was about 75–99% in 24% <strong>of</strong> sorghum, 23% <strong>of</strong> groundnut and<br />

13% <strong>of</strong> pearl millet and it was about 50–74% in 44% <strong>of</strong> cotton, 24% <strong>of</strong> groundnut, 17% <strong>of</strong><br />

maize, 16% each <strong>of</strong> pearl millet & sorghum and 12% <strong>of</strong> pigeon pea growing regions. As per<br />

another study conducted by Yan li et.al., (2019) in the United States, excessive rainfall can<br />

reduce maize yield up to −34% (−17 ± 3% on average), relative to the expected yield from the<br />

long-term trend, comparable to the up to −37% loss by extreme drought (−32 ± 2% on average)<br />

from 1981 to 2016. So, if any one thinks <strong>of</strong> a single solution that would solve this twin-issues,<br />

he cannot forego the key climate resilient interventions like farm ponds, percolation ponds and<br />

simple in-situ moisture conservation practices like trench cum bunding, formation ridges and<br />

furrows, etc. In order to mitigate the above described climate vulnerability, a national level<br />

project was initiated by Indian Council <strong>of</strong> Agricultural Research (ICAR), by the name -<br />

National Innovations in Climate Resilient Agriculture’ (NICRA) in the year, 2010. Planning,<br />

coordination and monitoring <strong>of</strong> the programme at national level is the responsibility <strong>of</strong> ICAR-<br />

Central Research Institute for Dryland Horticulture CRIDA, Hyderabad. At district level, the<br />

selected KVK is responsible for implementing the project at village level through farmer’s<br />

participatory approach. Under this programme, the interventions were focused only to address<br />

climate related constraints for stabilizing the productivity and not general agriculture<br />

development.<br />

12 | Page Resilience through land and water management interventions, water management and governance

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