Book of Extended summaries ISDA
Book of Extended summaries ISDA Book of Extended summaries ISDA
International Conference on Reimagining Rainfed Agro-ecosystems: Challenges & Opportunities during 22-24, December 2022 at ICAR-CRIDA, Hyderabad Although the soil aggregate was significantly affected by organic amendments, but the maximum Mean weight diameter (MWD) was observed in T8 followed by T7, T6, and T4 at the soil depths of 0-15 cm. A similar trend was observed in the other depths. The concentration of Zn, Mn, Fe, and Cu was found significantly higher in 0-15 cm soil depth as compared to other depths. Our results clearly indicated that the cumulative effect of GM+FYM+BGA leads to increased productivity, improved soil physical properties, and as well as micronutrient availability. T4a-14P-1580 Conservation Agriculture Approach as Climate Change Mitigation Pooja Jena 1 , Arabind Kumar Sinha 2 , Shailabala Dei 1 , A.S. Tigga 1 and Basant Kumar Rajak 3* 1 Bihar agricultural University, Sabour (Bihar) 2 Krishi Vigyan Kendra, Bhagalpur (Bihar) 3 Atal Bihari Vajapeyi Institute for Good Governance & Policy Analysis (AIGGP), Bhopal (Madhya Pradesh) *basant.rajak@gmail.com Climate change is undoubtedly induced and accelerated by human activity and can pose a serious threat to mankind by reducing food production. Significant weather aberrations in form of the uneven precipitation pattern, more frequent and intense occurrence of temperature fluctuations accompanied by changes in wind intensity and frequency, amount of clouds, intensity and quality of sunlight can be expected. Maybe the most vulnerable sector affected by climate change is agriculture. So, it is important to mitigate and adapt to a new situation through different and most adaptable agricultural strategies. There is a need to quantify agriculture’s potential to sequester carbon (C) to inform global approaches aimed at mitigating climate change effects. Many factors including climate, crop, soil management practices, and soil type can influence the contribution of agriculture to the global carbon cycle. Conservation agriculture is as an approach to farming that seeks to increase food security, alleviate poverty, conserve biodiversity and safeguard ecosystem services. Conservation agriculture practices can also contribute to making agricultural systems more resilient to climate change. Conservation agriculture increases and sustains the crop productivities, mitigates greenhouse gas emissions from agriculture by enhancing soil carbon sequestration, improving soil nutrient status and water use efficiencies, and reducing fuel consumption. Mainstreaming of Conservation agriculture systems in India is hindered by its knowledge gap, inadequate farm machineries and tools, small holdings, poor infrastructures, and lack of conservation agriculture friendly policy support. Resource conservation and rainfed agriculture 598 | Page
International Conference on Reimagining Rainfed Agro-ecosystems: Challenges & Opportunities during 22-24, December 2022 at ICAR-CRIDA, Hyderabad T4a-15P - 1061 Conservation Agriculture in Himalayan States of India: Prospects and Research Challenges Ahead Raman Jeet Singh*, N.K. Sharma, Gopal Kumar, Trisha Roy, Uday Mandal, A.K. Gupta, Rama Pal, J.S. Deshwal and M. Madhu ICAR-Indian Institute of Soil and Water Conservation, Dehradun 248 195 *rdxsingh@gmail.com Issues of conservation have assumed importance in view of widespread resource degradation and the need to reduce production costs, increase profitability and make agriculture more competitive. Conservation Agriculture (CA) which has its roots in universal principles of providing permanent soil cover (through crop residues, cover crops, and agro-forestry), minimum soil disturbance, and crop rotations is now considered the principal road to sustainable agriculture (FAO, 2014). Soil tillage and particularly the plough, in hilly regions of the world, has become part of the culture of crop production. Ploughing, cultivation and tillage are often synonyms for growing a crop. Although the concept of CA is universally applicable, this does not mean that the techniques and practices for hilly region are readily available (Sharma et al., 2014). Depending on the specific farming situation and agroecological conditions, the actual CA practice has to be developed locally. Especially, the crop rotations, selections of cover crops, issues of integration of crop and livestock have to be revealed and decided upon by the farmers in a given location. A diversity of problems arises, very often around weed management, residue management, equipment handling and settings, planting parameters like time and depth, which need to be addressed. Similarly, issues like steep slope, undulating topography and fragmented land holdings in hilly region are to be addressed which are major constraint in adopting CA. CA needs to be understood in a broader perspective in Himalayan states of India. It should be practiced in such a way that both soil and water conservation methods are mutually reinforced (Sharma et al., 2005). Although favourable results have been obtained with reduced tillage/no-tillage systems in many cases, there are some problems associated with them in adopting it to hilly region. One major problem in hilly regions is limited availability of crop residue and its utilization for feed and fuel. Reduced tillage systems of developed countries/Indo-Gangetic Plains (IGP) cannot be copied in toto without modification in India/hilly states especially in sloping agricultural conditions, albeit with caution and the prevailing soil, climatic, social, and economic conditions of the region must be considered (Jat et al., 2021). Therefore, the real challenge lies in finding ways and means of sparing the crop residue for conservation farming and evolving alternative strategies for meeting fodder requirements of livestock in the region. CA practices has to be adopted holistically so that it minimizes soil loss, conserve water and 599 | Page Resource conservation and rainfed agriculture
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International Conference on Reimagining Rainfed Agro-ecosystems: Challenges & Opportunities<br />
during 22-24, December 2022 at ICAR-CRIDA, Hyderabad<br />
Although the soil aggregate was significantly affected by organic amendments, but the<br />
maximum Mean weight diameter (MWD) was observed in T8 followed by T7, T6, and T4 at<br />
the soil depths <strong>of</strong> 0-15 cm. A similar trend was observed in the other depths. The<br />
concentration <strong>of</strong> Zn, Mn, Fe, and Cu was found significantly higher in 0-15 cm soil depth as<br />
compared to other depths. Our results clearly indicated that the cumulative effect <strong>of</strong><br />
GM+FYM+BGA leads to increased productivity, improved soil physical properties, and as<br />
well as micronutrient availability.<br />
T4a-14P-1580<br />
Conservation Agriculture Approach as Climate Change Mitigation<br />
Pooja Jena 1 , Arabind Kumar Sinha 2 , Shailabala Dei 1 , A.S. Tigga 1 and Basant Kumar<br />
Rajak 3*<br />
1 Bihar agricultural University, Sabour (Bihar)<br />
2 Krishi Vigyan Kendra, Bhagalpur (Bihar)<br />
3 Atal Bihari Vajapeyi Institute for Good Governance & Policy Analysis (AIGGP), Bhopal (Madhya<br />
Pradesh)<br />
*basant.rajak@gmail.com<br />
Climate change is undoubtedly induced and accelerated by human activity and can pose a<br />
serious threat to mankind by reducing food production. Significant weather aberrations in<br />
form <strong>of</strong> the uneven precipitation pattern, more frequent and intense occurrence <strong>of</strong><br />
temperature fluctuations accompanied by changes in wind intensity and frequency, amount <strong>of</strong><br />
clouds, intensity and quality <strong>of</strong> sunlight can be expected. Maybe the most vulnerable sector<br />
affected by climate change is agriculture. So, it is important to mitigate and adapt to a new<br />
situation through different and most adaptable agricultural strategies. There is a need to<br />
quantify agriculture’s potential to sequester carbon (C) to inform global approaches aimed at<br />
mitigating climate change effects. Many factors including climate, crop, soil management<br />
practices, and soil type can influence the contribution <strong>of</strong> agriculture to the global carbon<br />
cycle. Conservation agriculture is as an approach to farming that seeks to increase food<br />
security, alleviate poverty, conserve biodiversity and safeguard ecosystem services.<br />
Conservation agriculture practices can also contribute to making agricultural systems more<br />
resilient to climate change. Conservation agriculture increases and sustains the crop<br />
productivities, mitigates greenhouse gas emissions from agriculture by enhancing soil carbon<br />
sequestration, improving soil nutrient status and water use efficiencies, and reducing fuel<br />
consumption. Mainstreaming <strong>of</strong> Conservation agriculture systems in India is hindered by its<br />
knowledge gap, inadequate farm machineries and tools, small holdings, poor infrastructures,<br />
and lack <strong>of</strong> conservation agriculture friendly policy support.<br />
Resource conservation and rainfed agriculture<br />
598 | Page