SCI. System of Crop Intensification A Step Towards Climate Resilient Agriculture

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SCI System of Crop Intensification A Step Towards Climate Resilient Agriculture Photo: Village Khandgedhara, Sangamner, Ahmednagar district, Maharashtra

Often, when people think of drylands, they think of deserts and living conditions, economic hardship and water scarcity. But that is not what drylands are all about. If managed well, drylands are often fertile and capable of supporting the habitats, crops and livestock that sustain the entire global population. -UNCCD Yet, drylands have been plagued with over-exploitation and over-utilization of vegetative cover through improper management of soil and water. The unintended consequences of up-scaling the green revolution and white revolution models into the dryland regions of the country are being felt deeply now. Such farming systems have tended to mine the soil for nutrients. This, over time, has degraded soil health considerably. Added to all these stresses is the additional burden of a changing climate that threatens the dryland farmer the most. Erratic and untimely rainfall in too huge or too less quantities can ruin any attempt at eking out a living from agriculture. However, rebuilding soil quality and health through appropriate farming practices may take several years, especially in dryland areas with limited moisture. It also requires institutional and policy backing, funding, capacity building etc. The challenge then is to identify crop management practices that promote soil health, help in moisture retention and ensure productivity as well as short term profitability for farmers. Need for Adaptive Sustainable Agriculture Modern-day chemical-based agriculture demands very high input costs which resource-poor farmers cannot afford. This pushes the poor farmers into longranging debt-traps. Dryland ecosystems have particularly fragile soil conditions. A high-chemical and high-irrigation based agriculture while giving short-term returns, damages soil health in the long run. There is an urgent need to build soil health systematically and to maintain it. Photo: Village Thangadancha, Jupadubunglow Mandal, Kurnool Dist.,Andhra Pradesh In this context, if there is anyone who can save the day, it is the farmer. S/he can take decisions which can help rebuild and restore soil health. S/he can facilitate and maximize the retention and recycling of organic matter and plant nutrients. S/he can take decisions on farming practices to minimize soil nutrient losses caused by leaching, runoffs and erosion. Soil health is crucial to sustainability. Monoculture, cash-crop driven agriculture reduces food security, leaving the farmer with lesser access to food crops. In times of stress, and when cash-crops fail, they are driven into vicious starvation cycles. It is essential to increase food crop varieties and diversify agriculture. Agriculture being climate-dependent is highly vulnerable to weather variations. It is important to increase and diversify land-based income sources. Sustainable agriculture is not only about seed improvement, it is also about sustainable and practical methodologies. These methodologies have to be simple to follow, based on locally available and inexpensive inputs. They also have to be capable of being up-scaled, while being adaptable to local weather-and-soil conditions. The sustainable improvement of agriculture productivity is an important aim of WOTR. Towards this end, in its project areas across India, WOTR has introduced the System of Crop Intensification (SCI) a modification of successful SRI and applied it to a variety of crops.

WHAT IS SCI? System of Crop Intensification: is a four pronged approach that is implemented systematically, more so in the case of poor soils. It involves soil preparation and management, crop spacing, systematic application of locally prepared organic inputs and micro-nutrient foliar sprays. Soil preparation and management Deep soil ploughing specifically done during the summer works wonders on increasing the crop yields. It also reduces weeds, soil pathogens and pests considerably. Crop spacing SCI focuses on reducing the crop density per acre based on plant type and variety. Decreasing the density of crop per acre and maintaining a specific distance between the plants ensures that adequate space, light, nutrients and water is available per plant. This results in better plant growth and in turn better yields. Healthier plants have a stronger "immune and response system" which helps produce "phytochemicals" that naturally support plant development and protect the plant from external stresses. Systematic Application of Organic Inputs SCI involves timely application/spraying of specially prepared organic inputs one is " a growth promoter cum insect repellent and the other is a fertilizer" - prepared with cattle manure and locally available ingredients. The combination of the two, even in highly deteriorated soils, results in enhanced plant growth, good colour, new shoots and flowering and early crop maturity. Over 3 seasons of regular usage it improves soil fertility, microbial and organic content in the soil, soil texture and soil water holding capacity. Micro-nutrient foliar spray and basal applications Degraded soil conditions with less organic matter and microbial content do not bring in the desired results in plant yields immediately. SCI promotes spraying of micronutrient and basal applications to provide adequate nutrients needed in the interim. This is phased off as the soil health improves and eventually it is totally stopped. SCI is about plant management rather than pest management... Photo: Village Kamsanipally, Damaragidda Mandal, Mahboobnagar District, Andhra Pradesh

IMPACTS SCI field trials were conducted on a variety of vegetable crops, sunflower, maize, paddy, turmeric, groundnut, pulses and wheat DEMO CONTROL DEMO CONTROL DEMO DEMO CONTROL CONTROL Adaptation of SRI for enchancing crop productivity in other crops...

WHY SCI? SCI is Simple to Follow SCI is simple to understand and follow and can be practiced by all farmers. It also is a method that can work in any agro-ecological system. It thus can be widely applied across varied crops and ecosystems.sci uses locally available, inexpensive, organic inputs and only initial use of micro-nutrient foliar spray and basal applications thus making it low input technique. Application of organic fertilizers increases the soil water holding capacity: plant has higher tolerance to heat and germination problems reduced Regular weeding and top soil management operations minimize water loss from soil: making more water available for the plants SCI a Viable Intermediate to Organic Farming Yields in low external input farming or organic farming increase gradually and actually give results after three years. For a resource poor farmer this is unacceptable. SCI is thus highly suitable for poor farmers as the yields do not show a sudden decrease because initially small amounts of chemical micro-nutrients are used as fertilizers. Pesticide usage is also nil. Over three seasons, as the soil health improves, the usage of micro-nutrients tapers off and the farmer eventually practices pure organic farming without having to face the initial losses due to reduced yields. SCI is a Climate Adaptive Method SCI method increases the plant's resilience and adaptive capacity. The plants are much bigger, healthier with stronger root system. They are able to withstand, strong winds, and high intensity rainfall and endure much less damage. The plants also have higher tolerance to heat especially during the dry spells. Adequate amounts of phytochemicals in the plant's system help combat climate induced stresses such as pest attacks better. The application of the specially prepared organic fertilizers in the soil increase the capacity of the soil to hold moisture, due to which even with lesser water availability crop yields do not get much affected. CLIMATE RISKS Plants are bigger in size, with stronger stems. larger root systems, and stronger stilt roots: higher capacity to withstand climate events Initial micro-nutrient sprays support plant growth: ensures no drop in yields and physiological disorders Healthier plants mature faster resulting in early harvests, thereby utilizing water more efficiently more crop per drop Healthy plants have higher phytochemicals and hence higher response capacity; more resistant to pest and disease attacks Adequate amounts of phytochemicals in the plant's system help combat climate induced stresses... Spraying of organic growth promoters: reduces pest attacks, promotes plant growth, reduces germination problems Farmers have had the above mentioned experiences. However proper documentation of these will be carried out. Note:The above statements are captured during field trials. Proper documentation and research over a few years is required to substantiate further.

BUILDING RESPONSE CAPACITY WOTR's experience has been to use a combination of techniques for extension, an iterative process where strategies are improvised constantly. Crop Demonstration Farmer Field Schools: Farmer Field Schools (FFS) provided real-time, on-site training and technical support. The trainings are conducted and technical advice is provided on the demo-plots itself. On-site Technical Support Enterprise Promotion Farmers Field School Participatory Documentation Collaborative Linkages Crop demonstration: With the premise that "seeing is believing" farmers are encouraged to have small demonstration plots right beside their regular field. In this manner, the difference in the crops between the two methods is immediately visible. Participatory Documentation: Interviews of farmers are taken at every stage. Their perceptions, their experiences and their difficulties are recorded. These are used to build awareness and to encourage other farmers to adopt better practices. Collaborative Linkages: WOTR supports farmers by building linkages at all stages; linking with government programmes such as Integrated Watershed Management Programme (IWMP), National Rural Employment Guarantee Schemes (MGNREGS) as well as through Public Private Civil society Partnership (PPCP) projects with the corporate sector: registering farmer groups, facilitating access to micro irrigation; and supporting farmers by facilitating market linkages for the SCI produce. Agro- Meteorology Onsite Technical Support: Is the most essential. Timely advise to farmers helps keep them motivated to continue the new techniques and results in faster adoption of the same.

Building response capacity Agro-Metrology: The need of locale specific agro-advisories is important to farmers, to help them be prepared for and to respond appropriately to climatic variations (when possible). Weather stations from groups of villages are directly connected to the Indian Meteorological Department (IMD) servers, which provides locale-specific weather forecasts. In collaboration with research institutes WOTR generates crop specific agro-advisories, disseminating these through SMS to farmers' mobile phones, through village Wall Papers and FFS meetings. Enterprise promotion: This is done by facilitating formation of SHG groups and encouraging traditional livestock keepers to start manufacturing specialized organic manure from indigenous cattle which they sell to farmers doing SCI, Non Pesticide Management, or organic farming. This not only helps to generate income for women Self Help Groups and the traditional livestock keepers but also helps conserve and develop indigenous cattle breeds. Involving women: Changed crop-livestock productions systems at the village level have further increased the work load of women apart from their daily house chores. Due to this, very few women are able to attend training events are participate in exposure visits. With a view to benefit women farmers, trainings are conducted on demonstration plots during real time agriculture activities such as sowing, spraying, harvesting crops etc., explaining to them the SCI methodology. Photo: Village, Purushwadi, Akole, Ahmednagar district, Maharashtra

KEY ESSENTIALS Comprehending technology is critical Any technology gives best results in research farms or in progressive farmers' fields because all essential factors are totally controlled or can be managed easily. However with small farmers many factors beyond our control come into play. One would need to address many practical problems that are often not considered leading to unintended consequences. Hence, comprehending the methodology and how it will perform in reality is critical for implementers so that support systems in the form of project interventions can be built in along with customized communication strategies. Scientific data recording increases the success rate New technology in the initial years may give varied results even in the same location. Hence, documentation is important-recording field trial results and the improvised methods. Involving the farmer family in documentation helps in their better understanding and acceptance of the methodology. Understanding the system and locale specific dynamics is essential Resource poor farmers in dryland regions have unique farming systems and a lot of traditional knowledge. Farming systems, methods, application of inputs differ even within adjoining agro-ecological sub-zones. This is because of differences in lifestyle, access to infrastructure, markets and market information, timely availability of inputs and developments in nonfarm sectors. All these factors influence the mind set and decision making of farmers and influence acceptance of the new methodologies. Communication strategy: Locale specific and an iterative process It is vital to study the farming systems and locale specific dynamics before designing agriculture extension or communication strategies when introducing any new technology. What works in one location may not work in another. The communication strategies need to be an iterative process and locale specific. Comprehending how the new technology will perform in reality is critical. This helps build support systems in project interventions along with customised communication strategies.... Photo: Village Thangadancha, Jupadubunglow Mandal, Ku

Photo: Village, Purushwadi, Akole, Ahmednagar district, Maharashtra p Published by: WOTR and licensed under Creative Commons Watershed Organisation Trust (WOTR) The Forum, S.No. 63/2B, Padmavati Corner, Pune Satara Road, Parvati, Pune - 4009 Tel: +9-20-242262 E-mail - info@wotr.org website: www.wotr.org Government of Andhra Pradesh