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Theme: Climate adaptation and mitigation

Climate change threatens to reduce global crop production, and poor people in tropical environments will be hit the hardest. More than 90% of CIMMYT’s work relates to climate change, helping farmers adapt to shocks while producing more food, and reduce emissions where possible. Innovations include new maize and wheat varieties that withstand drought, heat and pests; conservation agriculture; farming methods that save water and reduce the need for fertilizer; climate information services; and index-based insurance for farmers whose crops are damaged by bad weather. CIMMYT is an important contributor to the CGIAR Research Program on Climate Change, Agriculture and Food Security.

Advisory services boost bean farming in Malawi

For Malawian farmers Monica Levison and Liden Mbengo, the 2023-24 cropping season posed distinct challenges compared to prior years. Like many of their fellow smallholders, they grappled with the El Niño-induced drought, which severely impacted agricultural production across Southern Africa.

Despite these challenges, smallholders demonstrated extraordinary resilience due to crucial advisory services provided by the Southern Africa Accelerated Innovation Delivery Initiative (AID-I) Rapid Delivery Hub Project. The initiative enabled farmers to adopt climate-smart practices such as using drought-tolerant seeds and improved soil management techniques.

A smallholder farmer in Malawi, proudly showcases the high-quality bean seeds he harvested after adopting AID-I’s climate-smart farming techniques.
(Photos: CIAT and CIMMYT)

Connecting Farmers to Innovative Tools and Information

At the core of AID-I’s approach lies the delivery of innovative advisory services and proven agricultural technologies—strategies that have transformed the lives of farmers like Monica and Liden.

The AID-I project is transforming agriculture in targeted regions of the Democratic Republic of Congo, Malawi, Tanzania, and Zambia.

By providing smallholder farmers with critical information and innovative solutions, AID-I empowers them to enhance food production. The project focuses on strengthening legume and maize seed systems to enhance the availability and access to multi-stress-tolerant and nutritious crops. It also emphasizes delivering agricultural advisories to the last mile and improving soil health and fertilizer efficiency. These efforts are compounded with extensive training conducted by the Alliance of Bioversity International and CIAT through the Pan-Africa Bean Research Alliance (PABRA).

Seed Multiplication: A Key Entry Point for AID-I in Malawi

In Malawi, seed multiplication is a critical entry point for AID-I interventions. This approach ensures that farmers have access to high-quality, locally adapted seeds, reinforcing seed systems while supporting food security and resilience among smallholders. Through a network of demonstration plots, the initiative introduced high-demand bean varieties while showcasing modern agronomic practices, including proper planting techniques, precise fertilizer application, and effective pest and disease control strategies. These hands-on demonstrations equipped Malawian farmers with practical and sustainable methods to optimize bean cultivation, even during challenging conditions.

Monica’s Journey: From Small Harvests to Realizing Her Dreams

In Thambolagwa village, Monica had spent more than two decades growing beans only for her family’s consumption. After attending AID-I’s bean production training and receiving 2 kilograms (kg) of NUA35 seed from the demonstrations, she harvested 25 kg, significantly increasing her yield.

Building on this success, Monica planted the harvested seeds on one acre of land during the 2023-24 growing season and harvested 15 bags, each weighing 50 kg. She then sold part of her produce to Milele Agro Processing, earning over US$577.

“The training was incredibly valuable,” she said. “I’m looking forward to the 2024-25 season, during which I plan to expand my business by cultivating two acres of land. With the profits, I aim to make future investments in farming and save money to build a modern house for my family.”

AID-I Demonstrates the Power of Knowledge Through Mbengo’s Transformation

Liden, from Kang’oma Village, spent years planting four bean seeds in a single hole, unaware that this practice limited his agricultural potential. AID-I’s training introduced him to effective agronomic practices such as planting techniques, crop rotation, soil fertility improvement, and pest management as guided by PABRA.

“Following these guidelines, I harvested 15 kg of VTTT 924/4-4 and 18 kg of NUA35 from just half a kilogram of seed. In the previous year, I harvested only 3 kg after planting the same number of seeds and then nearly gave up on bean farming. The knowledge I have gained is priceless. It has reinforced my interest in bean farming and will stay with me forever,” said Mbengo.

Liden Mbengo, a farmer from Kang’oma Village, displays his impressive bean harvest, demonstrating the impact of AID-I training on improving yields and resilience.

A New Era for Malawian Bean Farmers

For extension workers such as Chrissy Minjale in Ntcheu district, the AID-I program has been transformative.

“The trainings were eye-opening for both us and the farmers,” she said. “Smallholder bean farmers in Malawi are likely to experience a significant increase in bean seed and grain production in the long run.”

Farmers and extension workers, inspect newly planted bean crops during a field visit, highlighting the hands-on learning provided by AID-I advisory services.

Field Learning and Adoption of Climate-Smart Practices

The program’s emphasis on linking farmers to off-takers, understanding climatic conditions, and adopting modern agronomic practices has sparked interest in bean farming across Malawi. As Yohane Nkhoma, a field extension officer in Ntchisi, observed:

“We now understand the importance of timing the first rains for beans and other crops. I’m committed to sharing this knowledge with hundreds of farmers in my area and helping them pay closer attention to the climatic conditions crucial for bean production. The results we have witnessed will encourage more farmers to engage in bean cultivation as a serious business.”

Scaling Impact: Training Thousands of Farmers

With over 11,007 farmers trained, 6,786 of whom are women, AID-I is not only improving yields but also empowering communities, building resilience, and igniting a wave of agricultural innovation.

The ripple effect of these interventions is clear. Beyond feeding their families, smallholder farmers are also paving the way for a more secure and sustainable future.

These individuals are more than beneficiaries. They are change agents whose successes inspire their communities and beyond.

As AID-I continues to amplify its impact, it is reshaping the trajectory of smallholder farming in Malawi and setting a precedent for resilience and food security across the region.

The future of farming here is thriving, innovative, and full of promise—as illustrated by Monica, Mbengo, and many more.

Bridging the seed gap in Kenya with standard certified seed

A group photo of the panelists after the discussion on sustainable seed delivery systems at the STAK Congress & Expo 2024 (Photo: Marion Aluoch/CIMMYT)

Kenyan farmers continue to face significant challenges in accessing quality seed, particularly for dryland crops. To address this, Kenya introduced the Standard Certified Seed (SCS) class as a strategic initiative to bridge the gap between fully certified seed and informal farmer-saved seed, as semi-formal seed classes such as quality-declared seed are not legally recognized.

Officially launched in 2020, the SCS class offers a unique opportunity and has the potential to transform the seed sector for open-pollinated and vegetatively propagated crops, including indigenous vegetables, by ensuring quality while making seed production and certification more accessible and affordable. During a recent panel discussion, Lilian Gichuru, Seed Systems Specialist for Eastern and Southern Africa for the Dryland Crops Program at CIMMYT, highlighted its importance. She asked a critical question: “How can we leverage the opportunity presented by standard seed to ensure the delivery of quality seed to farmers, especially in underserved areas?”

This was the focus of a session on sustainable seed delivery systems at the Seed Trade Association of Kenya (STAK) Congress & Expo, held in Nairobi on November 6 and 7, 2024. Themed “Leveraging Technologies That Strengthen Agricultural Resilience and Climate-Smart Seed Systems,” the event served as a platform for knowledge-sharing, collaboration, and innovation. CIMMYT participated as one of the sponsors of the Congress.

To set the stage for the panel discussion, Ephraim Wachira, Deputy Director for Seed Certification at the Kenya Plant Health Inspectorate Service (KEPHIS), provided an overview of the SCS and highlighted Kenya’s efforts to implement its certification process. He described initiatives such as awareness meetings for seed merchants, training programs for outgrowers on certification processes, seed production and agronomic practices, and field inspections to ensure quality compliance. KEPHIS conducted field inspections, sampling, and laboratory testing to ensure quality compliance for 106 metric tons of seed—including sorghum, green gram, and cowpea—during a pilot phase, with a portion of the seed certified and labeled.

Despite these achievements, challenges persist. Limited farmer knowledge, dispersed farms, high production costs, and the impacts of climate change—such as the need for irrigation solutions—continue to pose obstacles. Slow adoption by mainstream seed companies and technical difficulties with online certification systems also hinder progress. However, opportunities lie in increased funding for climate-smart crops, government support for dryland agriculture, and growing farmer awareness. Wachira emphasized the importance of stakeholder engagement, saying, “Collaboration and stakeholder engagement are critical to ensuring farmers access high-quality seeds and advancing Kenya’s food security goals.”

The panel discussion provided valuable insights from Ephraim Wachira, Mutheu Ngila of Dryland Seeds, Thomas Kariuki, Head of Seed Production at Simlaw Seed, and Mulemia Maina, Managing Director of Agri Experience. Lilian Gichuru moderated the session and guided the conversation as the panel unpacked the concept of standard seed and evaluated its impact and progress.

Panelists emphasized that the standard certified seed class relaxes certain certification requirements, such as reducing the number of field inspections, lowering isolation distances, and adjusting allowable off-types. This adjustment is made without compromising essential quality standards, including disease tolerance limits, which are largely unaffected by the standard seed class protocols. The standard seed class remains a certified seed class.

“The concept of standard seed came from the realization that many farmers rely on farm-saved seed, which is often of unknown quality,” said Wachira. “Standard seed provides an option that improves seed quality while making production and certification of these important crops more practical and affordable.”

Despite its potential, the adoption of SCS faces significant challenges. One key issue is the high cost of production. “Production costs remain high, limiting the price advantage of standard seed. Seed companies often need to operate across multiple locations to meet certification standards, which drives up costs,” explained Mutheu Ngila of Dryland Seeds.

Another issue is low farmer awareness of the availability of certified standard seed for dryland crops—this lack of awareness has slowed adoption. “Farmers need to know that standard seed is a better option than farmer-saved seed in terms of quality,” said Gichuru. Without sufficient awareness, farmers continue to rely on informal systems, which are often less reliable and can introduce disease.

Logistics are another major challenge. Wachira noted, “Many standard growers register plots of less than one acre in scattered locations, making efficient inspections difficult. The small and dispersed production areas drive up costs and complicate the inspection process.” However, this challenge creates an opportunity for private inspection services to serve these remote plots.

The limited commitment of seed companies to this class of seeds remains an obstacle. Many companies have hesitated to invest in standard certified seed production due to concerns about profitability and the need for clearer differentiation in price and quality.

The panelists outlined several solutions to overcome these challenges and identified opportunities to scale standard certified seed.

One promising strategy is community-based production and certification. Mulemia Maina of Agri Experience emphasized the importance of localizing seed production. “Localizing seed production can save farmers significant costs. Transporting seed from distant regions is expensive, but if farmers can access seed locally, it becomes much more affordable.” In addition, localizing field inspections could lower costs and increase efficiency. “KEPHIS is ready to train more private community inspectors and district inspectors to manage this category of seed,” Wachira explained. This model could enable private companies to engage more farmers and improve the efficiency of certification.

Another opportunity is the growing emphasis on climate-resilient crops. Donors and government initiatives are increasingly prioritizing crops such as sorghum, millet, and pigeon pea that thrive in dryland conditions. These efforts align with the goal of scaling up the production of standard seed.

Raising awareness among farmers about the benefits of standard seed is critical to encouraging adoption. Thomas Kariuki, Head of Seed Production at Simlaw Seed, noted that creating more capacity-building programs for farmers would help them understand their role and expectations in seed multiplication. “We also need to engage consumers to understand the quality and value of standard seed to protect market potential,” he added.

To successfully scale up standard certified seed, all stakeholdersgovernment, private sector, and donors—must work together to address challenges and leverage opportunities.

The private sector plays a critical role in driving adoption. Kariuki stressed the importance of incentivizing seed companies to engage in the production of standard seed. “Balancing affordability, accessibility, and quality is critical,” he said. “This is how we ensure farmers benefit while seed companies remain viable.”

Capacity building is essential to train seed companies, inspectors, and farmers on the production, certification, and benefits of this class of seed. In addition, regulatory adjustments should be made to facilitate the certification process. For example, the introduction of specialized inspectors for field inspections could eliminate the need for companies to use KEPHIS inspectors.

Developing markets for dryland crops is also vital to stimulate demand and encourage seed production. Finally, promoting collaboration among stakeholders will ensure the alignment of policies and resources.

Kenya is a world leader in standard seed certification, having developed robust protocols and standards that ensure quality without imposing prohibitive costs. Other countries are exploring similar models, but Kenya’s success could serve as a blueprint for others in Africa.

Lilian Gichuru, Seed Systems Specialist at CIMMYT, introducing the topic of sustainable seed delivery systems and presenting the panelists at the STAK Congress (Photo: Marion Aluoch/CIMMYT)

As Gichuru reflected, “Standard seed represents an opportunity to transform Kenya’s seed sector. But it will take collective effort, patience, and continued investment in awareness and capacity building to realize its full potential.”

Mutheu echoed this sentiment, emphasizing the importance of balancing quality, affordability, and accessibility: “Balancing affordability, accessibility, and quality is critical. This is how we ensure that farmers benefit while seed companies remain viable.”

As Wachira concluded, “Standard certified seed is about giving farmers a better option—one that is affordable, accessible, and of high quality. Let’s bring these benefits to the farmers who need them most.”

Scaling Conservation Agriculture-based Sustainable Intensification in Ethiopia (SCASI): Empowering Farmers and Engaging Development Partners

This image illustrates one of the SCASI’s practices – mulching – in the Wolaita Zone. Mulching is key to improving soil health, conserving moisture and increasing crop productivity in sustainable agriculture (Photo: CIMMYT)

Ethiopia faces increasing challenges from climate change, including erratic rainfall, soil erosion and longer dry seasons. With a rapidly growing population of more than 120 million, the country’s agricultural systems and natural resources are under considerable pressure. To address these challenges, the Scaling Conservation Agriculture-based Sustainable Intensification (SCASI) project, launched in March 2022 and implemented by CIMMYT and CFGB networks with the financial support from the Development Fund of Norway, offers a promising solution. SCASI integrates Conservation Agriculture-based Sustainable Intensification (CASI) practices to improve productivity while conserving natural resources. 

The SCASI initiative is an exemplary model of how holistic agricultural approaches can enhance crop productivity, improve soil health, and build resilience to climate change in Ethiopia. Here’s an overview of the project’s key components and impacts.  

Key components of CASI

CASI is a comprehensive production system in which conservation agriculture (minimum tillage, covering the soil surface with mulch and use of cereals and legumes in the form of intercropping or crop rotation) is combined with improved seeds, application of recommended organic and inorganic fertilizers, use of best management practices (recommended seed rate, timely weeding, proactive pest management, etc.) to increase productivity per unit area while improving the health of the production environment (soil, climate, fauna and flora and biodiversity). CASI also includes practices that help optimize the mixed crop-livestock systems by reducing the competition for crop residues through the promotion of alternative fodder crops, alley cropping, agroforestry and other locally adapted innovations. 

Implementation across Ethiopia

  • Targeted Regions: The initiative was implemented in eight districts in the Amhara, Oromia, Benishangul-Gumuz, and South Ethiopia regions, each with unique agricultural contexts.  
  • Direct Impact: Approximately 15,000 households (more than 75,000 smallholder farmers) have directly benefited, been capacitated, and gained access to sustainable practices that improved their productivity and livelihoods. 
  • Partnership: Creates a unique partnership between national institutions, international organizations, and NGOs to support and strengthen national capacity to demonstrate and scale up CASI practices. Implements a collaborative and inclusive process in which partners contribute based on their expertise, capacity, and thematic focus. 

How do we implement SCASI?

This is a well-managed plot in Baro village, Ura district, illustrates the key components of the SCASI project in Benishangul Gumuz. The effective implementation of sustainable agricultural practices is evident, reflecting the positive impact on productivity, diversification and soil health (Photo: CIMMYT)

The SCASI project uses an approach that integrates collaborative partnerships, with CIMMYT leading action research, the Ministry of Agriculture and regional offices aligning policy, and NGOs (CFGB, FHE, TDA, MSCFSO) engaging communities. It is supported by a comprehensive implementation framework that includes large-scale demonstrations to illustrate the benefits of CASI, action research to adapt practices to local needs, and capacity building to empower farmers and stakeholders for sustainable adoption and scalability. 

CIMMYT’s researchers, provide action research findings that highlight the multifaceted approach of the SCASI initiative, which focuses on context-specific solutions to improve agricultural productivity and sustainability in Ethiopia. Birhan Abdulkadir, SCASI project leader and agronomist at CIMMYT, said, “We conducted a comprehensive participatory assessment to identify the major production constraints in the 40 kebeles and developed site-specific packages from the combinations of CASI practices. These were implemented in mega demonstrations on host farmers plots with close support from CGFB networks and BoAs. We facilitated access to inputs and provided technical backstopping.”  

The project also uses farmer-centered approaches to promote the practices. Host farmers train other farmers and share knowledge and skills through farmer field schools (FFS), self-help groups (SHG), various farmer social networks and media. All these scaling efforts are coherent, inclusive and effective in different contexts and have played a crucial role in catalyzing the adoption and scaling up of CASI practices over the past nearly three years.  

The merits of SCASI 

The SCASI project has had a significant impact in Ethiopia, particularly in helping farmers improve productivity and soil health. As evidence of the project’s effectiveness in addressing the challenges farmers face, Birhan Abdulkadir noted that by adopting minimum tillage and using crop residues as mulch and compost, among other recommended practices, farmers have dramatically increased their maize yields. This approach not only improves productivity and soil health but also saves time on weeding and reduces production costs. 

In August 2024, a delegation of donor representatives and implementing partners visited the Benishangul Gumuz Region and Wolaita Zone for a joint monitoring and evaluation field visit. This visit provided valuable insights into the impact of the project in Ethiopia. Interacting with technology adopters and government partners, the team observed positive results and encouraging examples of how the project is improving agricultural practices. These interactions highlighted the benefits of the interventions, reinforcing the project’s effectiveness in improving farmers’ livelihoods and promoting sustainable practices in the region. In total, 3,700 hectares of agricultural land in the Asosa zone are now using SCASI, demonstrating the project’s widespread impact. 


Mr. Bobeker Holeta, Head of the Benishangul Regional State Bureau of Agriculture, emphasized the commitment to understanding the SCASI project over the past two years. He highlighted its effectiveness as a sustainable to improve farmers’ food security and climate resilience. As a result, the regional government has decided to expand the use of this technology to cover 50% of the region’s agricultural land. He believes this decision is an important step in supporting farmers and transforming the agricultural system, ultimately leading to a more resilient and productive agricultural landscape. 

Mr. Beshir Hitman, a host farmer from Asosa Zone in Akendo Afafri village, has experienced significant benefits from adopting SCASI technology. Starting with just 0.4 hectares two years ago, he has now expanded his operations to 2.5 hectares. Previously, farmers relied on broadcasting and multiple tillage systems, which were effective but labour intensive. Mr Hitman points out that the SCASI methods have not only improved his crop production and productivity but have also saved him time and labor by minimizing weeding.   


 

In Asosa zone, Ura District, Baro Village, farmer Rawda Mustefa stands proudly on her SCASI project plot. Her successful adoption of sustainable practices demonstrates the positive impact on her farming results (Photo: CIMMYT)

The thriving maize fields of farmer Fantan Karamala in Dunga Arumela village, Ura district, Asosa zone illustrate the effectiveness of the SCASI project. Her commitment has resulted in an impressive six quintals increase in maize yield. By incorporating mulching with crop diversification and expanding her demonstration to 2 hectares, she has successfully intercropped soybean with maize, significantly increasing her income. 

Farmers in the Wolaita zone are also inspired by the principles and benefits of SCASI technology. Many have adopted sustainable practices that enhance productivity and improve soil health. The positive impact on yields and incomes has motivated these farmers to adopt innovative approaches, fostering a community-wide commitment to resilience and food security. Their shared experiences highlight the transformative potential of technology in their farming practices.

Farmer Adanech Bebiso in the Boloso Sore district of Wolaita Zone beams with joy as she reaps multiple benefits from her small plots of land managed under the SCASI project. Her positive experience reflects the transformative impact of sustainable agricultural practices on her livelihood (Photo: CIMMYT)

Adanech Bebiso shared her experience, stating, “We began using SCASI after the training we received in 2021. Along with inputs like improved seeds, ginger, taro, sweet potatoes, and forage plants, we also received regular technical support. Previously, using conventional techniques yielded minimal results for many years. SCASI has transformed our operations, and we are reaping the benefits. I started with a 60x40m plot, and my maize harvest increased dramatically from 6 to 16 quintals. This farm has improved our lives in many ways, and we are truly benefiting from this endeavor.” 


The reduction of multiple tillage and the production of organic fertilizers, such as vermicompost, have empowered women to become more actively involved in farming. In addition, the availability of fodder has opened up new opportunities for farmers, allowing them to explore alternative businesses such as livestock fattening and dairy production. Many farmers are replacing local cows with improved varieties to enhance milk production and dairy quality. 

These changes not only improve the farmers’ livelihoods but also foster social cohesion and build economic capital within the community. For example, the establishment of Self-Help Groups (SHGs) has become a valuable platform for technology transfer, financial savings, and access to credit, further supporting their agricultural and business endeavors. 

Host farmers like Amarech Koricho play a key role in their communities by sharing their knowledge. She has trained around 50 fellow farmers in her area about SCASI practices. As a result, these farmers are thriving and actively adopting CASI practices to improve their land management and crop production. Their collective efforts are having a significant impact on sustainable agriculture in the region. 


During the joint monitoring visit facilitated by CIMMYT, Tilahun Tadesse, Program Manager of the Terepeza Development Association (TDA), emphasized the advantages of the SCASI approach. He noted that farmers were experiencing higher yields per hectare and greater resilience during droughts compared to conventional methods. He attributed the success of these trials to farmers’ commitment, progressive learning, and increased awareness. The variety of crops grown on the demonstration plots are producing impressive results, further demonstrating the effectiveness of the SCASI project. 


Lessons and future directions

Action research conducted over two years in four regions of Ethiopia highlights the potential of SCASI to drive agricultural transformation. By integrating conservation agriculture with sustainable intensification principles, it effectively addresses immediate agricultural challenges while building resilience to the impacts of climate change. This initiative goes beyond increasing agricultural productivity and improving soil health; it also promotes the expansion of social capital and strengthens system resilience. The practices have effectively reached rural communities through various channels, including radio, demonstrating that targeted, long-term promotion efforts increase the uptake of CASI. The tangible successes experienced of early adopters motivate non-adopters to join the movement. Additionally, host farmers play a crucial role in cascading knowledge and practices to their peers, further facilitating the scaling up of CASI practices. By combining sustainable farming practices with community-based solutions, SCASI empowers farmers to overcome collectively address challenges. 

Looking ahead, a sustained commitment to institutional capacity building, the integration of CASI-friendly policies into regional and national frameworks, and effective resource mobilization will be critical to sustaining the momentum of SCASI and expanding its benefits throughout Ethiopia. By expanding the initiative’s reach, CIMMYT and its partners aim to foster a more resilient, productive and sustainable agricultural future that adapts to the country’s diverse agro-ecological conditions. This collective effort will not only improve food security but also empower communities to thrive in the face of climate challenges. 

Advanced Training in Conservation Agriculture: Fostering Sustainable Agronomic Systems

Participants attended the opening ceremony at NAS Complex in New Delhi (Photo: CIMMYT)

CIMMYT, the Borlaug Institute for South Asia (BISA), and the Indian Council of Agricultural Research (ICAR) jointly organized a three-week training course on conservation agriculture (CA) and regenerative agriculture (RA). The program focused on the potential of sustainable farming methods as vital tools for managing risks in agrifood systems in both irrigated and rainfed areas.

Held from December 3–23, 2024, the training brought together farmers, scientists, and stakeholders to explore innovative solutions to agrifood challenges. Sessions were held at the ICAR Indian Institute of Maize Research and BISA in Ludhiana, Punjab; the ICAR-Central Soil Salinity Research Institute in Karnal, Haryana; and the ICAR-Indian Institute of Farming Systems Research in Meerut, Uttar Pradesh, India.

Building Resilient Agrifood Systems

Conservation agriculture (CA) and regenerative agriculture (RA) are approaches to land management that prioritize ecosystem health. These practices are based on three core principles: minimal soil disturbance, continuous soil cover, and crop diversification. Together, they improve yields, restore natural resources, reduce farming costs, and develop resilient agricultural systems that protect the environment, enhance climate resilience, and improve rural livelihoods, particularly in the Global South.

In South Asia, where rural communities rely heavily on natural resources, farmers face significant challenges, including loss of soil fertility, water scarcity, pollution, and the effects of climate change. These pressures are straining agricultural systems, particularly in irrigated and dryland farming areas.

Despite the clear benefits of CA, adoption remains limited due to barriers such as lack of knowledge on how to implement CA in different agro-ecologies, limited access to appropriate tools, insufficient policy support, and low awareness of the long-term benefits of CA. To address these challenges, training and capacity development are essential for scaling up CA technologies among smallholder farmers and ensuring their long-term impact.

The Advanced Course on CA/RA in Asia was launched in 2010 by CIMMYT in partnership with the Indian Council of Agricultural Research (ICAR) to address the challenges of sustainable agriculture. Since its inception, advanced training workshops have been held annually, and this is the 13th edition.

The training bridges cutting-edge scientific research and multidisciplinary strategies, equipping participants with skills in sustainable intensification, diversification of production systems, resilience-building, and natural resource conservation. To date, CA training has benefited more than 220 researchers, policymakers, and development practitioners from 20 countries.

The 13th edition, held in India, welcomed mid-career researchers from Uzbekistan, Morocco, and India. The course was coordinated by Mahesh Gathala, Cropping Systems Agronomist, and Alison Laing, Agroecology Specialist, both from CIMMYT; Madhu Choudhary, Senior Scientist at ICAR-CSSRI; and Raj Kumar Jat, Senior Scientist at BISA.

Key Highlights of the Advanced Conservation Agriculture Training Course

The Advanced Conservation Agriculture (CA) course was inaugurated on December 4, 2024, at the NASC Complex in New Delhi. The inaugural address was delivered by S.K. Chaudhari, Deputy Director General for Natural Resource Management at ICAR, who highlighted the importance of CA in addressing climate challenges and managing agronomic risks. Chaudhari emphasized CIMMYT’s leadership in promoting CA in India and reflected on the impact of the program, saying, “I have been watching this course for many years. Many young scientists have benefited from this course.” He also fondly recalled the inaugural training session held 13 years ago and extended his best wishes to all the participants. Watch his complete statement here.

Participants experiencing hands-on training at the BISA farm in Ludhiana.

During the course, participants explored a wide range of topics related to conservation agriculture (CA) and regenerative agriculture (RA) in different agro-ecologies. Key areas of focus included the role of emerging technologies such as drones, carbon credits, soil fertility, nutrient management, crop modeling, and soil testing in informing policy. Experts from various scientific disciplines provided valuable insights into cutting-edge research for both irrigated and dryland systems.

At BISA’s research station in Ludhiana, participants gained practical experience through hands-on training sessions conducted under the expert guidance of H.S. Sidhu and Manpreet Singh (both from Punjab Agricultural University), with the support of Pardeep Sangwal (BISA).

Participants learning new techniques at CSSRI, Karnal (Photo: CIMMYT)

The training included field visits to ICAR-CSSRI in Karnal, where Director R.K. Yadav, Madhu Choudhary, and Kailash Prajapat presented the Institute’s long-term conservation agriculture (CA) experiments. They also conducted hands-on demonstrations on soil biology and its role in generating evidence for policy decisions.

In addition, Mahesh Gathala conducted hands-on training in basic soil physical and chemical analysis techniques at joint ICAR-CIMMYT field plots in Karnal.

Special visits were organized to innovative agricultural machinery manufacturers, including Landforce and National Agroindustry, where participants observed advanced manufacturing techniques and explored the latest agricultural equipment.

Participants also interacted with the manufacturers’ association at the 5th India International Agri Expo in Ludhiana, gaining insights into emerging trends in agricultural machinery.

Participants visited the National Agro manufacturing unit in Ludhiana, Punjab (Photo: CIMMYT)

In addition, a village visit outside Karnal gave participants the opportunity to interact with farmers practicing conservation agriculture (CA). Farmers shared their experiences, giving participants a first-hand look at the practical benefits and real-world impact of CA on farming communities.

A visit to Golden Temple in Amritsar, Punjab (Photo: CIMMYT)

The success of the program underscores the importance of continued collaboration and training in advancing sustainable agricultural practices. By equipping participants with practical skills, cutting-edge knowledge, and opportunities to connect with peers across regions, the training was instrumental in advancing conservation agriculture (CA) and regenerative agriculture (RA).

Participants left the program with enhanced technical expertise, greater confidence in applying CA practices, and valuable insights into emerging areas such as carbon credit schemes and innovative agricultural technologies. These results underscore the critical role of capacity development in strengthening food security, building climate resilience, and promoting sustainable development in the Global South.

Why early-stage on-farm sparse testing could be a game changer for crop breeding in Africa

(Photo: CIMMYT)

Over 80% of the world’s 570 million farms are smallholder farms under 2 hectares, supporting rural livelihoods in impoverished regions. Smallholder farmers, who form a significant portion of the 690 million people experiencing hunger, need improved crop varieties to thrive under challenging conditions like low inputs, climate change stresses, and pests. 

Challenges of breeding for smallholder farmers 

Particularly at early stages, breeding programs face difficulties replicating the diverse and resource-constrained environments of smallholder farms, referred to as the Target Population of Environments (TPE). The TPE encompasses all locations where new crop varieties will be grown, characterized by varied biophysical conditions, environmental stresses, and farming practices. 

Conventional research stations, where new selection candidates are tested, don’t fully replicate smallholder conditions. Practices like manual labor for weed management or intercropping are common among smallholders but rarely modeled on research stations. This mismatch can lead to inaccurate predictions of crop performance on farms and discarding potentially successful candidate varieties. 

Early-Stage On-Farm Sparse Testing (OFST)

Early-stage OFST shifts testing to hundreds of smallholder farms at early stages, addressing two major issues. First, it evaluates crops under real-world, farmer-managed conditions. Second, it captures the diversity within the TPE by conducting trials on numerous farms. 

Using farm-as-incomplete-block (FAIB) designs, small farms test 3–5 candidate varieties, aligning with their plot size and resource constraints. A genomic relationship matrix connects trials across farms, ensuring comparability between farms and enhancing selection accuracy through the sharing of information. This approach reduce replication and enable testing more candidates, thereby improving breeding efficiency and providing a basis for accelerated parent recycling. Smallholder farmers are highly diverse, and careful sampling ensures a wide range of farmers can participate. The small land requirements of this approach allow small, poor and/or women farmers to equally participate. 

(Photo: CIMMYT)
On-Farm Testing and on-station testing: complementary yet demanding approaches

Early-stage on-farm testing complements, rather than replaces, on-station trials. Controlled assessments for traits like disease resistance and managed abiotic stresses remain essential at research stations. Conversely, insights from early-stage OFST can help refine on-station testing to better represent farming realities.

Scaling early-stage OFST demands strong partnerships between CGIAR, NARES, and farmers for decentralized trial management. Farmers must consent to participate and be compensated for risks. Additionally, significant resources and coordination are required to ensure trials are representative and reliable. 

Despite these challenges, early-stage OFST holds transformative potential. By aligning breeding programs with smallholder realities, it can deliver improved crop varieties faster and more effectively, enhancing food security for those who need it most. 

For more information, see the article: Accelerating Genetic Gain through Early-Stage On-Farm Sparse Testing by Werner et al., Trends in Plant Science. 

Accelerating genetic gain through early-stage on-farm sparse testing.  

Accelerating genetic gain through early-stage on-farm sparse testing 

Werner, Christian R. et al. 

Trends in Plant Science, Volume 0, Issue 0 

The 29th Conference of the Parties (COP29): Navigating Food Systems and Climate Challenges

From 11 -22 November 2024, global leaders convened in Baku, Azerbaijan for COP29. Dubbed the finance COP, critical intersections of climate change, food systems, and sustainable development took center stage. This year’s conference reflected both the progress and the persistent challenges in addressing the climate crisis, marking a critical moment in the climate negotiations. 

Food Systems at the Forefront 

COP29 highlighted the undeniable importance of transforming global food systems as a cornerstone of effective climate action. Initiatives like the Harmoniya platform and the Declaration on Methane from Organic Waste shows the global community’s recognition of agriculture as both a contributor to and a solution for greenhouse gas emissions. However, the broader discussions were a reminder of the gap between ambition and implementation, with financial commitments and concrete action plans often falling short. 

While food systems gained visibility, the debates often revealed tensions, particularly on issues like global stocktake outcomes, financing, and the integration of mitigation and adaptation strategies. Despite these challenges, the coordination and cohesion within the food systems community were commendable, reflecting a collective resolve to carry the momentum forward. 

COP 29 – Baku, Azerbaijan

Key Outcomes and Agreements 

  1. Climate Finance and the NCQG

A central focus of COP29 was the New Collective Quantified Goal on climate finance (NCQG). While the actual need for climate finance is estimated at $1.3 trillion annually, the outcomes of COP29 fell short, with only $300 billion explicitly committed to developing countries. The inclusion of voluntary contributions from non-traditional donors like China and the UAE added nuance but failed to resolve the broader financial gaps. 

  1. Mitigation Work Programme

Discussions on the Mitigation Work Programme highlighted fundamental disagreements over whether the program should prioritize specific actions linked to the global stocktake. While some nations sought prescriptive approaches, others emphasized the voluntary nature of nationally determined contributions (NDCs). These debates highlight the complexities of aligning global and national climate priorities. 

  1. Adaptation and Resilience

The global goal on adaptation progressed with the launch of the Baku Adaptation Roadmap, though challenges remain in refining and agreeing upon adaptation-related indicators. Meanwhile, the Sharm El Sheikh Joint Work on Agriculture and Food Security moved forward with plans for an online portal to share best practices and tools for climate action. 

  1. Collaborative Frameworks

The conference saw advancements in collaborative mechanisms such as the Paris Agreement Crediting Mechanism under Article 6, which aims to enhance transparency and accountability in carbon markets. Platforms like Harmoniya and the Global Nitrous Oxide Hub were also launched to streamline efforts in addressing specific climate challenges. 

CIMMYT at COP29

Amid these broader discussions, CIMMYT came out to strongly champion for the alignment of scientific innovation with the practical challenges of transforming food systems. Sieglinde Snapp and Tek Sapkota represented CIMMYT at high-level side events, highlighting the critical need to leverage research to tackle climate challenges. Their contributions focused on developing actionable pathways to bridge the persistent gap between ambitious goals and effective implementation. 

Participation in high-level panel discussions

Date: November 12, 2024 
Event: High-Level Panel on Sustainable Agriculture 

Tek Sapkota shared CIMMYT’s efforts in advancing food systems, climate resilience, and environmental sustainability, aligning with the UAE COP28 Declaration on sustainable agriculture. The event featured remarks from distinguished leaders, including H.E. President Taye Atske Selassie of Ethiopia, H.E. Prime Minister Mette Frederiksen of Denmark, and H.E. Amna Al Dahak of the United Arab Emirates among other world leaders.  

Date: November 18, 2024 

Event: Making Agriculture Smart by Going Wild

Sieglinde Snapp was part of panel discussions chaired by the United Kingdom Nature minister to discuss leveraging wild crop relatives and underutilized species to enhance agricultural resilience against climate risks. She highlighted CIMMYT’s efforts towards biodiversity in achieving food security. 

(Photo: Maria Monayo/CIMMYT)
(Photo: Maria Monayo/CIMMYT)
(Photo: Maria Monayo/CIMMYT)
(Photo: Maria Monayo/CIMMYT)

Other events include: 

  • Scaling Innovations for Greenhouse Gas Mitigation
    Date: November 12, 2024
    Presented CIMMYT’s research on precision agriculture, showcasing strategies for leveraging site-specific nutrient management to reduce greenhouse gas emissions while increasing food production and supporting food security. (Link recording) 
  • Pre-COP30 Discussions on Fertilizer Innovations
    Date: November 14, 2024
    Highlighted innovative technologies in fertilizer production and management as part of technological breakthrough to reduce GHG emissions from agricultural sectors.  (Link recording) 
  • Partnerships for Soil Health and Agricultural Resilience
    Date: November 15, 2024
    Explored the role of public-private partnerships in advancing soil health and resilience. The discussion highlighted innovative soil management technologies that conserve nitrogen, preserve soil organic carbon, and promote climate-smart agriculture.  
  • Enhancing Soil Health for Climate Action
    Date: November 16, 2024
    Addressed practical strategies for improving soil health to mitigate climate change and enhance agricultural sustainability. (Link recording) 
  • CGIAR Panel Discussion on Innovation in Soil Fertility Management
    Date: November 18, 2024
    Shared insights on advancing soil fertility management through cutting-edge innovations that balance productivity and sustainability. (Link recording) 
  • Global Nitrous Oxide Hub Launch
    Date: November 19, 2024
    Discussed the importance of reducing nitrous oxide emissions in agriculture, aligning with global efforts to mitigate climate change.  
  • VACS Networking Events
    Date: November 19, 2024
    Discussions highlighting public-private-civil society partnerships for sustaining agricultural resilience and advancing the VACS agenda.  
  • Launch of the 2024 Breakthrough Agenda Report
    Date: November 20, 2024
    (Link recording) 

 

Non-Negotiated Outcomes

Beyond formal agreements, COP29 featured significant declarations and initiatives that highlight emerging priorities: 

The Road Ahead: From Baku to Belém

As the world prepares for COP30 in Belém, Brazil, the outcomes of COP29 provide both lessons and opportunities. CIMMYT, aligned with the CGIAR 2030 Research and Innovation Strategy, is uniquely positioned to drive transformative action in food systems. 

Key priorities for COP 30 include: 

  • Strengthening Finance Mechanisms: Addressing the financial gaps in adaptation and mitigation efforts, particularly for low-income nations. 
  • Scaling Collaborative Initiatives: Building on platforms like Harmoniya to foster cross-sectoral and international collaboration. 
  • Embedding Food Systems in Climate Policy: Ensuring that agriculture and food systems are integral to NDCs and national adaptation plans. 
  • Advancing Science for Action: Driving actionable research to close gaps in implementation, particularly in nutrient management and biodiversity conservation. 

CIMMYT-ICAR Workshop on Long-Term Agricultural Experiments

CIMMYT-ICAR Workshop on Long-Term Agricultural Experiments (Photo: CIMMYT)

CIMMYT and the Indian Council of Agricultural Research (ICAR), New Delhi, co-hosted a one-day workshop on Long-Term Experiments (LTEs) in agriculture, focusing on Conservation Agriculture (CA) and Regenerative Agriculture (RA) practices. The workshop aimed to explore strategies for researchers from the national systems to come together with CIMMYT colleagues and identify ways to increase productivity, improve food security, strengthen climate resilience of agricultural systems, and enable Indian farmers and researchers to take advantage of innovations and new research in LTEs. 

The event brought together leaders from ICAR’s research divisions and institutes – including Natural Resource Management (NRM), Indian Agriculture Research Institute (IARI), Central Soil Salinity Research Institute (CSSRI) and the Research Complex for the Eastern Region (RCER) – with partner CGIAR centres CIMMYT, ICRISAT and IRRI, and others from donor agencies, private agricultural research organizations and the Borlaug Institute for South Asia (BISA). 

The event was chaired by Dr Suresh Kumar Chaudhari, Deputy Director General for Natural Resource Management at ICAR. In his remarks, Dr Chaudhari highlighted the critical role of LTEs in understanding evolving agri-food systems. He emphasized the value of revisiting past research with fresh perspectives, taking into account new knowledge, and taking a long-term, strategic view of our agricultural research portfolios.   

Dr. Prasanna Boddupalli, Regional Director for South Asia – CIMMYT, highlighted the importance of LTEs in generating knowledge for sustainable practices. He expressed hope that the workshop would inspire innovative ideas, such as the use of climate-resilient crop varieties like drought- and heat-tolerant maize, and the use of predictive analytics and machine learning to identify emerging trends  

Dr Alison Laing chaired the workshop. She outlined the objectives of the workshop and emphasize the importance of collaborative discussions in formulating guidelines and recommendations for ongoing and future experiments on CA and RA. She also highlighted the need for resource mobilization and contributions from the participating institutions.  

The opening session featured presentations by senior scientists, including Dr M.L. Jat (ICRISAT), Dr Rajbir Singh (ICAR-NRM ADG), Dr Rakesh Kumar (ICAR-RCER), Dr Madhu Choudhary (ICAR-CSSRI), Dr H.S. Jat (ICAR-IIMR) and Dr C.M. Parihar (ICAR-IARI). They provided insights into ongoing LTEs on CA and RA at their research institutions, including key research foci, discussed challenges and opportunities, and stressed the importance of ensuring the continuity of LTEs in the face of shifting priorities and donor fatigue. 

All participants then engaged in group discussions to address emerging priorities, funding challenges and barriers to implementation, and to identify ways in which LTEs can generate data to demonstrate the long-term impacts of agricultural practices and the performance of different cropping systems. These breakout sessions culminated in a plenary session where participants consolidated key issues and reached consensus on actionable recommendations. 

Dr Laing concluded the workshop by announcing that the recommendations would be compiled into a joint document to be submitted to ICAR-NRM, providing a roadmap for strengthening LTEs in India. 

In his vote of thanks, Dr Mahesh Gathala (CIMMYT) commended the participants for their valuable contributions to the objectives of the workshop’s. He expressed confidence in the collective commitment of scientists and institutions – public and private – to the advancement of LTEs and their critical role in strengthening agricultural and food system science and research. 

Strengthening the roots of an agri-carbon market

CIMMYT’s economists Adeeth Cariappa and Vijesh Krishna examine the potential of agricultural carbon markets to boost sustainable farming in India while addressing climate change. Their study, published in Climate Policy, reviewed seven carbon farming projects in Haryana and Madhya Pradesh, finding limited participation from smallholders and marginalized communities, with women making up just 4% of participants.

Although new sustainable practices such as zero tillage and intercropping were adopted, key challenges remain, including poor communication, insufficient training, and delayed payments—resulting in nearly 28% of farmers abandoning these practices. To improve outcomes, the authors recommend offering better financial incentives, ensuring timely payments, and improving project implementation through partnerships with research institutions. Digital technologies like remote sensing and satellite imagery are expected to play a critical role in improving carbon credit monitoring and farmer participation going forward.

Read the full story.

In Zimbabwe, Women Are Leading the Battle Against Climate Change

CIMMYT, through the CGIAR-supported Ukama Ustawi initiative, is supporting women farmers in Zimbabwe to lead the fight against climate change. By adopting climate-smart practices like zero tillage and growing drought-resistant crops such as orange maize, cowpeas, and lab-lab, farmers like Susan Chinyengetere are ensuring food security, generating income, and inspiring others. These techniques not only strengthen resilience against erratic weather but also enable women to balance traditional roles while driving sustainable agriculture. With access to affordable seeds, mechanization, and strong farmer networks, CIMMYT is fostering lasting solutions to climate adaptation across Zimbabwe and beyond.

Read the full story.

Climate Change and Child Malnutrition in Zimbabwe: Evidence to Action

Climate Change and Child Malnutrition in Zimbabwe: Evidence to Action will generate evidence to understand the effects of climate change on child malnutrition in rural Zimbabwe. The overarching hypothesis is that climate change and related weather events indirectly increase child malnutrition by increasing food insecurity and decreasing dietary diversity.

This project will use a multisectoral approach to evidence generation and co-creation of community and policy action that incorporates village, district, provincial and national participation. The project aims to generate evidence linking climate change to malnutrition and co-develop mitigation strategies with communities that directly address the link between climate change and malnutrition.

The project has four activities:

  1. Examine the relationship between climate change in rural Zimbabwe and patterns of malnutrition utilizing environmental data (rainfall, temperature) and national Zimbabwe survey data (livelihoods, climate change mitigation strategies, dietary diversity and child malnutrition).
  2. Explore community understanding of the relationships between climate change and malnutrition with a mixed methods approach in two districts (survey and community-led workshops).
  3. Co-develop and refine climate-smart strategies that address the effects of climate change on malnutrition with agricultural and health cadres.
  4. Develop a communication plan with policymakers to disseminate findings about the relationship between climate change to child malnutrition.

Objectives:

  1. Use environmental data and national-level survey data on climate change and shocks related to climate change and examine associations with nutritional outcomes including food security, dietary diversity and child malnutrition.
  2. Conduct household surveys to understand how agricultural and child feeding practices change under climate variability.
  3. Conduct community workshops using community walks and River of Life Methodology to understand community perspectives on the relationship between climate change and child malnutrition.
  4. Co-develop and refine climate-smart strategies that communities can implement to directly address the relationship between climate change and malnutrition.
  5. Pilot implementation of strategies in two sites utilizing community health and agricultural extension workers.
  6. Share results with policy makers to contextualize malnutrition in the context of climate change policy.

Conservation Agriculture Transforming Farming in Southern Africa

CIMMYT has been at the forefront of promoting conservation agriculture (CA) in Southern Africa, leveraging over 20 years of research to enhance food security and resilience to climate change. By introducing innovative mechanized tools like basin diggers, CIMMYT has significantly reduced labor demands, making CA more accessible for smallholder farmers. The organization collaborates with partners, including FAO, to integrate CA into national policies, such as Zambia’s mechanization strategy, while also providing education and technical support to farmers. CIMMYT’s efforts empower farmers to increase yields, improve soil health, and generate additional income, exemplifying its commitment to sustainable agriculture in the region.

Read the full story.

Strengthen the soil, strengthen the future of agri-food systems: The Economics of Healthy Soils for Sustainable Food Systems

Soil health is not just a medium for healthy crop production; it’s also a vital pillar to support sustainable food production and ultimately a nation’s economy. In India, where over 45% of the population works in agriculture, soil health underpins household and national food security, rural incomes and the economy at large. Despite this dependence, the ratio of agricultural production to the national income, i.e. GDP has fallen from 35% in 1990 to 15% in 2023, a decline driven by low productivity, shrinking farm incomes, and environmental degradation (Government of India, 2023).

A tractor operates in an agricultural field in India (Photo: CIMMYT).

India faces an annual economic loss of  ₹2.54 trillion annually—about 2% of its GDP—due to land degradation and unsustainable land-use practices (TERI, 2018). For smallholder farmers, soil degradation is a silent economic burden that reduces yields and increases input costs. In Bihar, studies by the Cereal Systems Initiative for South Asia (CSISA) show that droughts have a lasting impact on soil quality and agricultural productivity, with increasing frequency and severity exacerbating vulnerabilities in states like of Bihar and its neighboring states (Nageswararao et al., 2016; Singh et al., 2022).

The frequency of these drought conditions pushes farmers into a vicious cycle of low productivity, high costs for irrigation, and a growing dependence on non-farm income sources exacerbating the state’s vulnerability to drought (Kishore et al., 2014).

“CIMMYT India scientists greatly value the opportunity to collaborate with colleagues from ICAR and other NARES partners in supporting farmers to enhance soil health and achieve sustainable productivity”, said Alison Laing, CSISA project lead in India. “We are proud of the contribution we make alongside the Indian national systems to improving farmers’ livelihoods”, she added

Investing in solutions for soil resilience

Addressing soil degradation and climate challenges requires investment in climate-resilient agricultural technologies, and robust agronomic research. Evidence-based policies are critical to sustain agriculture, improve farmer well-being and ensure food and economic security.

A promising innovation is the Soil Intelligence System (SIS), launched in 2019 under CSISA. Initially operational in Andhra Pradesh, Bihar, and Odisha, SIS generates high-quality soil data and digital maps to provide farmers with precise agronomic recommendations. These recommendations help reduce fertilizer and water overuse, improving efficiency and reducing greenhouse gas emissions. By empowering smallholder farmers with data-driven decision-making, SIS exemplifies how technology can enhance productivity and sustainability.

SIS’s success extends beyond the farm. Data-driven insights have influenced policies like the Andhra Pradesh State Fertilizer and Micronutrient Policy, demonstrating the potential of soil health management to drive systemic agricultural reforms.

Working in Andhra Pradesh, Bihar and Odisha, SIS uses soil spectroscopy and digital mapping to improve sustainable soil management, reduce costs and increase productivity for smallholder farmers. (Photo: CIMMYT)

The 3M Framework: measure, monitor and manage

This year’s World Soil Day theme, “Caring for Soils: Measure, Monitor, Manage,” highlights the importance of data driven soil management. By measuring key indicators like organic carbon levels and erosion rates, and monitoring changes overtime, policymakers can develop sustainable strategies for soil restoration.

Scaling initiatives like SIS is crucial. Robust soil monitoring programs can inform better alignment between subsidies and sustainable practices. Together with state and central governments, NGOs, and other research organizations, CIMMYT is actively collaborating with farmers to measure, monitor and manage soil health for long-term sustainability and resilience.

 

References:

  1. Government of India (2023). Contribution of agriculture in GDP. Department of Agriculture & Farmers Welfare. Accessed online.
  2. TERI (2018). Economics of Desertification, Land Degradation and Drought in India, Vol I. The Energy and Resources Institute. Accessed online.
  3. Nageswararao, M.M., Dhekale, B.S., & Mohanty, U.C. (2016). Impact of climate variability on various Rabi crops over Northwest India. Theoretical and Applied Climatology, 131(503–521). https://doi.org/10.1007/s00704-016-1991-7.
  4. Singh, A. & Akhtar, Md. P. (2022). Drought-like situation in Bihar: Study and thought of sustainable strategy. IWRA (India) Journal, 11(1). Accessed online.
  5. Kishore, A., Joshi, P.K., & Pandey, D. (2014). Droughts, Distress, and Policies for Drought Proofing Agriculture in Bihar, India. IFPRI Discussion Paper 01398. https://ssrn.com/abstract=2545463.

Climate Change Threatens Agriculture In Khyber Pakhtunkhwa: Farmers Struggle To Cope

CIMMYT is at the forefront of addressing climate change challenges in Khyber Pakhtunkhwa (KP) by introducing drought-tolerant wheat varieties and hybrid seeds for vegetables, tailored to withstand water scarcity, heat stress, and erratic rainfall. Through collaborations with local research institutions, CIMMYT equips farmers with innovative solutions to sustain crop productivity in the face of extreme weather. These efforts directly support smallholder farmers in building resilience and securing their livelihoods amidst the growing threats posed by climate change.

Read the full story.

Sustainable Agri-Food Colombia: a boost for resilient agriculture

Biofortified corn crop in Colombia (Photo: CIMMYT)

CIMMYT, in collaboration with the Bioversity-CIAT Alliance and the Ministry of Agriculture and Rural Development of Colombia, is contributing to the Sustainable Agri-Food Colombia project. This transformative initiative aims to reshape Colombia’s agricultural sector by fostering sustainable and resilient agri-food systems. Several research institutions are also part of this mission as strategic implementing partners.

The goal of Sustainable Agri-Food Colombia is to address the environmental and production challenges facing Colombian agriculture, while ensuring food security and sustainability. Through the implementation of innovative technologies, better agricultural practices and adaptation to climate change, it aims to improve the competitiveness of Colombian producers and reduce pressure on natural resources. In this sense, the project contributes to the achievement of the United Nations Sustainable Development Goals (SDGs), especially those related to climate action, life on earth and reducing inequalities. 

CIMMYT is collaborating in this project to join efforts to strengthen farmers’ capacities, as Sustainable Agri-Food Colombia focuses not only on agricultural production, but on the entire agri-food system, seeking to build more inclusive and efficient value chains, from production to the consumer, emphasizing community participation and knowledge transfer in an inclusive manner, involving women, youth and marginalized rural communities in decision-making processes and technology adoption. 

The collaboration between international CGIAR research centers, such as the Bioversity-CIAT Alliance and CIMMYT, together with key stakeholders in Colombia, demonstrates that the future of agriculture depends on an integrated vision that combines science, innovation and collaboration. This lays the foundation for transforming agriculture and food in Colombia for the benefit of people and the planet. 

‘I have bigger plans ahead’ – The journey of Tichaona from odd-job man to agricultural entrepreneur

Tichaona transporting hay bales using his acquired two-wheel tractor (Photo: Dorcas Matangi, CIMMYT)

In the heart of Mbire’s Ward 2 in Zimbabwe, Tichaona Makuwerere has earned the trust of his community, not just as a farmer but also as a resourceful problem-solver. His journey began with “piece jobs” — manual labor that barely made ends meet. From providing firewood and bricks to renting an ox-drawn cart, Tichaona’s days were filled with tough and gritty work. Occasionally, he crossed into Zambia to collect baobab fruit for sale, returning with livestock pesticides, which he traded locally.

However, stability remained elusive. Jobs were scarce, and community hiring often favored personal connections. Undeterred, Tichaona turned to self-employment in 2007, offering ox-drawn ripping services to farmers. His commitment didn’t go unnoticed. When the CGIAR Agroecology Initiative (AEI) came to Mbire, the community recognized Tichaona’s entrepreneurial spirit and nominated him as a service provider.

Catalyst for change: CGIAR Agroecology Initiative 

The CGIAR-funded Transformational Agroecology across Food, Land, and Water Systems (AE-I) aims to empower farmers like Tichaona to lead their communities toward sustainable agricultural practices.

AE-I brings together farmers and stakeholders to address local challenges and develop practical solutions in Mbire and Murewa. Through Agroecological Living Landscapes (ALLs)—collaborative spaces for innovation—various stakeholders work to identify, co-design, test, and adopt agroecological practices. One challenge identified was that agroecology can be labor-intensive, highlighting the need to reduce labor demands by integrating mechanization for manual activities such as crop planting, manure transportation, and threshing. Partnering with private sector organizations like Kurima Machinery, AE-I provides farmers in Mbire and Murewa with the tools and training necessary to make mechanized services more accessible.

Equipped for success through training and support 

Tichaona’s journey with AE-I began with intensive training at Gwebi College of Agriculture in Zimbabwe, where he learned the intricacies of machine operation, repair, and business management. The hands-on experience gave him the confidence he needed. “It was a turning point,” said Tichaona. “The training gave me skills that are hard to come by here. I learned how to run and sustain an agricultural service business.”

In addition, Kurima Machinery provided practical guidance and support when delivering his new equipment kit, which included a two-wheel tractor, trailer, grass cutter, chopper grinder, ripper, thresher, and basin digger. Although Tichaona had no prior experience with engines, his determination, along with Kurima’s ongoing virtual support, helped him develop the skills needed to operate and maintain the equipment.

Scaling up from oxen to efficient mechanization

The kit has dramatically transformed Tichaona’s way of working. Where he once struggled with oxen, the two-wheel tractor can now complete a three-hour task in just 30 minutes. This leap in efficiency has enabled him to expand his services beyond ripping and transportation. Tichaona now offers grass cutting, baling, grinding, threshing, and basin digging services.

Mechanization has not only streamlined his business but also significantly increased his clientele. Previously, he served around 50 clients per year; now, with the tractor, he supports over 200 annual clients, many of whom are repeat customers. In a region where animal feed is scarce during the dry season, Tichaona’s baling services have become especially valuable. Over the past year, he has produced more than 3,000 bales, even attracting safari operators who use the bales as bait for animals.

“Hatisi kumira kutsvaga mabasa” (We keep going forward and look for new jobs), Tichaona reflected with pride. In his drive to grow, he has further diversified his services to include grinding forest products such as Faidherbia albida, acacia, and Piliostigma thonningii pods, producing affordable livestock feed for farmers. He acquired these skills during livestock feed production training at the ALLs.

Mechanization has not only improved productivity but also mitigated environmental risks. Grass cutting and baling have curbed the practice of uncontrolled burning, which previously caused frequent veld fires in Mbire and Murehwa. In recognition of the project’s success in promoting sustainable land use, the Environmental Management Authority (EMA) has invested in additional service kits for other wards.

Transporting grass bales in Mbire for local farmers (Photo: Dorcas Matangi, CIMMYT)
Strengthening Resilience Amid Climate Uncertainty

Tichaona’s services have become indispensable in a community grappling with erratic weather patterns and prolonged droughts. By baling grass, sorghum stalks, and crop residues, he enables farmers to store feed for their livestock, mitigating risks during drought seasons. The benefits extend beyond livestock care—his machinery has helped farmers expand cultivable areas despite a shrinking planting season.

Moreover, Tichaona has stepped up as a water carrier during the dry months. With wells drying up, villagers often dig makeshift wells in distant riverbeds. Using his tractor, Tichaona fetches water from the borehole for the community. His efforts free up time for farmers to focus on land preparation and other critical tasks, boosting their productivity.

Building a Lasting Legacy at the Community Level

Tichaona’s success has translated into significant improvements for his family. His increased income has allowed him to build a new home and purchase land in Guruve town. He has also invested in goats for his children as a form of social security. “Kudya kaviri kwaitonetsa, ikozvino takutodya uye atichatenderi kuti muenzi asvika abve pamba asina kudya (We could barely afford two meals a day, but now we eat more than four meals. We ensure that no visitor leaves without eating),” he shared.

His generosity extends beyond his family. Tichaona provides free transportation for vulnerable residents, including the elderly, and offers free grinding services to low-income families. These acts of kindness have solidified his reputation as a respected and valued member of the community.

A Model of Adaptability and Determination

Tichaona’s journey has not been without challenges. Mechanical issues, such as trailer body wear, brake replacements, and two-wheel tractor bearing failures, have tested his resourcefulness. He stocks essential spare parts, conducts regular maintenance, and leverages Kurima Machinery’s support network for troubleshooting and repairs. Collaborating with other AE-I operators, he shares tips and techniques for maintaining machinery, ensuring consistent and reliable services.

As his confidence and skills grow, Tichaona is planning to expand his offerings. He envisions adding oil pressing for sunflower and groundnut as well as peanut butter production. Already, he has invested in a grinding mill operated by his wife, allowing him to focus on field services. His ambitions extend to poultry farming, where he plans to use his chopper grinder to produce feed, incorporating local products into his supply chain.

“Ndine hurongwa hukuru” (I have bigger plans ahead), Tichaona said. He dreams of drilling a borehole to support horticulture production, a venture that would benefit not only his family but also nearby farmers by providing easier access to water. His ultimate goal is to establish a comprehensive agricultural service hub, offering everything from land preparation to livestock feed production, to strengthen the community’s resilience.

A Model for Agroecological Transformation

Tichaona’s story exemplifies the far-reaching impact of empowering local service providers in rural agriculture. Through the CGIAR Agroecology Initiative, he transformed from being a community handyman to a pioneering agricultural entrepreneur in Mbire. His contributions not only enhanced agricultural efficiency and overall life for himself and his community, but also offered a blueprint for sustainable development in agriculture. His story reminds us that when local expertise is supported and equipped, it can transform communities into models of resilience and sustainable growth.