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Author: Julian Bañuelos-Uribe

A sustainable agrifood systems approach in conflict-ridden Sudan

Written by Julian Bañuelos-Uribe on . Posted in Blogs, Multimedia, Videos.

Sudan, the third largest country in Africa, has long been an epicenter of food production, due to its fertile lands and rich history of agricultural cultivation. But modern Sudan faces chronic food insecurity rooted in social and geopolitical challenges. A situation that has been exacerbated by the outbreak of war on April 15, 2023. The armed conflict has caused a sudden, further decline in agricultural productivity, displacing large populations and pushing millions of Sudanese into high levels of malnutrition and food insecurity.

In response to this crisis, CIMMYT, through the USAID-funded Sustainable Agrifood Systems Approach for Sudan (SASAS), is supporting agricultural development by creating robust and sustainable food production systems. SASAS adapts a modular and multi-crop approach to implement an integrated agrifood system that underpins food security, employment, and equity.

As the planting season of 2024 approaches, the project strives to strengthen food production to support the people of Sudan during these challenging times.

Experts speak: SASAS focuses on five key areas

Abdelrahman Kheir, SASAS chief of party, highlights how the agricultural innovations of the project are impacting multiple regions in Sudan. The focus of the project is on five broad intervention areas: promoting agricultural production for smallholder farmers, improving value chains and business development, supporting community management of natural resources, and providing horticultural and livestock services such as vaccination campaigns.

Further in the video, Murtada Khalid, country coordinator for Sudan, explains how the SASAS Food Security Initiative (SFSI) will provide 30,000+ farmers with a diversified package of four inputs: fertilizer, seeds, land preparation, and agricultural advisory services, to prepare for the upcoming 2024 sorghum and groundnut planting season. SFSI is a critical element of SASAS that uniquely provides agricultural development aid during a time of conflict to directly improve the food security situation in Sudan.

How women farmers benefit from SASAS

SASAS works directly with women farmers and pastoralists to ensure an equitable approach to food security in the country. Hear farmers from the women-led El-Harram Agricultural Cooperative in Kassala, Sudan, explain how SASAS has positively impacted their lives and families.

Ali Atta Allah, a farmer in Kassala expresses her gratitude for SASAS support. “They provided us with seeds including jute, mallow, okra, and sweet pepper. We planted them, and they thrived.” Ali highlighted the financial gains—a bundle of jute mallow sells for 500 Sudanese Pound (SDG). The income from the entire area amounts to 200,000 to 300,000 SDG. “The seeds provided by SASAS are of superior quality,” she affirmed.

Aziza Haroun from El-Ghadambaliya village, shares her story of how improved seeds provided by SASAS activities helped double her yields compared to previous years. “We used to farm in the same land and the yield was poor. Mercy Corps, a SASAS partner, introduced us to a new method of planting legumes as natural fertilizer. Now our yield has increased significantly,” she said.

CIMMYT Academy invites applications for Adjunct Scientist Program: Dryland Crops Improvement

Written by Julian Bañuelos-Uribe on . Posted in News.

This is a competitive program in which early- and mid-career NARS scientists from focus countries* are invited to express their motivation to join a CIMMYT research team, e.g. sorghum, pearl millet, finger millet, groundnut, chickpea, or pigeon pea improvement in West or Eastern Africa, on an adjunct basis. This program aims to strengthen partnerships between CIMMYT and NARS scientists while empowering the emerging generation of scientists through world-class networking and research opportunities contributing to a regional vision of crop improvement.

Adjunct Scientists will focus on their main discipline, e.g. crop breeding, seed systems, socioeconomics, or data management, by partnering with an appropriate CIMMYT scientist. The Adjunct Scientist will work closely with the hosting CIMMYT scientist to jointly strengthen each other’s research programs. The Adjunct and his/her CIMMYT host scientist will jointly participate and learn together from exchange visits, proposal writing, strategic meetings, and travel to research fields or conferences.

Learn more and apply 

Candidates must be active employees of a National Agricultural Research Institution in an AVISA-Transition project target country* with a Ph.D. in an appropriate field, awarded not more than 10 years before applying, or an MSc with a proven record of leading breeding programs for 5-10 years. The deadline for applications is June 22, 2024.

Gridded crop modeling to simulate impacts of climate change and adaptation benefits in ACASA

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

Global temperatures are projected to warm between 1.5-2 degrees Celsius by the year 2050, and 2-4 degrees Celsius by 2100. This is likely to change precipitation patterns, which will impact crop yields, water availability, food security, and agricultural resilience.

To prepare for these challenges, Atlas of Climate Adaptation in South Asian Agriculture (ACASA) uses process-based simulation models that can predict crop growth, development, and yield in order to understand the response of crops to climate change. Models such as Decision Support System for Agrotechnology Transfer (DSSAT), InfoCrop, and Agricultural Production Systems Simulator (APSIM) facilitate the field scale study of the biophysical and biochemical processes of crops under various environmental conditions, revealing how they are affected by changing weather patterns.

The ACASA team, along with experts from Columbia University and the University of Florida, met for a three-day workshop in January 2024 to boost the work on spatial crop modeling. The aim was to design a modeling protocol through a hands-on demonstration on high-performance computers. When scientifically executed, gridded spatial crop modeling–even though complex and data-intensive–can be a great way to frame adaptation and mitigation strategies for improving food security, which is one of ACASA’s goals.

ACASA’s Spatial Crop Modelling Group meets in Colombo, Sri Lanka, January 2024. (Photo: CIMMYT)

Decisions on data

The group decided to use DSSAT, APSIM, and InfoCrop for simulating the impact of climatic risks on crops such as rice, wheat, maize, sorghum, millet, pigeon pea, chickpea, groundnut, soybean, mustard, potato, cotton, and more. They chose harmonized protocols across all three models with standard inputs, such as conducting simulations at 0.05 degrees. The model input data about weather, soil, crop varietal coefficients, and crop management are being collected and processed for model input formats at 5 kilometer (km) spatial resolution.

A Python version called DSSAT-Pythia is now available to accelerate spatial and gridded applications. The programming for implementing InfoCrop on the Pythia platform is in progress. InfoCrop has been proven in India for past yield estimations, climate change spatial impact, and adaptation assessments for 12 crops.

For other crucial modeling components, a work plan was created including developing regional crop masks, crop zones based on mega-commodity environments as defined by CGIAR, production systems, crop calendars, and irrigated areas by crop. Genetic coefficients will then be calculated from measured past values and recent benchmark data of varietal units.

With this information, several adaptation options will be simulated, including changes in planting dates, stress-tolerant varieties, irrigation, and nitrogen fertilizer (quantity, methods, and technology), residue/mulching, and conservation tillage. The team will evaluate impact and adaptation benefits on yields, water, and nitrogen-use efficiency based on the reported percentage change from the baseline data.

As the project progresses, this work will make strides towards realizing food security for the planet and increasing the resilience of smallholder farming practices.

Blog written by Anooja Thomas, University of Florida; Apurbo K Chaki, BARI, Bangladesh; Gerrit Hoogenboom, University of Florida; S Naresh Kumar, ICAR-IARI, India

Harnessing econometric and statistical tools to support climate-resilient agriculture

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

Globally, climate extremes are adversely affecting agricultural productivity and farmer welfare. Farmers’ lack of knowledge about adaptation options may further exacerbate the situation. In the context of South Asia, which is home to rural farm-based economies with smallholder populations, tailored adaptation options are crucial to safeguarding the region’s agriculture in response to current and future climate challenges. These resilience strategies encompass a range of risk reducing practices such as changing the planting date, Conservation Agriculture, irrigation, stress-tolerant varieties, crop diversification, and risk transfer mechanisms, e.g., crop insurance. Practices such as enterprise diversification and community water conservation are also potential sector-specific interventions.

Atlas of Climate Adaptation in South Asian Agriculture (ACASA) aims to identify hazard-linked adaptation options and prioritize them at a granular geographical scale. While doing so, it is paramount to consider the suitability of adaptation options from a socioeconomic lens which varies across spatial and temporal dimensions. Further, calculation of scalability parameters such as economic, environmental benefit, and gender inclusivity for prioritized adaptation are important to aid climatic risk management and developmental planning in the subcontinent. Given the credibility of econometric and statistical methods, the key tenets of the approach that are being applied in ACASA are worth highlighting.

Evaluating the profitability of adaptation options

Profitability is among the foremost indicators for the feasible adoption of any technology. The popular metric of profitability evaluation is benefit-to-cost ratio. This is a simple measure based on additional costs and benefits because of adopting new technology. A benefit-to-cost ratio of more than one is considered essential for financial viability. Large-scale surveys such as cost of cultivation and other household surveys can provide cost estimates for limited adaptation options. Given the geographical and commodity spread, ACASA must resort to the meta-analysis of published literature or field trials for adaptation options. For example, a recent paper by International Food Policy Research Institute (IFPRI) based on meta-analysis shows that not all interventions result in a win-win situation with improvements in both tradable and non-tradable outcomes. While no-till wheat, legumes, and integrated nutrient management result in an advantageous outcome, there are trade-offs between the tradable and non-tradable ecosystem services in the cases of directed seed rice, organic manure, and agroforestry2.

Quantification of adaptation options to mitigate hazards

Past studies demonstrate the usefulness of econometric methods when analyzing the effectiveness of adaptation options such as irrigation, shift in planting time, and crop diversification against drought and heat stress in South Asia. Compared to a simple cost-benefit approach, the adaptation benefits of a particular technology under climatic stress conditions can be ascertained by comparing it with normal weather conditions. The popular methods in climate economics literature are panel data regression and treatment-based models. Subject to data availability, modern methods of causal estimation, and machine learning can be used to ascertain the robust benefits of adaptation options. Such studies, though available in literature, have compared limited adaptation options. A study by the Indian Council of Agricultural Research-National Institute of Agricultural Economics and Policy Research (ICAR-NIAP), based on ‘Situation Assessment Survey of Agricultural Households’ of National Sample Survey Office (NSSO), concluded that though crop insurance and irrigation effectively improve farm income and reduce farmers’ exposure to downside risk, irrigation is more effective than crop insurance1.

Statistical models for spatial interpolation of econometric estimates

Since ACASA focuses on gridded analysis, an active area of statistical application is the spatial interpolation or downscaling of results to a more granular scale. Many indicators used for risk characterization are available at coarser geographical units or points from surveys. Kriging is a spatial interpolation method where there is no observed data. Apart from spatial interpolation of observed indicators, advanced Kriging methods can be potentially used to interpolate or predict the estimates of the econometric model.

ACASA’s approach involves prioritizing adaptation options based on suitability, scalability, and gender inclusivity. Econometric and statistical methods play a crucial role in evaluating the profitability and effectiveness of various adaptation strategies from real world datasets. Despite challenges such as limited observational data and integration of econometric and statistical methods, ACASA can facilitate informed decision-making in climate risk management and safeguard agricultural productivity in the face of climatic hazards.

1 Birthal PS, Hazrana J, Negi DS and Mishra A. 2022. Assessing benefits of crop insurance vis-a-vis irrigation in Indian agriculture. Food Policy 112:102348. https://doi.org/10.1016/j.foodpol.2022.102348

2 Kiran Kumara T M, Birthal PS, Chand D and Kumar A. 2024. Economic Valuation of Ecosystem Services of Selected Interventions in Agriculture in India. IFPRI Discussion Paper 02250, IFPRI-South Asia Regional Office, New Delhi.

Blog written by Prem Chand, ICAR-NIAP, India and Kaushik Bora, BISA-CIMMYT, India

Indian scientists visit Türkiye for soil and root health training program

Written by Julian Bañuelos-Uribe on . Posted in News.

Soil is the foundation of agriculture, and healthy soil is critical to the entire ecosystem. However, soil health is under threat today as many factors make soil unhealthy, leading to significant losses in farming. CIMMYT in India has been addressing these issues in partnership with national and international institutions, while CIMMYT’s SBP program in Türkiye aims to deliver high-yielding wheat germplasm that is resistant to SBP and supports the International Soil-Borne Pathogens Research & Development Center (ISBPRDC) of Türkiye. It also facilitates knowledge exchange and technology transfer to support joint research and development activities to improve soil health.

On arrival, the group of scientists and professors from Bihar was welcomed by Metin Türker, director general of Agricultural Research and Policies (TAGEM). Talking about the intricate nexus of agriculture, climate, and technology, Türker emphasized varietal developments to irrigation advancements and engaged in lively discussions with the group, fueled by a shared vision for agricultural sustainability.

Led by Abdelfattah A. Dababat, CIMMYT country representative in Türkiye and the leader of the SBD program, the scientists and professors from India ventured into the heart of research institutions, immersing themselves in the latest innovations in wheat improvement and plant pathology. Their journey took them from Ankara to Eskisehir and ended at the Abant Izzet Baysal University, Bolu, where they were greeted by passionate experts eager to share their knowledge. Bonds were forged amid lectures and laboratory demonstrations, and ideas ignited, paving the way for future collaborations.

Visit to Ankara Province

The participants visited the Field Crops Central Research Institute and were introduced to the TAGEM Seed Gene Bank and Herbarium. Participants were acquainted with seed processing and preservation methods with live demonstrations. Following that, participants visited the Plant Protection Central Research Institute in Ankara, where its Director Ayse Ozdem gave an overview of the institute’s mandates and research work. Participants had the opportunity to explore the plant pathology laboratory and learn about major crop diseases in Türkiye and their control measures.

Participants later visited winter wheat trial sites at the research station in Haymana, a district of Ankara province. The group then interacted with Mesut Keser, ICARDA’s wheat breeder who specializes in winter and facultative wheat while working on the International Winter Wheat Improvement Program (IWWIP). This was followed by a visit to the pathology field experiments, a breeder seed production area, and an experimental trial for evaluating Syngenta TYMIRIUM® technology at the research station.

Visit to TZARI in Eskisehir

Scientists also had a chance to visit the Transitional Zone Agricultural Research Institute located in the Central Anatolian Plateau of Türkiye. The institute’s director Sabri Cakir welcomed the participants and briefed them about the ongoing research activities of the institute and its relevance to agriculture in Türkiye. Savas Belen gave a general overview of the institute and the breeding program, while Abdullah Tane Kilinc presented a glimpse of the activities of the Department of Plant Pathology. Professor Halil Toktay gave an overview of plant parasitic nematodes in wheat and potato, followed by Gül Erginbas Orakci who discussed the importance of managing soil-borne pathogens.

Beyhan Akin, wheat breeder at CIMMYT, gave a presentation on CIMMYT’s breeding activities in Türkiye, and Oğuz Önder presented fertilizer application on the quality of Bread Wheat and the importance of foliar fertilization in crops.

Thereafter, participants visited the plant pathology laboratory where Abdelfattah A. Dababat and Gül Erginbas-Orakci gave an overview of laboratory methods to study Cereal Cyst Nematodes and Root-Lesion Nematodes with live demonstrations. Innovative approaches to tackle the Plant-Parasitic Nematodes in agriculture were also discussed. In the agronomy laboratory, Oğuz Önder gave a live demonstration for estimating plant grain and biomass yield by optical sensor-based technologies. Participants also had the opportunity to explore the soil science laboratory and become familiar with state-of-the-art equipment used for soil nutrient analysis.

Visit to Bolu

The participants visited Abant Izzet Baysal University, in Bolu, where the Rector Professor. Mustafa Alişarlı welcomed them. This was followed by presentations and discussions on burning issues in agriculture. Professor Senol Yildiz gave a presentation on soil health assessment and management. Professor Halil Kütük of the Department of Plant Protection gave a brief overview of the latest research advancement in biological control of major crop diseases. In continuation, Abdelfattah A. Dababat gave an overview of the cereal cyst nematode and their management. The discussion led to a brainstorming session on soil health management, soil-borne diseases, soil microbiome, and the challenges of using microorganisms for soil health improvements. The major challenges and opportunities for agriculture development under changing climate scenarios in India and Türkiye were also discussed.

The training course exposed participants to the latest research and technologies for soil and root health management to increase agricultural productivity and profitability immediately and into the future. During the entire visit, participants working in different fields (soil science, agronomy, plant breeding, and microbiology) interacted with Türkiye’s expert counterparts to discuss their work and share valuable research insights. Several topics and technologies relevant to global agriculture, like zero tillage, climate-resilient agriculture, precision input management, hidden hunger, and digital agriculture, were discussed. Participants also explored future opportunities for bilateral research collaborations between India and Türkiye.

Participants expressed their deepest gratitude to the CIMMYT team at Türkiye, led by Abdelfattah A. Dababat, for arranging an effective training program and for the support provided at every step. “Your careful planning and thoughtful execution have created an environment where learning flourishes and connections are made. Thank you for your invaluable contribution to our learning journey,” said the participants. Participants also expressed their sincere thanks to the Ministry of Agriculture, Türkiye, and the BISA team for coordinating this training and making the entire experience seamless and impactful for all involved. Special thanks were offered to the Government of Bihar for supporting the travel of scientists from India for this training program under the climate-resilient agriculture project in the state.

Roots of resilience: my journey as a Conservation Agriculture champion

Written by Julian Bañuelos-Uribe on . Posted in Features.

I am Grace Malaicha, a proud native of the Zidyana Extension Planning Areas in Central Malawi, where my journey with Conservation Agriculture (CA) began. In 2005, I observed neighboring farmers practicing CA techniques on their land. Intrigued and inspired, I decided to embark on this path myself, joining the CA program initiated by CIMMYT and Total LandCare in 2006. I started practicing it on my demonstration plot and observed that yields were getting higher from the second year onwards.

My dedication to CA has changed not only myself but also influenced other members of my farming community. As a mother trial host farmer under the CGIAR Initiative: Diversification for resilient agribusiness ecosystems in East and Southern Africa today, I have been implementing different treatments, which include maize doubled-up legume system and improved drought-tolerant maize varieties planted under CA on flat land and comparing it to the traditional ridge tillage system that involves substantial soil movement.

But what does CA mean to me? It is more than just a set of principles that I apply like minimum soil disturbance, mulching, and crop rotation. CA reduces drudgery, secures yields, and maintains productivity in times of climate change. CA has changed my approach to farming, transforming my once conventional maize monocrop into a diverse maize-legume system. By intercropping with two crops, I have spread the risk of unanticipated crop failure, while incorporating groundnut, cowpeas, and pigeon pea into the mix, which are more drought tolerant. I increased the land area under CA and tried it on many other crops including different legumes as rotation or intercrops, birds-eye chili, vegetables, and cassava.

Over the years, I have witnessed firsthand the harsh realities of a changing climate in central Malawi, from intense heat to prolonged droughts and erratic rainfall patterns. This year, 2024, has even been worse due to the prolonged dry spells between January and February, and the erratic rainfall during this time. Despite these challenges, our CA plots have continued to thrive, showcasing the resilience and adaptability of climate-smart farming practices.

Grace trains farmers on Conservation Agriculture. (Photo: Christian Thierfelder/CIMMYT)

Recognizing the power of knowledge sharing and from the encouragement by CIMMYT and Total LandCare, I started to train fellow farmers, both locally and across borders. At first, I worked with women groups around my homestead and trained about 100 female farmers on the principles of CA. I was fortunate to be given the opportunity to train other farmers in other districts of Malawi. Since 2008, I have also trained farmers in eastern Zambia and from Mozambique where all farmers speak my language Chichewa. Farmers believe other farmers more and are now realizing the benefits of implementing CA in their own fields.

I enrolled to be a local trainer in CA within my community in 2016. My passion for teaching and catalyzing change has led to the adoption of CA by numerous farmers. I embrace my commitment to ongoing learning through carefully implementing these CA trials and playing an active role during awareness meetings.

My life had changed so much. I was speaking on the radio and television. In 2012, the Minister of Agriculture visited my plot, and I was asked to speak in front of a Parliamentary Committee about my experiences as a smallholder woman farmer in Malawi. I spoke about what women can do in agriculture and what changes I made on my land. From representing my country at high level meetings, each step has shaped me into a resilient and empowered woman.

However, my journey has not been without obstacles, including hardships in my personal relationship. In 2012, I made the decision to join my husband in South Africa where I took up menial jobs to earn a living, abandoning my plot back home. But my true passion lay in farming, and I decided to make the bold decision to come back home, leaving my husband and continue with farming. Through perseverance and determination, I have overcome these challenges, and I am now much stronger.

Grace Malaicha stands in her field. (Photo: Christian Thierfelder/CIMMYT)

Today, I stand with pride in front of my CA plot, not only sustaining my family but also sending all my children to school. I now converted all my land to conservation agriculture, 3ha are under maize and 2ha under groundnuts. Beyond farming, I have investments in housing, claiming rentals in the nearby town of Salima to sustain my financial income and expand in farming.

I will continue on this path as I learned so much over the years and believe that CA may be the only climate-smart agriculture response in reach of smallholder farmers that everybody can apply, and I will continue to support others as a champion of CA.

Unlocking insights from literature: exploring adaptation options in ACASA

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

To address the vulnerability of increased climate risks which impact agriculture, it is imperative to identify location-specific adaptation options. Atlas of Climate Adaptation in South Asian Agriculture (ACASA) is working on identifying commodity specific hazards at different geographical regions and the key adaptation options aligned with geography and hazards. This has been done for major cereal crops (rice, wheat, and maize), coarse grains (millets), oilseeds (coconut, mustard), legumes and vegetable crops (chickpea, potato), livestock, and fisheries. In ACASA, Systematic Literature Review (SLR) serves as a fundamental tool to identify key climate adaptation options and assess their effectiveness, considering agroecological factors.

Literature reviews are a customary approach for researchers to grasp existing knowledge and findings. The SLR methodically establishes clear research objectives, employs structured search queries to identify relevant literature, applies defined exclusion criteria, and extracts data for scientific analysis. This structured approach facilitates mapping the literature, validating findings, identifying gaps, and refining methodologies thereby minimizing biases, and ensuring comprehensive coverage of evidence.

Commodity-specific research questions, aligned with the problem/population, intervention, comparison/consequences, outcome, and time PICO(T) framework, have been used to guide the search process. By utilizing keywords specific to these questions, ACASA sourced literature from reputable databases such as Web of Science, Scopus, Google Scholar, and local databases of South Asian countries: Bangladesh, India, Nepal, and Sri Lanka. Local databases and gray literature further bolstered the understanding of local conditions and broadened the coverage of studied literature.

Systematic Literature Review (SLR)

The searched literature was then filtered using the well-established Preferred Reporting Items for Systematic Reviews and Meta Analysis (PRISMA) framework. PRISMA provides a minimum set of evidence-based literature to be used for further analysis. Let us look at maize as an example of a commodity under analysis in ACASA. For maize, a total of 1,282 papers were identified and based on four exclusion criteria pertaining to adaptation options, quantitative assessment, hazard, and risk only of which 72 papers were shortlisted. The PRISMA framework supported in getting a manageable dataset for in-depth analysis while ensuring transparency in the overall filtering process.

After filtering through PRISMA, a bibliometric analysis was conducted which contained research trend analysis, regional distribution patterns, adaptation option categorizations, and a co-occurrence analysis. Useful patterns in popularity of studied adaptation options, hazards, and their linkages were observed through this analysis. For instance, drought was the most studied hazard, while pest diseases and economics were major hazard impacts studied for the maize literature. In terms of adaptation options, stress tolerant varieties were the most popular adaptation option. Further, co-occurrence analysis provided linkages between adaptation options and hazards, and demonstrated that researchers have also studied bundled technologies.

SLR helped understand the effectiveness of certain adaptation options. Going ahead, this step will be fully realized through a “meta-analysis” which will be pivotal in quantifying the evidence and prioritizing adaptation options for different agroecologies. SLR has proven to be an effective research method to build a comprehensive database that can be used across different thematic areas of ACASA. Adaptation options enlisted through SLR can be further substantiated through expert elicitations via heurism, crop modelling, cost-benefit analysis, and other important pillars of ACASA to identify efficient and cost-effective options.

SLR also provided the ACASA team with the opportunity to identify certain literature gaps such as uneven geographical coverage and excessive emphasis on certain adaptation options versus the rest. Conceptualization of systematically reviewing climate adaptation options in the South Asian context by integrating bibliometric and meta-analysis adds novelty to the current efforts of ACASA.

Blog written by Aniket Deo, BISA-CIMMYT India; Niveta Jain, ICAR-IARI India; Roshan B Ojha, NARC Nepal; and Sayla Khandoker, BARI Bangladesh

Greater successes through NARS partnerships

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

Map: BISA works with National Agricultural Research Systems (NARS) of South Asia to develop ACASA.

Atlas of Climate Adaptation in South Asian Agriculture (ACASA) is different from many projects supported by our team. I would love to dive into the promising features of the ACASA platform and the exciting technical advances being made, but I want to focus here on how the Borlaug Institute for South Asia (BISA) has organized this program for greater and longer-term impact.

BISA is a strong regional partner and is the lead institution for the ACASA program. In fact, we could have simply asked BISA to build the ACASA platform and known they would make a great technical product. However, our goal is not just to have great technical products, but also to improve the lives of small-scale producers. For any great technical product to deliver impact, it must be used.

From day one, the ACASA program has not just kept the users’ needs in mind, indeed they have kept the users themselves engaged on the project. By establishing strong, financially supported partnerships with the National Agricultural Research Systems (NARS) in Bangladesh, India, Nepal, and Sri Lanka, they are achieving four key outcomes, among many others:

  1. Benefit from local expertise regarding national agricultural practices, climate risks, and solutions
  2. Leverage NARS connections to national and subnational decision makers to inform product requirements
  3. Establish national ownership with a partner mandated to support users of the product
  4. Strengthen climate adaptation analytics across South Asia through peer-to-peer learning.

These outcomes lead to more accurate and appropriate products, user trust, and the long-term capacity to maintain and update the ACASA platform. The latter being essential given the constantly improving nature of our understanding of and predictions around climate and agriculture.

If this model of working has such advantages over “if you build it, they will come”, you might wonder why we do not use it in all cases. This approach requires divergence from business-as-usual for most researchers and is not without a cost. The BISA team are not only putting deep emphasis on the technical development of this product, but they are also spending considerable time, effort, and budget to create a program structure where the NARS are catalytic partners. The NARS teams are empowered on the project to contribute to methodologies used beyond their national boundaries, they have the task of making the best data available and validating the outputs, the responsibility of understanding and representing stakeholder requirements, and the ownership of their national platform for long-term use. BISA has developed a structure of accountability, provided funding, facilitated team-wide and theme-specific workshops, and shared decision-making power, which all presents additional work.

In the end, we encouraged this approach because we see too many decision support tools and platforms developed by international researchers who merely consult with users a few times during a project. These efforts may result in building captivating products, meeting all the needs brainstormed by the research team, but their future is sitting in a dusty (and unfortunately crowded) corner of the internet. While this approach seems fast and efficient, the efficiency is zero if there is no value gained from the output. So, we look for other ways to operate and engage with partners, to work within existing systems, and to move beyond theoretically useful products to ones that are used to address needs and can be evolved as those needs change. BISA has been an exemplary partner in building and supporting a strong ACASA team, and we are eager to see how each NARS partner leverages the ACASA product to generate impact for small-scale producers.

Tess Russo is a senior program officer at the Bill & Melinda Gates Foundation, based in Seattle, United States.  

Women farmers enhance agricultural production in conflict-torn Sudan

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

Women farmers show their harvested vegetables, Kassala, East Sudan. (Photo: CIMMYT)

The ongoing conflict in Sudan continues to contribute to a food crisis threatening the lives of over 18 million people. Farmers, especially smallholders and vulnerable women, are facing extraordinary challenges in obtaining needed agricultural inputs, and access to markets is diminishing.

In Kassala State, East Sudan, which hosts hundreds of thousands of people displaced by ongoing armed conflict including Ethiopian and Eritrean refugees, the USAID-funded Sustainable Agrifood Systems Approach for Sudan (SASAS) is working with women farmers to prepare and safeguard the upcoming growing season. This work is critical to help meet the unprecedented demand for vegetables in the region and achieve sustainable development goals.

“At SASAS, we are working to empower women farmers, especially those who lost their traditional livelihood resources, and help them to acquire skills and techniques to increase their agricultural production to help improve food security,” said Abdelrahman Kheir, SASAS chief of party in Sudan.

Women farmers participate in a training on vegetable growing, Kassala, East Sudan. (Photo: CIMMYT)

SASAS works with the El-Haram Agricultural Cooperative, a women-led farmers group, based in Kassala, to help increase vegetable production. SASAS trains El-Haram Agricultural Cooperative members on modern agricultural techniques, irrigation techniques, pest control, and organic fertilizers to increase crop yields.

“SASAS trained us on new ploughing and land preparation techniques, which we never used before and then provided us with improved seeds of okra, tomato, chili, and mallow, and encouraged us to use legumes as organic fertilizers,” said Imtithal Atta, a farmer from the Alsawagi neighborhood in Kassala. “In the past, I used to buy vegetable seeds from the local market, but they grow poorly. The improved seeds given by SASAS are germinating extremely well. My income has doubled; I almost made $250 from my first harvest of vegetables.”

The ongoing conflict has interrupted traditional livelihood activities in many regions. In some areas, farmers missed the harvest, leading to a dramatic reduction in agricultural production and debilitating price increases for cereals and vegetables. SASAS is helping to restore agricultural production in key growing regions by ensuring farmers have timely access to necessary production inputs, including fertilizer and climate-adapted seeds.

SASAS staff examine the germination of vegetables in women-led farms, Kassala, East Sudan. (Photo: CIMMYT)

“For years, I have worked tirelessly on my family’s farm, season after season, without earning a good income, and I was not sure what was wrong. Luckily, this cultivation season, SASAS trained us on new ploughing techniques to better prepare the land for cultivation, using organic fertilizers to enrich the soil and offering us improved vegetable seeds,” said Fatima Ahmed, a woman farmer and a mother of three children from the El-Haram Agricultural Cooperative.

“Thanks to SASAS, both the quality and the quantity of my agricultural products have greatly improved. I am so happy that I got some good money from my vegetables. I feel empowered and now I can have a strong voice within my community. I am more confident and gained the courage to participate in important decision-making processes within my family and express my opinions without fear,” said Ahmed.

A critical part of SASAS are efforts to diversify food production in Kassala, where malnutrition among children under 5 years old, and breastfeeding, lactating, and pregnant women, are prevalent.

Women farmers process their onions, Kassala, East Sudan. (Photo: CIMMYT)

“I used to go to the main market in town to get my daily needs from vegetables, but now I buy what I need from women farmers closer to my home. They are selling me fresh vegetables at a good price. The taste of the vegetables is quite fresh and healthy, this is something I have been missing for a long time,” said Hanan, a resident of Alswagi.

“The vegetables produced by members of the El-Haram Agricultural Cooperative has led to an increased supply in the local market. I buy vegetables from women farmers and sell them here in the neighborhood market. This has cut my transportation cost as I used to buy vegetables from markets a long distance away,” said Osman, vegetables trader, also in Alswagi.

Eight new CIMMYT maize hybrids available from Eastern Africa breeding program

Written by Julian Bañuelos-Uribe on . Posted in News.

How does CIMMYT’s improved maize get to the farmer?

CIMMYT is happy to announce eight new, improved tropical maize hybrids that are now available for uptake by public and private sector partners, especially those interested in marketing or disseminating hybrid maize seed across eastern Africa and similar agroecologies in other regions. NARES and seed companies are hereby invited to apply for licenses to pursue national release, scale-up seed production, and deliver these maize hybrids to farming communities.

Newly available CIMMYT hybrids Key traits
CIM22EAPP1-01-08 Intermediate-maturing, white, high yielding, drought tolerant, NUE, and resistant to GLS, TLB, MSV, ear rots, and root & stalk lodging tolerance
CIM22EAPP1-01-16
CIM22EAPP1-02-02 Early maturing, white, high yielding, drought tolerant, NUE, and resistant to MLN, MSV, GLS, TLB, ear rots, and root & stalk lodging tolerance
CIM22EAPP1-02-09
CIM22EAPP1-02-18
CIM22EAPP2-03 Late maturing, white, high yielding, drought tolerant, NUE, and resistant to MSV, GLS, TLB, rust, ear rots, and root & stalk lodging tolerance
CIM22EAPP2-07
CIM21EAPP3-38 Late-maturing, high-yielding, white-grain maize hybrid bred for the highlands, with resistance to GLS, TLB, rust, ear rots, and root & stalk lodging tolerance

 

Performance data Download CIMMYT Eastern Africa Maize Regional On-Station (Stage 4) and On-Farm (Stage 5) Trials: Results of the 2022 to 2023 Seasons and Product Announcement from Dataverse.
How to apply Visit CIMMYT’s maize product allocation page for details.
Application deadline The deadline to submit applications to be considered during the first round of allocations is 15 May 2024. Applications received after that deadline are still welcome but will be considered during subsequent rounds of product allocations.

 

The newly available CIMMYT maize hybrids were identified through rigorous, years-long trialing and a stage-gate advancement process which culminated in the 2023 Eastern Africa Regional On-Farm Trials. The products were found to meet the stringent performance and farmer acceptance criteria for CIMMYT’s breeding pipelines that are designed to generate products tailored in particular for smallholder farmers in stress-prone agroecologies of eastern Africa.

Applications must be accompanied by a proposed commercialization plan for each product being requested. Applications may be submitted online via the CIMMYT Maize Licensing Portal and will be reviewed in accordance with CIMMYT’s Principles and Procedures for Acquisition and use of CIMMYT maize hybrids and OPVs for commercialization. Specific questions or issues faced with regard to the application process may be addressed to GMP-CIMMYT@cgiar.org with attention to Nicholas Davis, program manager, Global Maize Program, CIMMYT.

APPLY FOR A LICENSE

Cargill Mexico and CIMMYT award top food security and sustainability projects in Mexico

Written by Julian Bañuelos-Uribe on . Posted in Press releases.

Cargill Mexico and CIMMYT presented the 2023 edition of the Cargill-CIMMYT Award for Food Security and Sustainability, which aims to acknowledge and promote projects and actions that contribute to mitigating and resolving the food problems facing the country.

With this award, Cargill and CIMMYT seek to promote actions and projects that contain innovative ideas on technologies, productive inputs, agronomic practices, marketing models, collaboration schemes, among others, that result in a sustainable and scalable increase in agricultural production in Mexico.

From left to right, Fernando Guareschi, president of Cargill Mexico; winners Eduardo Cruz and Heriberto López, youth; Arturo Ortiz, opinion leader; Carlos Barragán, producer; Andrés Mandujano, researcher; and, Bram Govaerts, CIMMYT director general. (Photo: CIMMYT)

“The objective of this initiative is to identify and acknowledge technological innovations, actions, and practices that contribute to strengthening food security and sustainability in the Mexican countryside,” said Fernando Guareschi, president of Cargill Mexico. “The award-winning projects represent an achievement for the producers, researchers, opinion leaders, and young people who participate in each project. It is an indicator for us that we are on the right path to meet our goal of nourishing the world in a safe, responsible, and sustainable way.”

The 2023 edition of the award acknowledges innovations that lead to better integration of basic grain value chains, as well as productive market practices that improve the quality of life of producers in communities or agricultural centers.

“For CIMMYT, the partnership with Cargill has been key to recognizing and promoting the talent and innovation of the actors in the basic grains value chains in Mexico who share our determination to transform agricultural systems to make them more resilient, sustainable, and inclusive and, thus, strengthen food security for all Mexicans,” said Bram Govaerts, CIMMYT director general.

Within the framework of the awards ceremony, the winning projects were recognized in categories: researchers, producers, opinion leaders, and youth in the Mexican agricultural sector.

The winners of the 2023 edition of the Cargill–CIMMYT Award were –

  • Andrés Mandujano Bueno in the researchers category, with the project “Algorithms to optimize the use of nitrogen fertilizer.”
  • Carlos Barragán García in the producers category, with the project “Family agriculture and agribusiness.”
  • Arturo Javier Ortiz García in the opinion leaders category, with the project “Agricultural Islands.”
  • Eduardo Cruz Rojo in the youth category, with the projects “New production methods for the Mezquital Valley area.”

In this edition, projects were assessed by a jury and a committee of experts from the agricultural and food sector, who had the responsibility of determining the winners. Projects for each category were assessed with specific criteria:

  • Producers of basic grain production systems such as maize, wheat, barley, and sorghum.
  • Scientists and researchers in agronomy, genetics, improvement of maize, wheat, barley, or sorghum, and information and telecommunications technologies applied to the agrifood sector.
  • Leaders of associations of producers, technicians, and communication professionals who work in the agrifood sector in Mexico.
  • Youth who have carried out outstanding activities in the sustainable agricultural sector in Mexico, have implemented a pilot program in their community, or have contributed to agricultural technological innovation.

About Cargill

Cargill is committed to supplying food, ingredients, agricultural solutions, and industrial products to nourish the world safely, responsibly, and sustainably. Located at the center of the supply chain, we collaborate with farmers and customers to source, manufacture, and supply products vital to life.

Our 160,000 team members innovate with purpose, providing customers with the essentials so that businesses grow, communities thrive, and consumers live well. With 159 years of experience as a family business, we look to the future while staying true to our values. We prioritize people. We aim for excellence. We do the right thing, today, and for future generations. For more information, visit Cargill.com and our News Center.

 About CIMMYT

CIMMYT is a cutting edge, non-profit, international organization dedicated to solving tomorrow’s problems today. It is entrusted with fostering improved quantity, quality, and dependability of production systems and basic cereals such as maize, wheat, triticale, sorghum, millets, and associated crops through applied agricultural science, particularly in the Global South, through building strong partnerships. This combination enhances the livelihood trajectories and resilience of millions of resource-poor farmers, while working towards a more productive, inclusive, and resilient agrifood system within planetary boundaries.

CIMMYT is a core CGIAR Research Center, a global research partnership for a food-secure future, dedicated to reducing poverty, enhancing food and nutrition security and improving natural resources.

For more information, visit cimmyt.org.

Read the original article in Spanish.

With agricultural diversification, more is better

Written by Julian Bañuelos-Uribe on . Posted in Publications.

Over the last seventy years, intensively managed monocultures, focused on maximizing calorie production, have become a dominant approach to global food production. This trend toward simplification in agricultural systems has supported productivity gains but has very troubling consequences for the environment including nutrient pollution and biodiversity loss at a massive scale. Restoring diversity is essential to regaining ecological balance.

Monocultures are generally all the same, turning biologically-rich systems into chemical-intensive engineered ones nearly devoid of life forms other than those yielding a genetically identical commodity crop. Their guiding principle is producing food ingredients as cheaply as possible. Biologically diversified agricultural systems can take many forms. Their guiding principle is recapturing resilience and resource use efficiency while supplying balanced diets and viable livelihoods.

In recent years, there have been many efforts to biologically diversify farming systems. Increasing the number of species and the genetic diversity is associated with improved resilience and resource use efficiency.

A new paper published in Science consolidates evidence from across a wide range of diversification strategies, applied on five continents, to understand how they affect environmental and social outcomes. These strategies encompass many different interventions ranging from crop rotations and cover crops to livestock inclusion to use of compost, hedgerows, and contour farming.

Farmers hold groundnuts as a preferred crop. (Photo: Sieglinde Snapp/CIMMYT)

The study shows that the likelihood of environmental and social benefits goes up when a greater number of diversification strategies are combined. Importantly, the environmental benefits of diversification were found to be greatest in very simplified landscapes with less than 20% in non-crop area.

It also found that applying multiple diversification strategies in tandem reduces tradeoffs. In other words, the path to agricultural win-wins leads to diversified working landscapes, not just diversification strategies on individual farms.

The push toward commodity monocultures has been baked into many agricultural policies, such as subsidies and trade deals, and into land tenure systems. The monoculture bias is also reinforced through pricing, payment, and other supply chain arrangements. Even research agendas have encouraged monoculture with the long-term emphasis on yield-focused breeding.

It’s time to dismantle the structural barriers that leave so many farmers just getting by “against the odds” and at the expense of functioning ecosystems.

Flowers, learning, and a gender-based approach

Written by Julian Bañuelos-Uribe on . Posted in Blogs.

Gender and social inclusion are fundamental themes for the Latin American regional initiative AgriLac Resiliente, which is why numerous regions bordering Guatemala and Honduras have been selected to implement priority actions with a gender approach.

In order to integrate a guideline that clears up why gender and social inclusiveness are relevant matters and incorporate it in all InnovaHubs activities in Guatemala and Honduras, social inclusion and gender experts from AgriLac have implemented a participatory process in the South Pacific and Chiapas Hubs to gather information and document research results to facilitate the Hub model for replication, developed by CIMMYT in Mexico and other countries.

In this way, Alejandrina Garcia in Oaxaca, Alejandro Ramirez in Chiapas, and Angela Meentzan, head of the AgriLac Gender and Social Inclusion Team, conducted individual and group interviews to learn how the different actors involved in the hubs perceived their own participation: farmers, workers, managers, and staff of the hubs, as well as partners who participated in this participatory process.

There are numerous and successful cases of rural women’s participation in the centers of Oaxaca and Chiapas that have been collected in this process. “It is expected that these case studies will become part of an annex to the guideline, just to illustrate why the participation of rural women is essential in their own vision,” said Meentzen, who highlights the case of Juanita, a Tzeltal woman from La Providencia in Ocosingo, Chiapas, Mexico.

“About five years ago, I started working alongside CIMMYT. Before we knew them, we were only planting maize and beans, but then we couldn’t produce any more. The plants stopped growing, and we had a lot of problems with pests, so we used to burn all the stubble. When the engineers came, they invited us to join them. At first, we weren’t that interested, but we let them teach us. They taught us how to grow other crops like sunflowers, peanuts, vegetables, and fruit trees like lemon and soursop,” said Juanita.

“Now we don’t burn all the stubble and we have crops all year round. We also grow other types of plants and use a lot of organic products that they taught us how to prepare. Our production has increased, and we sell more and more at the market. My daughter and I take care of the sale of the crops: beans, corn, vegetables, squash, corn, and flowers; the latter have given us such good results that we have earned some extra money,” said Juanita.

“The benefits we got from our land allowed us to give our children a future. Some of them have graduated from college and have jobs; others are about to graduate, but they have all learned to work the land. It feels a little harder, but I have been able to take care of both: my family and the land. I don’t know how I did it, but I did it,” said Juanita proudly, noting that the scientific knowledge gained from the research platform and Hub modules has had a real and positive impact on her and her family.

Photo: Juanita, a Tzeltal woman from La Providencia in Ocosingo, Chiapas, stands in her field. (Garcia, Ramirez and Meentzen/CIMMYT) 

Unanswered questions and unquestioned answers

Written by Julian Bañuelos-Uribe on . Posted in Publications.

Over the past few decades, Conservation Agriculture (CA) has moved from theory to practice for many farmers in southern Africa. CA is a system that involves minimum soil disturbance, crop residue retention, and crop diversification among other complimentary agricultural practices. One reason for its increasing popularity is its potential to mitigate threats from climate change while increasing yields.

However, there are limits to the adaptation of CA, especially for smallholder farmers. Challenges are both agronomic (e.g. lack of sufficient crop residues as mulch, weed control, pest and disease carryover through crop residues), socio-economic, and political (both locally and regionally).

A recent paper, Unanswered questions and unquestioned answers: the challenges of crop residue retention and weed control in Conservation Agriculture systems of southern Africa, published in the journal Renewable Agriculture and Food Systems in February 2024, led by CIMMYT and CGIAR scientists examines two specific challenges to more widespread CA adaptation: how to deal with trade-offs in using crop residue and finding alternatives to herbicides for weed control.

For crop residue, the two most prevalent actions are using leftover crop residue for soil cover or feeding it to livestock. Currently, many farmers allow livestock to graze on crop residue in the field, leading to overgrazing and insufficient ground cover. This tradeoff is further challenged by other multiple household uses of residues such as fuel and building material. The most common way to control weeds is the application of herbicides. However, inefficient and injudicious herbicide use poses a threat to human health and the environment, so the research team set out to identify potential alternatives to chemical weed control as the sole practices in CA systems.

“The answer to the question ‘how should farmers control weeds?’ has always been herbicides,” said lead author Christian Thierfelder, CIMMYT principal cropping systems agronomist. “But herbicides have many negative side effects, so we wanted to question that answer and examine other potential weed control methods.”

What to do with crop residue

Previous research from the region found that ungrazed areas had long-term positive effects on soil fertility and crop yields. However, it is common practice for many farmers in Malawi, Zambia, and Zimbabwe to allow open grazing after the harvest in their communities. Livestock are free to graze wherever they wander, which results in overgrazing.

“Open grazing systems help keep costs down but are very inefficient in terms of use of resources. It leads to bare fields with poor soil,” said Thierfelder.

Maize on residues. (Photo: CIMMYT)

While it is easy to suggest that regulations should be enacted to limit open grazing, it is difficult to implement and enforce such rules in practice. The authors found that enforcement is lacking in smaller villages because community members are often related, which makes punishment difficult, and there is an inherent conflict of interest among those responsible for enforcement.

Controlling weeds

Weeding challenges in CA systems have been addressed worldwide by simply using herbicides. However, chemical weeding is often not affordable and, sometimes, inaccessible to the smallholder farmers and environmentally unfriendly.

Using herbicides, though effective when properly applied, also requires a degree of specialized knowledge, and without basic training, this may be an unviable option as they may pose a risk to the health of the farmers. Thus, alternatives need to be identified to overcome this challenge.

Some alternatives include mechanical methods, involving the use of handheld tools or more sophisticated tools pulled by animals or engines. While this can be effective, there is the possibility of high initial investments, and intercropping (a tenet of CA) forces farmers to maneuver carefully between rows to avoid unintended damage of the intercrop.

Increasing crop competition is another potential weed control system. By increasing plant density, reducing crop row spacing, and integrating other crops through intercropping, the crop competes more successfully with the weeds for resources such as light, moisture, and nutrients. When the crop seed rate is increased, the density of the crops increases, providing more cover to intercept light, and reducing the amount of light reaching the weeds thereby controlling their proliferation.

A holistic approach

“What we learned is that many of the crop residue and weed challenges are part of broader complications that cannot be resolved without understanding the interactions among the current scientific recommendations, private incentives, social norms, institutions, and government policy,” said Thierfelder.

Continuing research into CA should aim to examine the social and institutional innovations needed to mainstream CA as well as strengthen and expand the research on weed control alternatives and focus on the science of communal grazing land management to enhance their productivity.

Unlocking the power of collaboration in global wheat science

Written by Julian Bañuelos-Uribe on . Posted in News.

CIMMYT Global Wheat Program (GWP) scientists visited National Agricultural Research Systems (NARS) partners in Pakistan, Nepal, and India during February 2024. The key purpose was to review current approaches and explore new opportunities to enhance collaborative wheat improvement activities.

NARS partners described their current priorities and recent changes in their activities, while CIMMYT shared recent modernization efforts of its wheat breeding and highlighted opportunities to enhance collaborative wheat improvement. GWP representatives included Interim Wheat Director Kevin Pixley, and scientists Naeela Qureshi, Velu Govindan, Keith Gardner, Sridhar Bhavani, T.P. Tiwari, and Arun K Joshi.

Representatives from the Pakistan Agricultural Research Council (PARC) and CIMMYT meet to identify chances for improved cooperation in wheat breeding research. (Photo: Awais Yaqub/CIMMYT)

Planning the future of South Asian wheat

In each country, CIMMYT and NARS leaders held a one-day meeting to review and plan their wheat improvement partnership, with attendance from 25-30 wheat scientists in each country. The sessions aimed to review and identify bottlenecks to the wheat impact pathway in each country, describe recent changes in the breeding programs of CIMMYT and NARS partners, and prioritize and agree updates to the NARS-CIMMYT wheat improvement collaborations.

NARS partners highlighted their wheat improvement programs through field visits to research stations. Visitors attended Wheat Research Institute (ARI), Faisalabad and National Agricultural Research Center (NARC), Islamabad in Pakistan; National Wheat Research Program (NWRP), Bhairahawa and National Plant Breeding & Genetics Research Center (NPBGRC), Khumaltar in Nepal; and Indian Institute of Wheat and Barley Research (IIWBR), Punjab Agricultural University (PAU), Borlaug Institute for South Asia (BISA), and the Indian Agricultural Research Institute (IARI) in India.

The GWP team also visited: Faisalabad Agricultural University, with a special focus on collaborative zinc biofortification work in Pakistan; farmers’ fields in Nepal to see participatory evaluations of elite wheat lines (candidates for release as new varieties) and to hear from farmers about challenges and expectations from improved varieties; and the Lumbini Seed Company to learn about the crucial role of seed companies, bottlenecks, and opportunities in the pathway from research to impact in farmers’ fields.

NARS scientists and directors in all three countries were enthusiastic about the opportunities for enhanced partnership to adopt some of the modernizing technologies that AGG has brought to CIMMYT. Partners are especially keen to –

  1. Receive earlier generation varieties, segregating breeding lines to empower them to select in their own environments.
  2. Model and explore strategies to shorten their breeding cycles.
  3. Apply quantitative genetics tools to better select parents for their crossing blocks.
  4. Adopt experimental designs that improve efficiency.
  5. Explore opportunities for co-implementing improvement programs through shared testing schemes, communities of practice (e.g. for quantitative genetics or use of exotic germplasm to address challenges from climate change), and more.
A highlight of the trip in Nepal: visiting on-farm trials, where farmers share insights about their preferences for improved varieties, where they often mentioned tolerance over lodging. (Photo: CIMMYT)

“The visit provided CIMMYT and NARS wheat scientists with the opportunity to exchange experiences and ideas, and to explore ways of enhancing collaborations that will strengthen our joint impact on wheat farmers and consumers,” said Pixley.

Following these visits, the Bangladesh Wheat and Maize Research Institute (BWMRI) soon reached out to CIMMYT to request a similar review and planning meeting, with a vision to modernize and strengthen their wheat improvement partnership.