Skip to main content

Location: Africa

CIMMYT’s work in Africa helps farmers access new maize and wheat systems-based technologies, information and markets, raising incomes and enhancing crop resilience to drought and climate change. CIMMYT sets priorities in consultation with ministries of agriculture, seed companies, farming communities and other stakeholders in the maize and wheat value chains. Our activities in Africa are wide ranging and include: breeding maize for drought tolerance and low-fertility soils, and for resistance to insect pests, foliar diseases and parasitic weeds; sustainably intensifying production in maize- and wheat-based systems; and investigating opportunities to reduce micronutrient and protein malnutrition among women and young children.

Why co-creation is vital for sustainable agriculture

Agricultural mechanization engineer Subash Adhikari adjusts a maize shelling machine on a farmer´s verandah in Rambasti, Kanchanpur, Nepal. (Credit: P. Lowe/CIMMYT)

The adoption of climate-smart agricultural production processes and technologies is a vital strategy in attempts to mitigate the global impacts of climate change without compromising on food security. However, supporting farmers to permanently implement new technologies and approaches requires a deep understanding of their needs, robust training, and effective transfer of knowledge.

At the International Maize and Wheat Improvement Center (CIMMYT), projects across the Global South aim to embed agrifood systems that are sustainable for all.

To share how CIMMYT empowers farmers and develops new technologies, Director General Bram Govaerts attended a panel event hosted by the Business Council for International Understanding (BICU) on September 19. For an audience of foreign government officials, multilaterals, and private sector executives, panelists introduced new perspectives to support global food security efforts and inspire greater collaboration.

Partnership approach

Panelists were asked to explain the technologies that can be unlocked by agricultural financial mechanisms, referencing how research and development is keeping pace with the quick adaptations needed by farmers to address climate change.

Examples from CIMMYT’s participation in the AgriLAC Resiliente CGIAR Initiative, a project for sustainable agricultural development in Latin America and the Caribbean, highlighted the innovative partnerships that are pushing forward research and development in the sector, enabling food systems and actors to act quickly to meet food security needs, mitigate climate hazards, stabilize communities and reduce forced migration.

Scientists are conscious of ensuring that solutions to one challenge are not the cause of new problems elsewhere; co-development is essential to this, ensuring the views of all actors are represented. Using the Integrated Agri-food System Initiative (IASI) methodology, created by CIMMYT in partnership with the Alliance of Bioversity International and the International Center for Tropical Agriculture (CIAT), projects can develop strategies and actions with a significant likelihood of supportive public and private investment that will transform food systems.

Expertise from farmers

Even the best agricultural technology in the world is only effective if it is used. When discussing barriers to the implementation of technology, Govaerts emphasized CIMMYT’s mechanization prototyping, co-creation, and experimentation work that bridges the gap between farmers and scientists and encourages adoption of new methods and tools.

Having farming influencers onboard has proved priceless, as these people co-create prototypes and experiments that demonstrate results and offer assured testimony to reluctant stakeholders.

Innovations can transform livelihoods, giving farmers a way to increase income and provide stability and better opportunities for their families – which is the most appealing reason for adoption.

Training programs are also fundamental, ensuring skills and knowledge around new technologies are freely available to farmers, technicians, and researchers. CIMMYT projects such as MasAgro in Mexico, has trained more than 3,000 producers and 400 technicians in sustainable agriculture, with more than 70,000 producers participating in educational events during the pandemic.

Hunger and climate change – a dual problem?

Conversation also centered on whether the development of new technologies is aiming to confront world hunger and climate change as separate issues, or whether solutions can be suitable for both challenges.

Essential actions to mitigate the food crisis require a global perspective, acknowledging that unexpected crises will always arise. For example, Russia and Ukraine account for 28% of the world’s wheat exports, so high prices are linked to supply chain disruption. More than 2.5 billion people worldwide consume wheat-based products, so the effects of these disruptions could mean significant hunger and potential civil unrest. Nations already in crisis, such as Yemen, Sudan and Ethiopia, may be worse hit, but other countries with high dependency on imports like Egypt are also affected.

Govaerts highlighted the inextricable links between the causes of food insecurity and climate change. He underscored CIMMYT’s holistic approach to overcoming widespread impacts on the global food system, such as the concurrent challenges of COVID-19, climate change and the Ukraine crisis, by co-developing lasting solutions incorporating these three elements:

  • Extensive research on climate change adaptation and mitigation in maize and wheat-based production systems across Africa, Asia, and Latin America.
  • Climate focused research aims to help smallholder farmers adapt to climate shocks and to raise and maintain yields profitably and sustainably by reducing greenhouse gas emissions.
  • Capacity building for stakeholders in the development and application of new technologies.

Many other deep disruptions are on their way. It is time to invest in science, research, innovation, technologies, and start practicing teamwork to allow those investments to translate into a better future for the planet, and for us.

About BICU:

BICU is a leading business-supported non-profit education initiative, established by President Eisenhower of the United States in 1955 for the purpose of facilitating public-private partnerships and high-level business to government dialogue.

Tracking improved crop varieties

Participants of the IMAGE National Advisory Committee launch event in Ethiopia. (Credit: EIAR)

Coordinating the development and deployment of improved seed varieties is a complex task involving many stakeholders, including government agencies, public and private seed sector organizations, and ultimately, farmers and farmer groups. Cooperation among these groups is vital to assess and measure the impact of improved varieties and to guide decision making for future crop breeding efforts.

The Institutionalizing Monitoring of Crop Variety Adoption using Genotyping (IMAGE) project, funded by the Bill & Melinda Gates Foundation and managed by Context Global Development, is a five-year program operating in Nigeria, Tanzania, and Ethiopia designed to increase the efficacy of variety deployment by establishing, institutionalizing, and scaling up routine monitoring of improved variety adoption and turnover using genotyping technologies, focusing on wheat, maize, teff, and the common bean.

The International Center for Maize and Wheat Improvement (CIMMYT), in collaboration with the Ethiopian Institute of Agricultural Research (EIAR), launched Ethiopia’s IMAGE National Advisory Committee (NAC) February 25, 2022, in Addis Ababa.

Feto Esemo, the Director General of the Ethiopian Institute of Agricultural Research (EIAR) officially opened the workshop.

Esemo underscored in his opening remarks the NAC’s mission to promote the application of DNA fingerprinting for an accurate assessment and understanding of the adoption of improved maize and wheat varieties by small-holder farmers in Ethiopia and resolve data discrepancy among researchers.

The NAC is the highest advisory body for IMAGE’s implementation in Ethiopia and comprises seven institutions: Ministry of Agriculture (MoA), Ministry of Planning and Development (MPD), Agricultural Transformation Institute (ATI), EIAR, Central Statistical Agency (CSA), Ethiopian Biodiversity Institute (BI), and the Ethiopian Biotechnology Institute (EBI).

Kindie Tesfaye, CIMMYT senior scientist, emphasized the application of DNA fingerprint data on maize and wheat in Ethiopia and summarized the IMAGE Project.

“IMAGE supports inclusive agricultural transformation by providing insights and evidence for seed sector actors to enhance government agency capacity, improve stakeholder coordination, and lead to better resource allocation for varietal development and commercialization,” said Tesfaye.

He added the IMAGE Project provides the opportunity to leverage past monitoring pilots and cross-country lessons while advancing genetic reference libraries, establishing protocol adoption, and building towards institutionalization over five years.

National maize and wheat genotyping studies in Ethiopia proved the feasibility of using DNA fingerprinting for variety monitoring at scale and CIMMYT and EIAR presented the findings to seed system and policy stakeholders with an emphasis on demonstrating how varietal identity based on genotyping compares with farmers’ elicitation, the area-weighted average age of varieties, germplasm attribution, and varietal performance.

Chilot Yirga, Deputy Director-General, Capacity Building and Administration of EIAR, emphasized the functional and structural roles of the National Advisory Committee (NAC), Country Team (CT), and Technical Working Group (TWG) of the project in the country.

EIAR, the Holetta National Agricultural Biotechnology Research Center, CSA, and CIMMYT comprise the Country Team.

Yirga also briefed the participants on the details of the Committee’s mandate and indicated the roles of all stakeholders and policymakers, specifically in DNA fingerprinting.

The workshop concluded by electing a chairperson and vice-chairperson of the committee among its members and co-project leaders from CIMMYT and EIAR.

Gene Editing for Reducing Aflatoxin in Groundnuts

The Gene Editing for Reducing Aflatoxin in Groundnuts project seeks to advance safer and nutritious groundnut varieties with durable genetic resistance to Aspergilli infection and aflatoxin contamination via gene editing. These new technologies will help address associated health and disease burdens, malnutrition, and trade and economic losses for smallholder farming communities in sub-Saharan Africa and globally. The main output of this project will be gene-edited varieties with reduced levels of aflatoxins.

Excellence in Agronomy Initiative commences in Africa

CGIAR researchers and partners outside the International Livestock Research Institute (ILRI) campus in Addis Ababa, Ethiopia, where the workshop took place. (Credit: Enawgaw Shibeshi/CIMMYT)

The Excellence in Agronomy for Sustainable Intensification and Climate Change Adaptation Initiative launched in east and southern Africa on July 28-29 in Addis Ababa, Ethiopia, at a workshop with panel discussions and ideation sessions to determine key actions for the project.

The Initiative aims to deliver agronomic gain at scale for millions of smallholder farming households in prioritized farming systems, with emphasis on supporting women and young farmers, to demonstrate measurable impact on food and nutrition security, income, water use, soil health and climate resilience.

Co-creation of agricultural solutions with farmers is integral to the Initiative through the engagement of modern tools, digital technologies, and behavioral science.

At the workshop, participants created a shared understanding of the Initiative’s goals for the region, laid groundwork for in-country planning and implementation, and increased visibility of the Initiative. Attendees agreed on the need to reevaluate beyond the boundaries of traditional agronomic practices and microeconomic challenges, considering policies at national and regional levels.

Roundtable discussions between participants highlight priorities and opportunities for the Excellence in Agronomy Initiative in east and southern Africa. (Credit: Enawgaw Shibeshi/CIMMYT)

Combining expertise from across CGIAR research centers, private sector actors and government agriculture departments, the Initiative takes a data-based approach to offer demand-driven solutions. This was of particular appeal to Eyasu Elias, deputy minister at Ethiopia’s Ministry of Agriculture, who described the approach as “truly commendable” in comparison to conventional supply-driven approaches.

Elias, who was represented by a delegate at the event, highlighted Ethiopia’s current three priorities: managing acid soils; managing Vertisols so they utilize their natural productive potentials; and adopting practices that mitigate the formation of salt-affected soils.

“Attaining food security will be a tremendous challenge under current conditions,” explained Elias’ representative. “More than ever, we need innovative agronomic solutions that enhance nutrient use efficiencies; we need solutions that can be crafted from locally available alternatives. Collaborations that allow co-creation, co-design and participatory technology generation along these lines are appreciated from our end.”

Michael Euler

Michael Euler is a CIM-integrated expert and joined CIMMYT in June 2021. As Agriculture and Resource Economist, he analyzes the diffusion and impacts of agricultural innovations on smallholder farms. One focus of his work includes the assessment of opportunities and challenges of the use of DNA fingerprinting for varietal adoption and impact studies.

Before joining CIMMYT, Michael was with the Food and Agriculture Organization of the United Nations (FAO), the German Institute for Development Evaluation and the Deutsche Gesellschaft für Internationale Zusammenarbeit (GIZ).

Michael holds a PhD in Agricultural Economics and a Master of Science in Agricultural Sciences from the university of Gottingen, Germany. Results of his research and evaluation work are published in peer-reviewed academic journals and evaluation reports.

CRAFT tool helps Ethiopian experts predict crop yields to improve early warning decisions

Ethiopian wheat farmers will soon benefit from the CRAFT tool.
(Credit: Bioversity)

The negative impacts of climate shocks have undermined the food security of millions of people in Ethiopia, where predominantly rain-fed agriculture and cereals comprise 82% of the crop area and are particularly susceptible to extreme climate events like drought or flooding. Predictions that can account for potential climate events can facilitate efforts of governmental agencies to proactively engage in climate mitigation efforts.

Led by the International Center for Maize and Wheat Improvement (CIMMYT), the Accelerating Impact of CGIAR Climate Research for Africa (AICCRA) project conducted a five-day training workshop in Adama, Ethiopia for 12 data experts from 23-27 December 2021 on the CCAFS Regional Agricultural Forecasting Toolbox (CRAFT) Tool.

The five-day training workshop exposed select national experts involved in data collection and analysis of crop performance to the CRAFT tool, which is expected to improve accuracy, efficiency, and speed of forecasts.

The participants of the training were experts from the Ministry of Agriculture (MoA), National Meteorology Agency (NMA), and Ethiopian Disaster Risk Management Commission (EDRMC).

CRAFT has been developed in collaboration with CIMMYT, the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT), and the University of Florida through the Capacitating African Smallholders with Climate Advisories and Insurance Development (CASCAID-II) program. CRAFT is a flexible and adaptable software platform, relying on a crop engine to run pre-installed crop models and on the Climate Predictability Tool (CPT) to utilize seasonal climate predictions to produce crop yield forecasts. The tool has been calibrated, evaluated, and tested under Ethiopian ecological conditions.

In the opening of the training workshop, Esayas Lemma, Director of the Crop Development Directorate at the MoA, emphasized institutions must be equipped with the necessary analytical and decision support tools to enable decision makers to make critical decisions at the right time due to increasing challenges to food security. He added the training organized by CIMMYT through the AICCRA-Ethiopia project was timely and important for enhancing the capacity of the experts drawn from the three institutions and building national capacity in using modern decision support tools.

Kindie Tesfaye, senior scientist at CIMMYT, stated the training was organized to help experts in national institutions in applying decision support tools to equip decision makers with information to help them minimize costs, save lives, and enhance long-term climate risk management and policy options in Ethiopia. “We hope to bring this technology to other countries following this roll-out in Ethiopia,” Tesfaye said.

“The training is an eye-opener for me, and this is the type of tool that we have been looking for,” said Mss. Berktawit, a trainee from EDRMC.

“The CRAFT tool has several applications in the MoA, and we are lucky to have this training. With some additional training, we at the ministry should be able to use it to support our crop monitoring and early warning works,” said Mr. Zewdu, a trainee from the MoA.

A follow up training session will be organized to certify participants as they continue working with CRAFT. “Feedback from these users will be vital to optimize inputs for CRAFT and to develop an intuitive user interface,” Tesfaye said.

In Ethiopia, local challenges inform national action for climate-smart agriculture

A recent workshop in Ethiopia brought together researchers from the Ethiopia Institute of Agricultural Research (EIAR) and the Ministry of Agriculture, the Regional Bureau of Agriculture, alongside partners from regional agricultural research institutes, Universities, and CGIAR centers. (Credit: CGIAR)

In some of Ethiopia’s most vulnerable communities, climate change is having a disastrous effect on agriculture, a critical sector to the livelihood of millions. Droughts, floods, pests, and disease outbreaks are key challenges farmers face in the age of the climate crisis. These climate-related threats have already contributed to reducing agricultural productivity and food insecurity.

In order to minimize agricultural risks from the above challenges and maximize farmers’ resilience, there is a critical need to introduce the technologies, innovations, and practices that underpin ‘climate-smart agriculture. For instance, cascading knowledge on agricultural risk management and promoting conservation agriculture may prove to be sustainable practices that address the limiting factors of food security. This, however, cannot be done in a ‘one-size-fits-all’ approach. In Ethiopia, we’ve seen how climate-smart agriculture (CSA) not only needs to be localized – so it is effective in different environments – it also needs to be inclusive, meeting the needs of women and youth in various communities.

CSA is critical to making Ethiopian farmers and their communities more resilient in the face of climate change. Awareness-raising campaigns and consultations fit an important role in engaging scientists, practitioners, and beneficiaries to understand and implement area-specific climate adaptation mechanisms through CSA-based input. A current challenge is that climate-smart interventions in Ethiopia are limited because of a lack of awareness of the necessary skill set to implement and manage those technologies properly. After all, it is wise to remember that CSA is a knowledge-intensive exercise. For instance, let us look at the Ethiopian highlands, which constitute a substantial amount of the country’s farming population. In the extreme highlands of Ethiopia – generally dubbed as Wurch or mountain zone above 3800m elevation above sea level – CSA implementation is even scarce due to climatic and socio-economic conditions. In fact, those parts of the highlands are often referred to as the “forgotten agroecology” and agricultural research institutions – both in Ethiopia and beyond – must develop and package climate-smart interventions tailored for regions that have these agroecological characteristics.

Despite some practical challenges, it is also wise to note that there are successful cases of CSA implementation and addition across the various parts of the country. This is recognized for the literature review to document CSA experiences in the country and develop a detailed ‘CSA compendium’. These experiences can promote public engagement informed and inspired by the practical experience of climate-smart interventions, both from sites that have similar agroecological characteristics – as well as different – so that farmers and communities can learn from the successes and failures of other ventures. This public engagement should be underpinned by business and financing models that work for resource-poor farmers, so they can access or invest in making their agriculture more climate-smart.

Knowing what works where will be essential to develop strategies that can facilitate targeting and scaling CSA approaches. Developing a CSA compendium, a collection of concise but detailed information on CSA practices can be an entry point to achieve this – which also requires efforts from various experts and collaboration among institutions in the country and beyond.

In line with this understanding, a recent workshop in Ethiopia brought together researchers from the Ethiopia Institute of Agricultural Research (EIAR) and the Ministry of Agriculture, the Regional Bureau of Agriculture, alongside partners from regional agricultural research institutes, Universities, and CGIAR centers.

It aimed to raise awareness among partners on the kinds of climate-smart packages of agricultural technologies and practices that are socially inclusive and responsive to the needs of young people while also being feasible from a socio-economic standpoint and ready to be expanded and delivered on a bigger scale. Key presentations were made about what CSA is and what it is not. In addition, the type and description of indicators used to identify CSA practices that are economically feasible, socially acceptable, and gender-responsive were discussed in-depth. As part of this exercise, experts identified more than 20 potential climate-smart agriculture interventions tested, validated, and implemented effectively in different parts of the country.

Some of the key presentations and discussions at the workshop revealed critical lessons for implementing CSA:

  • Climate-smart agriculture is not a set of practices that can be universally applied but rather an approach that involves different elements embedded in local contexts.
  • Climate-smart agriculture relates to actions both on farms and beyond the farm, incorporating technologies, policies, institutions, and investment.”
  • Climate-smart agriculture is also a continuous process, though we should focus on the big picture and avoid trivial debates about whether CSA is a practice, technology, or an option.
  • Due consideration should be given to gender sensitiveness and social inclusiveness as a criterion in identifying compelling innovations.
  • Better indicators should be developed in measuring how climate-smart agriculture is adopted.

The workshop was the first of a series planned to raise awareness of different approaches to climate-smart agriculture while aligning Ethiopian institutions behind common understandings of how climate-smart agriculture can be delivered at both a local and national level.

In closing this first workshop, Ermias Abate, Deputy Director-General of the Amhara Region Agricultural Research Institute, stated, “Agriculture wouldn’t move an inch forward if we continued with business as usual and hence the need to be smart to face the new realities of agriculture under climate change.”

The Accelerating Impacts of CGIAR Climate Research in Africa (AICCRA) workshop was held between December 24 and 25, 2021, in Bahir Dar, Ethiopia, and was organized jointly by:

  • The Alliance of Bioversity International and the International Center for Tropical Agriculture (CIAT)
  • CGIAR Program on Climate Change Agriculture and Food Security (CCAFS)
  • International Maize and Wheat Improvement Center (CIMMYT)
  • International Center for Agricultural Research in the Dry Areas (ICARDA) and
  • International Livestock Research Institute (ILRI)

More than machines

Cooperative farmers receive training on operation of a mobile seed cleaner in Oromia, Ethiopia. (Credit: Dessalegn Molla/GIZ)

It’s a familiar problem in international agricultural development – a project with external funding and support has achieved impressive early results, but the money is running out, the time is growing short, and there’s not a clear plan in place to continue and extend the program’s success.

Over the past seven years, the German development agency Deutsche Gesellschaft für Internationale Zusammenarbeit (GIZ) established Green Innovation Centers in 13 countries in Africa and two in Asia, partnering with the International Maize and Wheat Improvement Center (CIMMYT) to support projects that introduce mechanization in a way that improves long-term food security and prompts economic growth. Now, as the project enters its final two years of funding, GIZ and CIMMYT are focused on ensuring the gains produced by the Green Innovation Centers are not lost.

Like any complex challenge, there’s not just one solution to the sustainability problem – but CIMMYT is working to address a massive question around why pilots fail in agricultural development by implementing a systematic approach to scalability that recognizes the critical importance of context and puts projects on a sustainable path before the money is gone.

Training the trainers

As the Green Innovation Centers enter a crucial, final stage, a CIMMYT-led team recently completed training for seven GIZ staff from Ivory Coast, Togo, Ethiopia, and Zambia, who are now certified to facilitate CIMMYT’s Scaling Scan tool and train others to put agricultural innovations in their home countries on a solid path for growth. The training team included CIMMYT scaling advisor Lennart Woltering, CIMMYT mechanization support specialist Leon Jamann, and students from Germany’s University of Hohenheim and Weihenstephan-Triesdorf University.

The Scaling Scan is a practical tool that helps users set a defined growth ambition, analyze their readiness to scale using ten core ingredients, and identify specific areas that need attention in order to reach the scaling ambition.

The GIZ staff learned to use the Scaling Scan by applying it to early stage innovations in their home countries, ranging from commercial fodder production in the Southern Province of Zambia to seed value chains in the Oromia and Amhara regions of Ethiopia.

Mohammed, a farmer in Amhara, Ethiopia, with a fistful of wheat on his farm. (Credit: Mulugeta Gebrekidan/GIZ)

What will scale up in Ethiopia?

In Ethiopia, smallholding farmers producing legumes, wheat and maize struggle to increase their yield to a level that can improve food security, generate higher incomes for producers and their families, and promote economic growth and jobs in agricultural communities. To help smallholders develop sustainable solutions, GIZ senior advisor Molla Dessalegn worked with his Green Innovation Center team to brainstorm and launch a range of 20 proposed innovations – from risk mitigation and new contract structures to introduction of new technology – all with the aim of improving agricultural yields.

To date, these innovations have introduced over 200,000 Ethiopian smallholders to new knowledge and practices to improve their output. But with the project exit bearing down, Molla and his team were eager to identify which innovations held the most promise for survival and growth beyond the endpoint. So they put their pilot projects to the test using the Scaling Scan.

The scan involves an intensive, day-long seminar originally designed for in-person delivery, but remote versions have also proved successful as COVID limited global travel. The scan focuses on thorough analysis and scoring of the current state of a pilot project and its potential for growth given the realities of conditions on the ground.

Facilitators lead project managers through evaluation of the ten ingredients required for successful scaling, from finance and collaboration to technology, know-how, and public sector governance. The outcome is a clear data set assessing the scalability of the pilot and directing attention to specific areas where improvement is needed before a project can expect serious growth.

An unexpected outcome

What emerged from the scan surprised Molla. Some of the strategies he saw as most successful in the early stages, such as a contract farming program, scored poorly, whereas the scan identified deployment of mobile seed cleaners as a solution that held particular promise for scalability. These outcomes prompted the team to refocus efforts on this strategy.

About 95 percent of Ethiopian smallholders rely on informal seed systems, either saving and reusing seed or exchanging low quality seed with other farmers. Seed cleaning plays a critical role in helping farmers build a high quality, high yield seed development system. Molla and his team had already worked with smallholder cooperatives in Oromia to distribute three mobile seed cleaners, and they knew these machines were being heavily relied upon by farmers in this region.

The Scaling Scan showed them, among other things, that the successful adoption of the seed cleaners had even more potential – it was an innovation that could be sustained and even expanded by local stakeholders, including the Ministry of Agriculture.

This result prompted Molla to recommend investment in additional mobile seed cleaners – four to serve cooperatives in the Amhara region and a fifth for the West Arsi district in Oromia. These machines are now in operation and helping additional smallholders improve the quality of their seed stock. This initial expansion confirms the Scaling Scan results – and CIMMYT plans to continue supporting this growth with the purchase of another round of seed cleaners.

The Scaling Scan also identified problems with the business model for sustaining the mobile seed cleaners through cooperatives in Ethiopia, and this outcome directed the Green Innovation Centers to partner with a consultant to develop improvements in this area. In this way, one of the most important values of the scan is its ability to guide decision-making.

Scaling up the future

Seed cleaners alone won’t solve every yield problem for Ethiopian farmers, but the scan has now guided the initial implementation – and contextual adaptation – of a new form of agricultural mechanization across two regions of the country, with the promise of more to come.

And there’s more to come from the Scaling Scan as well.

Now that he’s received certification as a trainer, Molla plans to help farmers, officials, and other development workers adopt this rigorous approach to evaluating innovations that show potential. When funding for his project ends in 2024, he will be leaving 300,000 smallholders in Ethiopia with more than machines – he will be leaving them with the knowledge, experience, and practices to make the most of the technological solutions that are improving their yields today and building a more secure future for their communities.

Pilot of new wheat variety improves yield for farmers in Ethiopia

“I am happy with this wheat variety and all the support from the project,” said Agere Worku, a female farmer in Ethiopia working with the International Maize and Wheat Improvement Center (CIMMYT). “It is a lot of money that I will earn as a female farmer in my life.”

Worku is just one farmer taking part in a pilot intervention as part of CIMMYT’s Adaptation, Demonstration, and Piloting of Wheat Technologies for Irrigated Lowlands of Ethiopia (ADAPT-Wheat) project. Four female and four male farmers were chosen to take part from the Melke Yegna Tesfa Association, a membership group of 83 smallholder farmers, nearly half of which are female.

Participants were given Kingbird seeds, a new wheat variety, to plant in their smallholdings. The project then supported them through capacity building and advice on smart soil, water management, plant protection and agronomic packages.

“We prepared six hectares of land and sowed 1.1 tons of Kingbird seed,” said Yeshiwas Worku, chair of the Melke Yegna Tefsa Association. “There were other wheat varieties, such as Danda’a, adjacent to our experimental plot and the difference in yields was very visible. The other members of the association were eager to get Kingbird seeds, which are very different in terms of quality, yields, maturity, and disease tolerance.”

“CIMMYT is a life changer for me,” said Buzayehu Getahun, a farmer in Jeju, in the Oromia region. “I produced 3.7 tons on 0.75 hectares. Interestingly, I earned around 132,000 Ethiopian Birr (US$2,500) from this yield. I plan to build a new house for my mother in my village and will be blessed by her at her old age,” said Getahun.

Female smallholder farmer with a bag of Kingbird seed, which she will use as part of a CIMMYT project pilot. (Credit: Enawgaw Shibeshi/CIMMYT)

The impact on female farmers

After involvement in the pilot, the female farmers produced higher yields than they had experienced before.

“I used to harvest wheat three times in the previous years and earned only 0.66 tons of wheat per 0.75 hectare using seeds of other wheat varieties,” explained Worku. “But now thanks to support from CIMMYT, the yield has increased four times than the previous years; I produced 2.4 tons per 0.75 hectares. I am very happy with the high yield and feel encouraged to reinvest in other agricultural activities.”

A second female farmer, Melishew Tedela, said, “I am happy with this seed and all the support from the project. I can be witness that the other farmers who didn’t get this variety were not happy with their low yields of wheat.”

Female farmers in Ethiopia share their experiences of cultivating Kingbird wheat crops. (Credit: Enawgaw Shibeshi/CIMMYT)

The future of lowland wheat farming

Bekele Geleta Abeyo, wheat breeder and Ethiopia Country Representative at CIMMYT, said, “The Government of Ethiopia is emphasizing increasing irrigated wheat production and productivity in the lowlands to complement the intensification of rainfed wheat production in the highlands in order to achieve self-sufficiency by 2023 and feed the ever-growing population.”

With world wheat prices skyrocketing due to the Ukraine conflict, wheat technology generation and dissemination are key for sustainable agricultural practices.

CIMMYT is working to replace obsolete wheat varieties in Ethiopia that are susceptible to wheat rust, particularly yellow and stem rust, with disease-resistant products. Newer varieties like Kingbird are rust-resistant and therefore produce higher yields.

Farmer in his field of Kingbird wheat in Ethiopia. (Credit: Enawgaw Shibeshi/CIMMYT)

Addressing the Global Food Crisis: CIMMYT Experts Weigh In

The confluence of climate change, COVID-19, and the war in Ukraine have placed enormous stress on food systems across the globe. Food insecurity spiked in 2020 and has stayed high, and the number of undernourished people is on the rise.

As we respond to this emergency, there is an opportunity—and a need—to strengthen the kind of strategic investments that will make our agrifood systems resilient to tomorrow’s shocks. “We cannot be running crisis to crisis,” says Bram Govaerts, Director General of the International Maize and Wheat Improvement Center, or CIMMYT, in this week’s New Security Broadcast. “We need to look at the underlying elements that are provoking these ripple effects.”

On the episode, ECSP Director Lauren Risi and ECSP Advisor Sharon Burke speak with Govaerts and his colleague Kai Sonder, head of CIMMYT’s Geographic Information System Unit, about how to address the unfolding food crisis as we simultaneously build food system resilience in the medium and long term. Drawing from their newly-published article in Nature Food, Govaerts and Sonder share approaches that governments, civil society, and private actors can take to tackle today’s wheat supply disruptions and food insecurity. They also share past success stories and lay out key challenges moving forward.

Beyond the immediate humanitarian aid needed to boost food security, Govaerts identifies intensified wheat production and greater investments in local cereals as essential short-term priorities. Medium-term investments should focus on agricultural production that is agroecologically suitable, policies that support the adoption of improved crop varieties, and data analysis to target the vulnerabilities of smallholder farmers. And with long term goals in mind, Govaerts says that we need to ask “how can we enhance our ecosystem diversity, resolve the gender disparity [in the agricultural sector] and invest in agrifood transformation from efficiency to resilience?”

Both experts emphasize that these approaches aren’t meant to be taken incrementally. “We’re really saying we need to start today, taking actions with an impact on the short, medium, and long term. It would be a mistake to only focus on the short-term actions that need to be taken,” says Govaerts.

Sonder acknowledges that transforming agricultural systems takes time—and isn’t easy. “You need to invest in breeding systems. You need to build capacity and identify areas where that is easily possible,” he explains. “Bringing out a new variety of wheat or maize or other crop takes up to ten years.”

Introducing new farming technologies can also come with challenges, since it requires making sure those technologies can actually be maintained. “You have to ensure that there are mechanics who can fix [them] quickly, that there’s a supply chain for spare parts,” observes Sonder. And securing sustained large-scale investment for research or program activities can prove difficult, as was the case for a study CIMMYT did on the potential for wheat in Africa. “The ministers were very interested,” Sonder says. “But other crisis come along, and then the funds go somewhere else.”

Despite the hurdles, there are plenty of examples of agrifood interventions with positive impact. For instance, one of CIMMYT’s current areas of work is in developing risk assessment and disease warning systems to allow people to act quickly before a crisis occurs. Sonder describes how his colleagues in Ethiopia had a recent success in identifying a risk of rust epidemic in collaboration with the government and stakeholders on the ground by using weather models.  The joint effort allowed the government “to procure and to spread fungicides and to be prepared for that crisis,” he says.

Addressing the challenges that underlie world hunger will take both this kind of strategic medium-term action as well as longer-term transformations—Even as we respond to the current hunger crisis with much-needed short-term efforts, we can also be reshaping our global agricultural systems for a more biodiverse, equitable, and resilient future.

This piece by , was originally posted on New Security Beat

Can digital agricultural services boost Ethiopia’s durum wheat production?

Participants gather to discuss solutions to low levels of durum wheat cultivation in Ethiopia. (Credit: Enawgaw Shibeshi/CIMMYT)

Despite an increase in the total area used for growing wheat in Ethiopia, the share of durum wheat, the wheat used for pasta, has decreased substantially across the country. Smallholder farmers grow durum wheat on marginal lands for their own use but are not benefitting financially from cultivating the crop.

To understand factors contributing to low area coverage of durum wheat and identify opportunities for reinvigoration and improved marketing, the International Maize and Wheat Improvement Center (CIMMYT) hosted a workshop for stakeholders from the entire durum wheat value chain.

“New breeding technologies have great promise for expanding the area of durum wheat production,” said Moti Jaleta, agricultural economist at CIMMYT, “but this achievement remains primarily dependent on the market’s ability to purchase grains at a higher price to stimulate farmer adoption. The market in Ethiopia is not favoring durum wheat, so suppliers and extension workers must promote it very well.”

Rising consumption of durum wheat products such as pasta and macaroni is causing higher dependency on wheat imports. Reducing this reliance requires addressing the challenges facing Ethiopia’s durum wheat farmers in variety development and release, seed supply, crop management, level of productivity, market opportunities, and extension systems.

Kindie Tesfaye, scientist and crop modeler at CIMMYT, explained, “There is a need to improve the durum wheat seed system and extension service, enhance the development of new varieties with desired grain quality and create market linkages to meet the increasing durum wheat demand from the rapidly growing urban population and expanding agro-industrial parks.”

The potential of digital

As Ethiopia’s agricultural systems are highly dependent on rainfall, digital interventions can serve as key decision support tools to manage climate risk and bolster the adaptive capacity and productivity of smallholder farmers. CIMMYT collaborates with value chain-based digital agro-advisory services through the Digital Agricultural Advisory Services (DAAS) project, which runs multiple projects in Ethiopia to advance the use of digital tools in farming.

Taye Tadesse, director of crop research at the Ethiopian Institute of Agricultural Research, emphasized that the introduction of production technology should be participatory and customer-oriented to achieve the intended outcomes. Ensuring that technology is accessible is vital for strengthening the value chain system, he said.

Agreed actions from the workshop included focusing attention on the bodies responsible for the expansion of infrastructure and raising wheat farmers’ awareness of the value-adding tools available to them through training.

“We must ensure that farmers are the biggest decision-makers,” Tasfaye said.

Novel technology to reduce the complexity of maize seed production and increase maize hybrid yields in farmer’s fields

A recently published study in Nature Communications Biology journal demonstrates the potential of a novel seed production technology to transform Africa’s seed production system, conferring important benefits to smallholder maize farmers and seed companies in sub-Saharan Africa.

The Seed Production Technology for Africa (SPTA) process enables production of non-pollen-producing inbred seed that can be used in a two-step multiplication process to produce commercial seed of hybrid varieties containing equal parts pollen producing and non-pollen producing plants.  The pollen producing plants provide pollen for the entire field, while the non-pollen producing plants deliver additional grain since they save energy by not producing pollen. Hybrids in which fifty percent of the plants are non-pollen producing have a significant grain yield advantage compared with hybrids in which all plants produce pollen.

Farmers and researchers evaluated the performance of fifty percent non-pollen producing (FNP) hybrids  in side-by-side comparisons across diverse farm sites in Kenya, South Africa, and Zimbabwe between 2016 and 2019. The results demonstrate that FNP hybrids deliver an average yield increase of 200 kg per hectare, representing a 10-20% increase at current sub-Saharan Africa yield levels where farmers face frequent drought and sub-optimal soil fertility. The FNP yield advantage was consistent in both low yielding and higher yielding conditions.  Additionally, in extensive farmer surveys, farmers rated the FNP hybrids higher than the pollen producing counterparts, recognizing the grain yield advantage. Favorable rating of FNP hybrids suggests that farmers are likely to adopt them once available.

Although consistent and steady improvement is being made for grain yield potential through plant breeding, the yield benefit of FNP hybrids is the equivalent of approximately six years of breeding progress under stressful conditions.  The FNP trait provided a consistent yield advantage in several genetically unique hybrids evaluated, indicating that the yield advantage from FNP will be complementary to and additive with progress from maize breeding efforts.

In sub-Saharan Africa, the challenge of delivering genetically pure, high-quality seed is substantial. Seed companies in the region contend with a complex and costly system to produce commercial seed. In addition to delivering higher grain yield to farmers through the FNP trait, the SPTA process will reduce the complexity of seed production, enabling seed producers to deliver higher purity improved hybrid seeds in sufficient quantities for smallholder farmers.

Hybrid seed production requires that one of the parents of the hybrid is prevented from producing pollen, ensuring that the seed harvested has been cross-fertilized by the pollen parent. Most hybrid seed production in sub-Saharan Africa involves physical removal of the tassels of the seed parent prior to the release of pollen, a process known as detasseling. Detasseling is important in commercial seed production to prevent self-fertilization of the seed parent plants. Nearly all detasseling in sub-Saharan Africa is done by hand, which is a labor-intensive and time-sensitive process. Poorly executed or ill-timed detasseling results in unwanted self-fertilization of the seed parent, leading to rejection of seed and incurring losses to the seed producer. Furthermore, timely detasseling typically involves removal of one or more leaves together with the tassel, reducing the photosynthetic capacity of the plant, and lowering the seed yield.

Use of the SPTA process ensures that the seed parent of the hybrid will not produce pollen, thereby eliminating the need for detasseling. This means seed producers can ensure higher integrity of hybrid seed while reducing costs and increasing seed yield. The technology is well suited for the three-way hybrid production commonly used in sub-Saharan Africa. Economic advantages to seed companies of using seed from the SPTA process is also expected to provide incentive to replace older, lower yielding varieties with more recently developed hybrids. Providing improved quality seed of better hybrids while delivering the yield advantage of the FNP trait can benefit smallholder maize farmers throughout the region. Saving costs can help the seed sector remain strong and competitive, which leads to increasingly better options for farmers in the future.

Read the full study: Incorporating male sterility increases hybrid maize yield in low input African farming systems

The research was conducted by scientists from the Seed Production Technology for Africa project, a collaborative initiative of the Agricultural Research Council of South Africa (ARC), International Maize and Wheat Improvement Center (CIMMYT), CortevaTM Agriscience, Kenya Agricultural and Livestock Research Organization (KALRO), and QualiBasic Seed Company (QBS).

Cover photo: A woman with a baby on her back evaluating maize plants farmer’s plots hosting FNP trials in Embu, Kenya. Photo: Hugo DeGroote/CIMMYT

Institutionalizing Monitoring of Crop Variety Adoption using Genotyping (IMAGE)

Institutionalizing Monitoring of Crop Variety Adoption using Genotyping (IMAGE) is a five-year program with the aim of establishing, institutionalizing, and scaling routine monitoring of improved variety adoption and turnover using genotyping.

It is led by country teams in Ethiopia, Nigeria and Tanzania, supported by Context Global Development and the Bill & Melinda Gates Foundation.

Reliable monitoring: IMAGE will assess the varieties that farmers are growing of four staple crops within the three target countries and marking the rate of improved variety adoption through recurring surveys and comparative analysis.

Vision for change: IMAGE supports inclusive agricultural transformation by providing insights and evidence for seed sector actors to enhance government agency capacity, improve stakeholder coordination, and lead to better resource allocation for varietal development and commercialization.

Project objectives:

  • Enable a national leadership mandate to monitor crop varieties and adoption
  • Build a network of technical experts and service providers to provide personalized advisory support
  • Establish best practices that enable routine monitoring and produce credible results
  • Form a sustainable funding mechanism based on use cases with government and stakeholder buy-in
  • Advocate for institutional capacity for reliable monitoring programs

IMAGE provides the opportunity to leverage past monitoring pilots and for cross-country learnings while advancing genetic reference libraries, establishing protocol adoption, and building towards institutionalization over five years. This is done through six objectives:

  • Comparable estimates of varietal adoption and turnover will be generated and made available to stakeholders​
  • Standardization of best-practices ​and supporting technologies​
  • Establishment of ​sustainable business cases
  • Pilot study results on varietal identity preservation in seed value chains for each country-crop combination ​
  • Institutionalized system of ​varietal monitoring for long-term, sustainable national partner implementation
  • Generated data used by seed sector stakeholders to make key decisions​

Exploring the potential for blended wheat flours in Kenya  

Over the years, wheat-based foods have increasingly been incorporated as part of Kenyan meals. One example is packaged bread, which has become a common feature on Kenyan breakfast tables with millions of loaves from industrial bakeries delivered to retail shops daily, countrywide. Another example is chapati — a round unleavened flat bread. Once reserved for special occasions, chapati can now be purchased from roadside venders throughout the capital Nairobi.

Millers and processors in Kenya are highly dependent on imported wheat to meet the strong demand for wheat-based food products. The conflict between Russia and Ukraine, two of the most important sources of imported wheat for Kenya, presents a major threat to millers and industrial bakeries.  Prices for bread and chapati are increasing and may continue to increase. Governments and wheat-related industries are looking at short- and long-term options to reduce utilization of imported wheat. One short-term option is the blending of wheat flour with flour derived from locally available crops, such as cassava, millet or sorghum.

Record-high price of wheat

A sign at a flour mill in East Africa shows proportions of wheat from different origins (Argentina, Russia, Ukraine and local) used in that particular day’s production. (Photo: Alison Bentley/CIMMYT)
A sign at a flour mill in East Africa shows proportions of wheat from different origins (Argentina, Russia, Ukraine and local) used in that particular day’s production. (Photo: Alison Bentley/CIMMYT)

A visit to local industrial bakeries and wheat flour millers on the outskirts of Nairobi by International Maize and Wheat Improvement Center (CIMMYT) researchers confirmed the effects of record-high global prices of wheat.  Global Wheat Program director Alison Bentley and senior economist Jason Donovan had conversations with leaders of industrial bakeries and millers, who gave insights into their grain demands, production processes and sales volumes.

One of the leaders of an established industrial bakery divulged that they use approximately 15,000 tons of wheat flour monthly to make baked products, with only 10% of the wheat obtained locally.

“In the last ten years, local wheat production has comprised about ten to fifteen percent of our cereal mixture for bread, and we were already paying higher prices to farmers compared to import prices. The farmers were already being paid about 30 to 40 dollars more per ton,” a manager of a large baking industry in Kenya explained to the CIMMYT team.

According to government regulations, millers and bakeries must purchase locally produced wheat at agreed prices before they can buy imported wheat. He agreed that though the quality of local wheat is good, the local production cannot compete with the higher volume of imported wheat or its lower price.

Growing wheat in East Africa

It has been more than four months since the Russia-Ukraine conflict unfolded, and since then prices of wheat-based products have been increasing significantly. The current crisis has sparked the debate on low levels of self-sufficiency in food production for many countries. And this is especially the case for wheat in Kenya, and more widely in Africa.

Bentley points out that the biophysical conditions to produce wheat in East Africa are present and favorable. However, more work is needed to strengthen local wheat production, starting with efficient seed systems. Farmers who are interested in growing wheat need access to high performing and stress-tolerant wheat varieties.

CIMMYT Global Wheat Program director, Alison Bentley, observes the bread making process at an industrial bakery on the outskirts of Nairobi, Kenya. (Photo: Susan Otieno/CIMMYT)
CIMMYT Global Wheat Program director, Alison Bentley, observes the bread making process at an industrial bakery on the outskirts of Nairobi, Kenya. (Photo: Susan Otieno/CIMMYT)

Practical response to the crisis

With no certainty as to how long the conflict will continue and climate change resulting in significant crop loss in key production zones, wheat shortages on international markets could become a reality. Blending of wheat flour with locally available crops could be an option as an immediate response to the current scarcity of wheat in East Africa. “Blending [flour] is when for instance five percent of wheat flour is replaced with flour from a different crop such as sorghum or cassava,” Bentley explained.

Donovan added that, though it might seem like a small number, it becomes significant in consideration to the volume of wheat that industries use to make different products, translating into thousands of metric tons. He noted that blending flour therefore has the potential to create a win-win situtation, because it can boost the demand for local crops and address uncertainty and price volatility on international wheat markets.

Consumer acceptance of new products

Different types of flour on supermarket shelves in Kenya. (Photo: Pieter Rutsaert/CIMMYT)
Different types of flour on supermarket shelves in Kenya. (Photo: Pieter Rutsaert/CIMMYT)

During a full week of engagements with universities, partners, and industry experts in Kenya, the CIMMYT team explored the current interest of the sector in blending wheat flour. Several partners agreed that this could be a potential way forward for the grain industry but all highlighted one key element: the importance of consumer acceptance. If the functionality of the flour or taste would be negatively influenced by blending wheat flour, it would represent a no-go from the industry, even if blends would have higher nutritional benefits or lower prices. “This reinforces the need to understand consumer preferences and evaluate both the functionality of the flour to produce essential food products such as chapati or bread as well as the taste of those products,” Pieter Rutsaert explained.

CIMMYT researchers Sarah Kariuki and Pieter Rutsaert, both Markets and Value Chain Specialists, and Maria Itria Ibba, Head of the Wheat Quality Lab, are therefore engaging with local millers and universities in Kenya to design bread and chapati products derived from different wheat blends, to include blends comprised of 5%, 15% and 20% of cassava or sorghum. Lab testing and preliminary consumer testing will be used to identify the most promising products. These products will be taken to the streets in urban and peri-urban Nairobi to assess consumer tastes and preferences, through sensory analysis and at-home testing.

The market intelligence gained will offer foundational support for CGIAR’s Seed Equal Initiative to accelerate the growth of a demand-driven seed system. By gathering and analyzing consumer preferences on selected crops for blending, such as from farmers and milling industries, Donovan pointed out that CGIAR breeding will continue to make informed choices and prioritize breeding for specific crops, that seek to address specific challenges, therefore having greater impact.

Donovan noted that data and information from the studies will provide much needed evidence and fill information gaps that will support governments, millers, processors and farmers to make decisions in response to the evolving wheat crisis.

Ecological farming a boon for staple crop farmers in Africa, new study finds

Elufe Chipande (left), a farmer at Songani in Zomba District, Malawi, is rotating maize (background) and pigeonpea (foreground) under conservation agriculture practices to improve soil fertility and capture and retain more water. Christian Thierfelder (center), a cropping systems agronomist working out of the Zimbabwe office of CIMMYT, advises and supports southern African farmers and researchers to refine and spread diverse yield-enhancing, resource-conserving crop management practices. Photo: Mphatso Gama/CIMMYTSRUC

An international team of scientists has found that eco-friendly practices such as growing a range of crops, including legumes such as beans or pigeonpea, and adding plant residues or manure to soils can raise food crop yields in places such as rural Africa, where small-scale farmers cannot apply much nitrogen fertilizer.

Published in the science journal Nature Sustainability and examining data from 30 long-running field experiments involving staple crops (wheat, maize, oats, barley, sugar beet, or potato) in Europe and Africa, this major study is the first to compare farm practices that work with nature to increase yields and explore how they interact with fertilizer use and tillage.

“Agriculture is a leading cause of global environmental change but is also very vulnerable to that change,” said Chloe MacLaren, a plant ecologist at Rothamsted Research, UK, and lead author of the paper. “Using cutting-edge statistical methods to distill robust conclusions from divergent field experiment data, we found combinations of farming methods that boost harvests while reducing synthetic fertilizer overuse and other environmentally damaging practices.”

Recognizing that humanity must intensify production on current arable land to feed its rising numbers, the paper advances the concept of “ecological intensification,” meaning farming methods that enhance ecosystem services and complement or substitute for human-made inputs, like chemical fertilizer, to maintain or increase yields.

Boosting crop yields and food security for far-flung smallholders

The dataset included results from six long-term field experiments in southern Africa led by the International Maize and Wheat Improvement Center (CIMMYT). Africa’s farming systems receive on average only 17 kilograms of fertilizer per hectare, compared to more than 180 kilograms per hectare in Europe or close to 600 in China, according to Christian Thierfelder, a CIMMYT cropping systems agronomist and study co-author.

“In places where farmers’ access to fertilizer is limited, such as sub-Saharan Africa or the Central American Highlands, ecological intensification can complement scarce fertilizer resources to increase crop yields, boosting households’ incomes and food security,” Thierfelder explained. “We believe these practices act to increase the supply of nitrogen to crops, which explains their value in low-input agriculture.”

The CIMMYT long-term experiments were carried out under “climate-smart” conservation agriculture practices, which include reduced or no tillage, keeping some crop residues on the soil, and (again) growing a range of crops.

“These maize-based cropping systems showed considerable resilience against climate effects that increasingly threaten smallholders in the Global South,” Thierfelder added.

Benefits beyond yield

Besides boosting crop yields, ecological intensification can cut the environmental and economic costs of productive farming, according to MacLaren.

“Diversifying cropping with legumes can increase profits and decrease nitrogen pollution by reducing the fertilizer requirements of an entire crop rotation, while providing additional high-value food, such as beans,” MacLaren explained. “Crop diversity can also confer resilience to weather variability, increase biodiversity, and suppress weeds, crop pests and pathogens; it’s essential, if farmers are to improve maize production in places like Africa.”

Thierfelder cautioned that widespread adoption of ecological intensification will require strong support from policymakers and society, including establishing functional markets for legume seed and for marketing farmers’ produce, among other policy improvements.

“Dire and worsening global challenges — climate change, soil degradation and fertility declines, and scarcening fresh water — threaten the very survival of humanity,” said Thierfelder. “It is of utmost importance to renovate farming systems and bring us back into a safe operating space.”

Click here to read the paper, Long-term evidence for ecological intensification as a pathway to sustainable agriculture.

For more information or interviews:

Rodrigo Ordoñez, Communications Manager

Email: r.ordonez@cgiar.org

Tel: +52 55 5804 2004, ext. 1167