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Tag: Breaking Ground

Breaking Ground: Fatima Camarillo invests in education

It was clear to Fatima Camarillo Castillo from a young age that her future was in agriculture. She grew up on a farm in a small village in Zacatecas, Mexico, and recalls working in the fields alongside her father and siblings, helping with the harvests and milking the cows. And every year, her family ran into the same issue with their crops: droughts.

“Sometimes the harvest was okay, but sometimes we didn’t have any harvest at all,” says Camarillo. “For us that meant that, if we didn’t have enough harvest, then for the whole year my mother and father struggled to send us to school.”

But they did send her to school, and instead of escaping the persistent challenges that agriculture had presented her family in her young life, she was determined to solve them. “After elementary school we had to leave the farm to continue our education,” she explains. “I knew about all the challenges that small farmers face and I wanted to have an impact on them.”

To this day, Camarillo believes in the power of education. Her schooling took her all the way to the International Maize and Wheat Improvement Center (CIMMYT), where she is now not only a researcher, but an educator herself. After her extensive study of plant breeding, genetics and wheat physiology, Camarillo gained a master’s degree from the University of Massachusetts, Amherst, and a PhD from Texas A+M University.

She was a part of CIMMYT’s fellowship program while pursuing her doctorate, and she joined the organization’s wheat breeding team shortly afterward. Camarillo now splits her time between wheat research and organizing the training activities for CIMMYT’s Global Wheat Program (GWP) wheat improvement course.

Fatima Camarillo analyzes durum wheat in the field at CIMMYT’s experimental research station in Ciudad Obregón, Mexico. (Photo: CIMMYT)

A special legacy

CIMMYT’s wheat improvement course is an internationally recognized program where scientists from national agricultural research programs (NARS) from around the world travel to CIMMYT Headquarters in Texcoco, Mexico, and then to Ciudad Obregón, for a 16-week training. Participants observe an entire breeding cycle and learn about the latest technologies and systems for breeding.

“A crucial component of having an impact on farmers is establishing good relationships with national programs, where all the germplasm that CIMMYT develops is going to go,” says Camarillo. “But at the same time, these partners need training. They need to know what is behind these varieties and the process for developing them, and we try to keep them updated with the vision, the current technologies and the breeding pipeline.”

The organization’s university-focused training programs are also special to Camarillo for many reasons, having participated in one of them herself. In fact, her first ever exposure to CIMMYT was through the annual Open Doors day which she attended during her first year of university, watching the breeders and scientists that would eventually become her colleagues give talks on germplasm development and distribution.

The courses also give students a chance to see all how their theoretical education can be applied in the real world. “When you are in graduate school you care a lot about data analysis and the most recent molecular tools,” says Camarillo. “But there is something else out there, the real problems outside. By taking the breeding program course you understand these challenges and situations.”

Camarillo remembers being struck by the thought that something that happens in a research station in Mexico can have an impact on the whole world. “CIMMYT cares about how other countries will adopt new varieties, it’s not just about developing germplasm for the sake of it,” she explains. “We’re interested in how new varieties are going to reach the farmers who need them, and for that, training is essential.”

“At the end of the day, these researchers are the ones who will help us evaluate germplasm. If they’re well trained, the efficiency of the whole process will increase.”

Fatima Camarillo (standing, third from the right) in Ciudad Obregón, Mexico, with participants on the GWP’s 2019 training program. (Photo: CIMMYT)

Keeping an eye on the breeding pipeline

With one foot in education and the other in research, Camarillo has a unique perspective on CIMMYT’s strategy for bringing tools and findings out of the lab, and towards the next step in the impact pathway. A key part of her work involves helping to research physiological traits by developing new tools to increase phenotyping efficiency in the breeding pipeline.

In particular, she is working on a project to develop high-throughput phenotyping tools, which use hyperspectral sensors and cameras to measure several traits in plants. This can help reflect how the plant is responding to different stresses internally, and helps physiologists and breeders understand how the plant behaves within a specific environment, and then quickly integrate these traits into the breeding process.

“Overall it increases the efficiency of selection, so farmers will have better materials, better germplasm, and more reliable yield across environments in a shorter period of time,” says Camarillo.   

Sharing the recipe for success

Camarillo’s role in both breeding and training speaks to CIMMYT’s historic and proven strategy of working with national programs to effectively deliver improved seeds to the farmers who need them. In addition to developing friendships with trainees from around the world, she is helping CIMMYT to expand its global network of research and agriculture professionals.

As a product and purveyor of a great agricultural education, Camarillo is dedicated to it passing on. “I think we have to invest in education,” she says. “It is the only path to solve the current problems we face, not only in agriculture, but in every single discipline.”

“If we don’t invest and take the time for education, our future is very uncertain.”

Breaking Ground: Dyutiman Choudhary builds strong agribusinesses for sustainable economic growth

Agricultural market systems play a pivotal role in food security, livelihood development and economic growth. However, the agricultural sector in Nepal is constrained by a lack of spatially-explicit technologies and practices related to improved seed and fertilizer. Embracing these challenges, Dyutiman Choudhary, a scientist in market development with the International Maize and Wheat Improvement Center (CIMMYT), works to strengthen the seed and fertilizer market systems and value chains, with the ultimate goal to ensure demand-driven, inclusive and market-oriented cereal production.

Nepal’s agricultural sector is dominated by smallholder farmers. As farming is mostly semi-commercial and subsistence in nature, many smallholder farmers are isolated from markets and lack knowledge about the latest farming technologies and inputs. They are unable to upgrade their farms to increase productivity for generating marketable surplus to make profitable income. Agribusiness entities in Nepal — such as seed companies, agrodealers and importers — face market development challenges and lack the commercial and business orientation to develop and deliver new technologies to farmers. Output market linkages are weak and loosely integrated, leading to poor coordination, weak information flow and lower return to actors.

This is where Choudhary’s expertise in agribusiness management fits in to make a difference.

Born and raised in Shillong, a hill station in northeastern India with a distinctive charm, he was enrolled as an engineering student. However, his interest took a sudden turn when he got drawn towards biological sciences and ultimately decided to leave the engineering course by stepping into agribusiness management. “I realized I was walking in the right direction as I was fascinated to learn about the livelihood benefits of agroforestry and the scope of agribusiness in fostering overall economic growth.”

He joined CIMMYT in 2017 as an expert in market development, but his roles and responsibilities transitioned to working as a Lead for the Nepal Seed and Fertilizer (NSAF) project within four months of his appointment. His role involves leading an interdisciplinary team of scientists, partners and experts to develop a synergistic market system. The NSAF team fosters public private partnerships, improves access to support services and strengthens inclusive value chains in a supportive policy environment.

Choudhary’s research focuses on assessing crops, seed and fertilizer value chains; developing commercial and inclusive upgrading strategies with businesses and stakeholders; assessing competitiveness of seed companies; lobbying for policies to foster the growth of seed and fertilizer business; and building pathways for public and private sector services to market actors and smallholder farmers.

Dyutiman Choudhary (seventh from left) with seed producers during a field visit. (Photo: Dipak Kafle)
Dyutiman Choudhary (seventh from left) with seed producers during a field visit. (Photo: Dipak Kafle)

A roadmap to innovative market systems

Choudhary introduced the vision of a market system approach and put together a strategic roadmap in collaboration with a team from CIMMYT researchers from the Global Maize program, the Sustainable Intensification program and the Socioeconomics program. The roadmap addressed the concerns of low crop productivity, poor private sector growth and a less supportive policy environment inhibiting agricultural innovations in Nepal.

“Seed and fertilizer market systems in Nepal are uncompetitive and lack influx of new knowledge and innovations that restricts agriculture growth,” Choudhary explained.

Having prior experience as a regional lead for high-value products and value chains for South Asia and an inclusive market-oriented development expert in Eastern and Southern Africa, Choudhary carries unique capabilities for putting together a winning team and working with diverse partners to bring about a change in farming practices and build a strong agribusiness sector in Nepal.

Under his leadership, Nepalese seed companies are implementing innovative and competitive marketing approaches to develop newly acquired hybrid varieties under their brands. The companies are upgrading to build business models that cater to the growth of seed business, meet market demands and offer innovative services to smallholder farmers to build a sustainable national market. Facilitating financing opportunities has enabled these enterprises to produce strategic business plans to leverage $2 million to finance seed business. Improved value chain coordination mechanisms are increasing demand of seed company’s products and enhancing smallholder farmers’ access to output markets.

There is a renewed interest and confidence beaming from the private sector to invest in fertilizer business due to improved knowledge, communication and collaborative methods. The government committed to support balanced soil fertility management and allocated $2.4 million in 2019 to initiate fertilizer blending in Nepal.

The landscape is changing, and policy makers are considering new ideas to strengthen the delivery of targets under the Government of Nepal’s National Seed Vision 2013-2025 and the Agriculture Development Strategy 2015-2035.

Dyutiman Choudhary (left) welcomes the Feed the Future team leader to the CIMMYT office in Nepal. (Photo: Bandana Pradhan/CIMMYT)
Dyutiman Choudhary (left) welcomes the Feed the Future team leader to the CIMMYT office in Nepal. (Photo: Bandana Pradhan/CIMMYT)
Dyutiman Choudhary shows a demonstration plot during a field visit with USAID and project partners in Nepal. (Photo: Darbin Joshi)
Dyutiman Choudhary shows a demonstration plot during a field visit with USAID and project partners in Nepal. (Photo: Darbin Joshi)
Dyutiman Choudhary (left) receives a token of appreciation at an International Seed Conference organized in Nepal. (Photo: Bandana Pradhan/CIMMYT)
Dyutiman Choudhary (left) receives a token of appreciation at an International Seed Conference organized in Nepal. (Photo: Bandana Pradhan/CIMMYT)

Competitiveness fosters productivity

The results of Choudhary’s work have the potential to transform Nepalese agriculture by unleashing new investments, changes in policies and practices, and innovative business management practices. “Despite a huge change in my TOR and the challenges to deliver impactful outcomes, I was able to successfully steer the project to produce exciting results that made the donor to declare it as their flagship project in Nepal,” he explained. “At the end of the day, reflecting upon the work achieved with my team and the stakeholders in co-creating solutions for complex issues brings me immense satisfaction.”

An amiable individual, he feels close to natural science and loves interacting with farmers. “I’ve always enjoyed traveling to biodiversity-rich locations, to understand local cultures and livelihood practices, so as to gauge the drivers of innovation and adaptation to change among diverse rural populations.”

“Keeping up the momentum, I want to continue to support growth in agribusiness management in less favorable regions, helping stakeholders in the farm-to-fork continuum to leverage the potential of innovations in research, development and delivery.”

Breaking Ground: Rahel Assefa thrives off witnessing impact

Ethiopia-born Rahel Assefa began her career as a software engineer in a children’s hospital in Washington DC, USA. Although she enjoyed this work for the first few years, she found that it was not as fulfilling as she had initially hoped.

Rahel slowly started shifting gears towards a new career, initially pursuing an MSc in Project Management. “I knew that I was meant to work in an area where I would have direct interaction and impact, so I really thrived in that environment,” she explains.

Her work was highly appreciated by senior managers and she quickly progressed in this new career path. “I was soon recruited to help build a project management office from scratch and that solidified my interest in the field.”

A return to Africa

Rahel remained in health care for the next few years, taking on roles in portfolio and business relationship management but ultimately, she knew her next step would be to return to Africa and work in a field that contributes to supporting people’s livelihoods. 

In 2015, Rahel learned of a job opening at the International Maize and Wheat Improvement Center (CIMMYT) which was suitable to her skillset and would also serve her desire of moving to Africa. She applied and joined the organization in February 2016, moving to Addis Ababa with her young family in tow. “We had always discussed returning to Africa, and preferably to Ethiopia, so this was a welcome move. But it was also a big leap into the unknown because both my husband and I had left Ethiopia during our formative years,” she says.

Rahel had also never worked in the agricultural sector before joining CIMMYT, so there was a steep learning curve to contend with, as well as the cultural shifts she had to make to adjust to her new work environment. “I remember spending my first few days on the job taking the time to just observe, listen actively and ask questions.” 

Rahel Assefa (center) meets colleagues at a CIMMYT event in Texcoco, Mexico. (Photo: Alfonso Cortés)
Rahel Assefa (center) meets colleagues at a CIMMYT event in Texcoco, Mexico. (Photo: Alfonso Cortés)

Witnessing impact first-hand

Rahel now works as a project manager and as the regional program manager for CIMMYT’s Sustainable Intensification Program in Africa. “Working at CIMMYT is interesting because I get to collaborate with such a diverse group of people, and we can see that our work has a direct impact on the day-to-day lives of farmers,” she says. “It’s always rewarding to see first-hand how the life of a farmer, woman or young person is transformed because of the work we do.”

“I also find working at CIMMYT’s Ethiopia office enjoyable simply because everyone gets along well,” she explains. Rahel particularly appreciates the Thursday morning coffee gatherings for staff hosted at the International Livestock Research Institute (ILRI) campus, and her frequent interactions with colleagues in Kenya and Zimbabwe, where she travels regularly. “I love having the opportunity to see the work colleagues do on the ground across Africa and I’m always in awe of their dedication to the work they do.”

When she’s not visiting projects in Nairobi or Harare, Rahel cherishes the time she spends with her family and young son, Adam, who seems to be developing a keen interest in agriculture himself. “He loves visiting ‘mommy’s office’ from time to time,” she explains, “and as a result he has recently even attempted to plant maize and wheat in our back garden.”

Rahel Assefa tests out farm machinery in Addis Ababa, Ethiopia. (Photo: Simret Yasabu/CIMMYT)
Rahel Assefa tests out farm machinery in Addis Ababa, Ethiopia. (Photo: Simret Yasabu/CIMMYT)

Breaking Ground: Andrea Gardeazábal transforms data into meaningful information

Andrea Gardeazábal has many titles — Monitor, Evaluation and Learning Manager, ICT for Agriculture — but the core of what she does is knowledge management. She merges monitoring, evaluation, accountability and learning (MEAL) with information communication technologies (ICT) to transform data into something meaningful.

A political scientist by training, Gardeazábal knows the power of data and statistics. As she began working on ICT-for-development projects in the field, she observed a lack of understanding of ICT and how the development sector could take advantage of these tools.

“I knew this was progressing very fast; that this was the future. Everyone was talking about ICT and the future with the internet of things, and social media was just getting started,” she said. So she asked herself, how could the development sector take advantage of these new technologies?

Gardeazábal was working on projects bringing computers to rural areas in Colombia, which did not have internet connection or electricity. The problem could not be solved simply with a machine. She wanted to understand how to use ICT for development in a meaningful way. This triggered an interest in MEAL, to understand how ICT benefits the development sector, or does not, and to reintegrate that information into project design and impact.

After working in ICT for civil participation, education and microfinance, she joined CIMMYT with the mission to understand ICT for agriculture. Now she merges ICT tools with MEAL, leading the design, development and operation of systems for data collection, data cleaning, data analysis and data visualization with the Integrated Development program’s projects in Colombia, Guatemala and Mexico.

Ensuring intended results

Monitoring, learning, accountability and evaluation is crucial to ensure CIMMYT delivers on its objectives. Monitoring means ensuring that operations in the field are happening as planned. Rather than waiting until the end of the project when the donor asks for a report, Gardeazábal’s team monitors operations in the field on a quarterly or yearly basis. The team, both in the field and at headquarters, uses this data to check that the project is achieving what was intended and make interventions or adjustments if necessary.

Evaluation looks at project results and evidence. The team collects evidence for every single data point that they have, and then evaluates that evidence for impact and results in the field. This data is not only related to yield increase, but includes sustainable production, capacity development, and adequate technology adaptation and adoption processes.

Accountability is transparency with funders, so that everyone involved in a project is accountable for the processes, decisions and impact. CIMMYT is able to show progress through a transparent relationship with funders.

Learning happens after the team collects information, produces results evaluations, and understands what was done well and where the process had to be redirected. This information can then inform design of new projects or project phases. “We use the data and analysis of each project to redesign or modify our plans for the next project or even what kinds of projects we want to conduct,” Gardeazábal said.

Andrea Gardeazábal merges ICT tools with monitoring, evaluation, accountability and learning to improve project design.
Andrea Gardeazábal merges ICT tools with monitoring, evaluation, accountability and learning to improve project design. (Photo: Francisco Alarcón/CIMMYT)

What ICT can offer

In the past, a MEAL team would collect data from a representative sample at the start of the project, then go back to the office and analyze that data. At the end of the project, the team would complete the same exercise, to see the difference from what they gathered at the beginning.

With ICT tools, researchers are able to gather and analyze robust data more quickly and can communicate efficiently with the beneficiaries of a project throughout its course. Artificial intelligence and machine learning algorithms can help in understanding large sets of data so that this information can strengthen and streamline the MEAL process and project impact.

“We don’t need to wait until the end of the project for the results in the field or to have a sense of what the farmers are saying and achieving. We have a lot of tools, from the ICT side, that help make monitoring and evaluation more efficient,” Gardeazábal explained.

An international award recognized some of these ICT tools earlier this year. Gardeazábal formed part of the winning team with members from the Alliance of Bioversity International and CIAT and the International Institute for Applied Systems Analysis (IIASA) working on groundbreaking data systems and tools that help over 150,000 farmers in Mexico.

The team tracked over 500 variables over different farming plots and analyzed them with geographic, weather and market data to help identify the best management practices for each plot. This information — including historic yield potential, local benchmarks, windows of opportunity, recommended agricultural practices and commodity price forecasting — is available to farmers through an app called AgroTutor (Android, iOS).

The importance of an enabling environment

However, Gardeazábal cautions against the idea that technology on its own is going to end poverty or increase food security.

“ICT is a vehicle for innovation in agriculture. Just having an app in the field is not enough to generate the change that we are actually looking for. You need an enabling environment, a network, engagement of the farmers and the buy-in of scientists to take advantage of ICT tools.”

From drones and satellite imagery to artificial intelligence, ICT tools can help CIMMYT carry out its mission by streamlining the data gathering and analytics processes.

However, this work is not done in isolation from the environment surrounding it. CIMMYT does not only work on increasing yields, but also manages resources and local networks in efficient ways. Teams must monitor data on air quality, water use and efficient information flows, analyze this data, and then return to the field with recommendations for the most sustainable production within integrated agri-food systems.

Breaking Ground: Isaiah Nyagumbo advances climate-smart technologies to improve smallholder farming systems

Most small farmers in sub-Saharan Africa rely on rain-fed agriculture to sufficiently feed their families. However, they are increasingly confronted with climate-induced challenges which hinder crop production and yields.

In recent years, evidence of variable rainfall patterns, higher temperatures, depleted soil quality and infestations of destructive pests like fall armyworm cause imbalances in the wider ecosystem and present a bleak outlook for farmers.

Addressing these diverse challenges requires a unique skill set that is found in the role of systems agronomist.

Isaiah Nyagumbo joined the International Maize and Wheat Improvement Center (CIMMYT) in 2010 as a Cropping Systems Agronomist. Working with the Sustainable Intensification program, Nyagumbo has committed his efforts to developing  conservation agriculture  technologies  for small farming systems.

“A unique characteristic of systems agronomists,” Nyagumbo explains, “is the need to holistically understand and address the diverse challenges faced by farming households, and their agro-ecological and socio-economic environment. They need to have a decent understanding of the facets that make technology development happen on the ground.”

“This understanding, combined with technical and agronomical skills, allows systems agronomists to innovate around increasing productivity, profitability and efficient farming practices, and to strengthen farmers’ capacity to adapt to evolving challenges, in particular those related to climate change and variability,” Nyagumbo says.

Isaiah Nyagumbo stands next to a field of maize and pigeon pea. Currently, Nyagumbo’s research seeks to better understand the resilience benefits of cereal-legume cropping systems and how different planting configurations can help to improve system productivity. (Photo: CIMMYT)
Isaiah Nyagumbo stands next to a field of maize and pigeon pea. Currently, Nyagumbo’s research seeks to better understand the resilience benefits of cereal-legume cropping systems and how different planting configurations can help to improve system productivity. (Photo: CIMMYT)

Gaining expert knowledge

Raised by parents who doubled as teachers and small-scale commercial farmers, Nyagumbo was exposed to the realities of producing crops for food and income while assisting with farming activities at his rural home in Dowa, Rusape, northeastern Zimbabwe. This experience shaped his decision to study for a bachelor’s degree in agriculture specializing in soil science at the University of Zimbabwe and later a master’s degree in soil and water engineering at Silsoe College, Cranfield University, United Kingdom.

Between 1989 and 1994, Nyagumbo worked with public and private sector companies in Zimbabwe researching how to develop conservation tillage systems in the smallholder farming sector, which at the time focused on reducing soil erosion-induced land degradation.

Through participatory technology development and learning, Nyagumbo developed a passion for closely interacting with smallholder farmers from Zimbabwe’s communal areas as it dawned to him that top-down technology transfer approaches had their limits when it comes to scaling technologies. He proceeded to study for his PhD in 1995, focusing on water conservation and groundwater recharge under different tillage technologies.

Upon completion of his PhD, Nyagumbo started lecturing at the University of Zimbabwe in 2001, at the Department of Soil Science and Agricultural Engineering, a route that opened collaborative opportunities with key international partners including CIMMYT.

“This is how I began my engagements with CIMMYT, as a collaborator and jointly implementing on-farm trials on conservation agriculture and later broadening the scope towards climate-smart agriculture technologies,” Nyagumbo recalls.

By the time an opportunity arose to join CIMMYT in 2010, Nyagumbo realized that “it was the right organization for me, moving forward the agenda of sustainability and focusing on improving productivity of smallholder farmers.”

Climate-smart results

Cropping systems agronomist Isaiah Nyagumbo inspects a maize ear at the Chimbadzwa plot in Ward 4, Murewa, Zimbabwe. (Photo: CIMMYT)
Cropping systems agronomist Isaiah Nyagumbo inspects a maize ear at the Chimbadzwa plot in Ward 4, Murewa, Zimbabwe. (Photo: CIMMYT)

Projects such as SIMLESA show results of intensification practices and climate-smart technologies aimed at improving smallholder farming systems in eastern and southern Africa.

One study showed that when conservation agriculture principles such as minimum tillage, rotation, mulching and intercropping are applied, yield increases ranging from 30-50 percent can be achieved,” Nyagumbo says.

Another recent publication demonstrated that the maize yield superiority of conservation agriculture systems was highest under low-rainfall conditions while high-rainfall conditions depressed these yield advantages.

Furthermore, studies spanning across eastern and southern Africa also showed how drainage characteristics of soils affect the performance of conservation agriculture technologies. “If we have soils that are poorly drained, the yield difference between conventional farming practices and conservation agriculture tends to be depressed, but if the soils are well drained, higher margins of the performance of conservation agriculture are witnessed,” he says.

Currently, Nyagumbo’s research efforts in various countries in eastern and southern Africa seek to better understand the resilience benefits of cereal-legume cropping systems and how different planting configurations can help to improve system productivity.

“Right now, I am focused on understanding better the ‘climate-smartness’ of sustainable intensification technologies.”

In Malawi, Nyagumbo is part of a team evaluating the usefulness of different agronomic practices and indigenous methods to control fall armyworm in maize-based systems. Fall armyworm has been a troublesome pest particularly for maize in the last four or five seasons in eastern and southern Africa, and finding cost effective solutions is important for farmers in the region.

Future efforts are set to focus further on crop-livestock integration and will investigate how newly developed nutrient-dense maize varieties can contribute to improved feed for livestock in arid and semi-arid regions in Zimbabwe.

Sharing results

Another important aspiration for Nyagumbo is the generation of publications to share the emerging results and experiences gained from his research with partners and the public. Working in collaboration with others, Nyagumbo has published more than 30 articles based on extensive research work.

“Through the data sharing policy promoted by CIMMYT, we have so much data generated across the five SIMLESA project countries which is now available to the public who can download and use it,” Nyagumbo says.

While experiences with COVID-19 have shifted working conditions and restricted travel, Nyagumbo believes “through the use of virtual platforms and ICTs we can still achieve a lot and keep in touch with our partners and farmers in the region.”

Overall, he is interested in impact. “The greatest reward for me is seeing happy and transformed farmers on the ground, and knowing my role is making a difference in farmers’ livelihoods.”

See our coverage of World Food Day 2020.
See our coverage of World Food Day 2020.

Breaking Ground: Jordan Chamberlin avidly explores the changing landscapes of Africa

Sub-Saharan Africa is undergoing important transformations, including climate change, population growth, urbanization and migration flows, and growth in digital technologies. What can we say about the likely development trajectories that African rural economies are on, and the implications for poor farming households? These are central questions for Jordan Chamberlin, an economist at the International Maize and Wheat Improvement Center (CIMMYT) in Kenya.

Chamberlin’s desk is covered with screens teeming with numbers, complex mathematical equations, lines of code and aerial views of African landscapes. He combines traditional microeconomic analysis with geospatial modelling skills to study some of the ways in which rural transformations are occurring. In this era of big data, he examines the wealth of spatial and socioeconomic datasets to explore the relationships between drivers of change and smallholder welfare, sometimes revealing surprising insights on how rural communities in Africa are evolving.

Are commercial farms good or bad for neighboring smallholder farmers? Which households can benefit from the rapidly evolving rural land markets in Africa? What drives migration between rural areas? These are some examples of the complex but increasingly important questions that inform how we understand the evolution of agri-food systems in developing countries,” Chamberlin explains. “Fortunately, we also increasingly have access to new data that helps us explore these issues.”

In addition to household survey datasets — the bread and butter of applied social scientists — today’s researchers are also able to draw on an ever-expanding set of geospatial data that helps us to better contextualize the decisions smallholder farmers make.

He cites current work, which seeks to understand input adoption behaviors through better measurement of the biophysical and marketing contexts in which small farms operate. “Evidence suggests that low use rates of inorganic fertilizer by smallholders is due in part to poor expected returns on such investments,” he explains, “which are the result of site-specific agronomic responses, rainfall uncertainty, variation in input-output price ratios, and other factors.”

We are increasingly able to control for such factors explicitly: one of Chamberlin’s recent papers shows the importance of soil organic carbon for location-specific economic returns to fertilizer investments in Tanzania. “After all, farmers do not care about yields for yields’ sake — they make agronomic investments on the basis of how those investments affect their economic welfare.”

Better data and models may help to explain why farmers sometimes do not adopt technologies that we generally think of as profitable. A related strand of his research seeks to better model the spatial distribution of rural market prices.

Jordan Chamberlin (left) talks to a farmer in Ethiopia’s Tigray region in 2019, while conducting research on youth outmigration from rural areas. (Photo: Jordan Chamberlin)
Jordan Chamberlin (left) talks to a farmer in Ethiopia’s Tigray region in 2019, while conducting research on youth outmigration from rural areas. (Photo: Jordan Chamberlin)

A spatial economist’s journey on Earth

Ever since his experience as a Peace Corps volunteer in Paraguay, where he worked as a beekeeping specialist, Chamberlin knew he wanted to spend his professional life working with smallholder farmers. He wanted to better understand how rural development takes place, and how policies and investments can help rural households to improve their welfare.

In pursuit of these interests, his academic journey took him from anthropology to quantitative geography, before leading him to agricultural economics. “While my fundamental interest in rural development has not changed, the analytical tools I have preferred have evolved over the years, and my training reflects that evolution,” he says.

Along with his research interests, he has always been passionate about working with institutions within the countries where his research has focused. While working with the International Food Policy Research Institute (IFPRI) in Ethiopia, he helped establish a policy-oriented GIS lab at the Ethiopian Development Research Institute (EDRI). Years later, as part of his work with Michigan State University, he served as director of capacity building at the Indaba Agricultural Policy Research Institute (IAPRI), a not-for-profit Zambian research organization. He continues to serve as an external advisor on PhD committees, and considers mentorship a key part of his professional commitments.

He joined CIMMYT at the Ethiopia office in 2015 as spatial economist, part of the foresight and ex ante group of the Socioeconomics program.

As part of his research portfolio, he explores the role of new technologies, data sources and extension methods in the scaling of production technologies. Under the Taking Maize Agronomy to Scale in Africa (TAMASA) project, one area he has been working on is how we may better design location-specific agronomic advisory tools. Working with the Nutrient Expert tool, developed by the African Plant Nutrition Institute (APNI), he and his research team have conducted randomized control trials in Ethiopia and Nigeria to evaluate the impacts of such decision-support tools on farmer investments and productivity outcomes. They found that such tools appear to contribute to productivity gains, although tool design matters — for example, Nigerian farmers were more likely to take up site-specific agronomic recommendations when such information was accompanied by information about uncertainty of financial returns.

Jordan Chamberlin (center) talks to colleagues during a staff gathering in Nairobi. (Photo. Joshua Masinde/CIMMYT)
Jordan Chamberlin (center) talks to colleagues during a staff gathering in Nairobi. (Photo. Joshua Masinde/CIMMYT)

Creative rethinking

While Chamberlin’s research portfolio is diverse, one commonality is the drive to use new data and tools to better guide how development resources are allocated.

“Given the scarcity of resources available to governments and their partners, it is important to have sound empirical foundations for the allocation of these resources. Within CIMMYT, I see my role as part of a multidisciplinary team whose goal is to generate such empirical guidance,” he says.

This research also contributes to better design of agricultural development policies.

“Even though many of the research topics that my team addresses are not traditional areas of emphasis within CIMMYT’s socioeconomic work, I hope that we are demonstrating the value of broad thinking about development questions, which are of fundamental importance to one of our core constituencies: the small farmers of the region’s maize and wheat-based farming systems.”

Breaking Ground: Erick Ortiz Hernández innovates regional solutions for greater impact

The International Maize and Wheat Improvement Center (CIMMYT) operates 11 hubs — nodes of innovation — in Mexico, supported by a portfolio of projects including MasAgro. These hubs are perfectly defined by the agro-ecological conditions of the territory in which they are located, and their main aim is innovation management focused on sustainable and resilient agri-food systems.

The Bajío Hub — which includes the central states of Guanajuato, Michoacán and Querétaro — is directed by Erick Ortiz Hernández, who through integrated management, seeks to improve farmers’ livelihoods working hand in hand with a large network of stakeholders, promoting and validating sustainable and scalable technologies.

Ortiz Hernández joined CIMMYT in 2010 as a collaborator in the state of Michoacán, where he trained and certified technicians, and managed the first modules and platforms of the MasAgro project. That experience allowed him to become the manager of the Yucatan Peninsula Hub, in southeastern Mexico, in 2015. After three years of serving in the state of Guanajuato, he has recently taken a management position at the Bajío Hub.

Growing up in a rural community of less than a thousand people in the state of Puebla, Ortiz Hernández was familiar with agriculture from a young age. However, he considers that his decision to pursue a career in agronomy was unplanned. It was when he got into the agronomy-engineering program at the Chapingo Autonomous University — one of the most prestigious institutions in agricultural studies in Mexico — that he realized how drawn he was to plant production, choosing it as his specialty.

“As a Chapingo student, you know that CIMMYT is one of the most relevant research institutions not only in Mexico, but internationally,” says Ortiz Hernández. “To be honest, when I graduated, I would never have imagined that I could be part of this great team.”

Tailored sustainability

Currently, he coordinates and manages the operation of different projects at the Bajío Hub, working with both the public and private sectors. All of them operate under the same objectives: to monitor and address activities in the value chain to improve production systems, produce more with less through conservation agriculture and precision farming practices, and achieve a successful association with the market.

One of these projects is Cultivando un México Mejor [Cultivating a Better Mexico], in partnership with Heineken Mexico. Through CIMMYT’s research and the implementation of improved management practices, experts explore the requirements for the sustainable management of water used in the daily cultivation process.

These actions are of utmost importance, since every year the region’s water tables are affected by the excessive use of water. Around 80% of the consumption of this natural resource is used for farming activities.

Ortiz Hernández explains that the production of 2.2 pounds of wheat in the region can require 1,500 liters of water on average. However, he and his team have shown that water consumption can be reduced by 30-50% by implementing practices that save water without decreasing yields and, ideally, with low production costs.

Ortiz Hernández in a wheat field in Guanajuato where sustainable and climate-smart practices are implemented. (Photo: Francisco Alarcón/CIMMYT)
Ortiz Hernández in a barley field in Guanajuato where sustainable and climate-smart practices are implemented. (Photo: Francisco Alarcón/CIMMYT)

Linking for success

The Bajío Hub also manages MasAgro Guanajuato, a collaboration project between the government of state of Guanajuato and CIMMYT. Its aim is to support the technological improvement of conventional agri-food production, in order to implement actions of diagnosis, design, validation, demonstration and induction to the use of sustainable technological innovations.

One of the current situations faced by this program is that farmers in the area either broadcast or leave the fertilizer on the surface, resulting in an inefficient use. The technical team identified this problem and the possibility of mitigating it, by creating collaborative links with leading companies in the manufacture of agricultural machinery in the state, to design and produce a tool that meets this purpose.

“By working on a territorial innovation management approach, we get stakeholders to provide what is needed for farmers to access and adopt appropriate technology,” explains Ortiz Hernández. “What we expect from this type of project is not only to benefit the 500 or 1,000 farmers with whom we work directly, but to scale up and multiply those numbers generating an impact in the region through partnerships and alliances.”

Ortiz Hernández sees his management role as a strategic one, in which he has the flexibility to innovate by working with his team to generate efficient models, processes and tools. He can also propose and manage activities with different stakeholders in the region, so they can join in or align common objectives.

“There is no better moment than when farmers are harvesting and you see a smile on their faces due to the good results. When you know you contributed, even a little, you feel good and you come home happy,” says Ortiz Hernández.

One of his personal goals, and something he tries to incorporate into any project, is to create awareness of farmers’ major role in global food security. “We have to see farmers for what they really are: the people who ensure that food reaches our tables and who guarantee its quantity and quality. It is vital to recognize their daily efforts.”

Breaking Ground: Sudha Nair helps bridge gap between maize breeding and genetics

Sudha Nair is inspired every day by her passion for biology and genetics. The senior scientist at the International Maize and Wheat Improvement Center (CIMMYT) based in Hyderabad, India, works to define and practice the best strategies for applying genomics in agriculture.

“I always knew that science is what I would love to pursue,” said Sudha, an alumnus of both the Indian Agricultural Research Institute (IARI) in New Delhi and the National Institute of Agrobiological Sciences in Japan.

Originally from Kerala, India, Sudha did not expect a career in agriculture. “I studied for engineering after my high school as I was selected for that course before I was selected for the biology stream. It didn’t take me even a single moment to decide to leave the course six months later when I was selected for the undergraduate program in agriculture,” Sudha said. “I can’t say that it is love for agriculture that forced me to choose the field I am in, but it is the fascination for biological science. I love genetics and I love research; as long as I get to do this as part of my job, I am happy.”

Sudha’s first experience working with CIMMYT involved her PhD dissertation at IARI, which was a part of research conducted for the Asian Maize Biotechnology Network (AMBIONET), led by CIMMYT. “I had always looked at CIMMYT as an organization doing high quality applied science,” she said.

Starting in 2010 as a consultant for the Drought Tolerant Maize for Africa (DTMA) project, Sudha then interviewed for the position of maize fine-mapping specialist in 2011 and was selected as a scientist.  Her career at CIMMYT has now spanned close to a decade.

Her role involves implementation of molecular breeding in the maize breeding program in Asia. This includes discovery, validation and application of molecular markers for prioritized traits, genomic selection, and marker-based quality assurance and quality control in maize breeding – through current and past projects like Heat Tolerant Maize for Asia (HTMA), Climate Resilient Maize for Asia (CRMA) and the CGIAR Research Program on Maize (MAIZE).  Apart from this, she is currently involved in the Accelerating Genetic Gains in Maize and Wheat (AGG) project for incorporating elite and stress tolerance genetics from Asia in the elite African maize germplasm.

Sudha has been a part of a number of global maize projects including the Stress Tolerant Maize for Africa (STMA) project, which developed improved maize varieties tolerant to stresses such as drought and diseases, and HarvestPlus in maize, developing nutritionally enriched maize cultivars. She has also played a key role in developing CIMMYT’s second-generation tropicalized haploid inducers using marker-assisted breeding.

Sudha Nair speaking at a Heat Tolerant Maize for Asia (HTMA) annual review and planning meeting. (Photo: Sudha Nair/CIMMYT)
Sudha Nair speaking at a Heat Tolerant Maize for Asia (HTMA) annual review and planning meeting. (Photo: Sudha Nair/CIMMYT)

Bringing genetics and breeding together

Sudha is grateful for the role of CIMMYT in increasing acceptance and use of genomics in breeding programs. “When I started off as a graduate student, any work related to molecular genetics was called biotechnology, and we were considered as a different “breed”, who worked in silos to spend resources on “upstream research”, and whose results never saw any breeding applications. Breeding and molecular genetics were like parallel lines that would never meet,” she explained.

“In course of time, the research communities in applied breeding institutes like CIMMYT have brought about changes in strategies, goals, and more importantly, attitudes, and now all of us work towards one major goal of developing impactful products (varieties) for benefiting resource-constrained farming communities worldwide. All in all, I and my colleagues in the upstream research team in CIMMYT Global Maize Program have an important responsibility of providing core support to the breeding and seed systems teams in developing and delivering impactful products.”

When asked what the most enjoyable part of her work is, Sudha cited the practicality and applicability of her work. “Basically, my job responsibility is to design and implement the best strategies for applying genomics in maize breeding to achieve higher genetic gains,” she explained. “Being in an organization like CIMMYT, what is most satisfying about the role I am in is the translation of upstream research into tools for improving breeding efficiency and in turn into impactful maize varieties that the farming communities around the world cultivate.”

Breaking Ground: Lennart Woltering is a catalyst for achieving sustainable impact at scale

In Lennart Woltering’s first job working on agricultural water management with the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) in Niger, he observed a phenomenon that would influence his career path. Although drip irrigation involved huge benefits in terms of yields and productivity, adoption was low all across Africa. This fact made Woltering frustrated and interested.

In his second job at the biggest management consulting firm of Germany focused on international development, he was awarded a contract by the German development agency GIZ to lead a team on a demand-supply match for innovations from the CGIAR. Here he found that uptake of many innovations that showed superior performance over alternatives was limited and largely confined to the pilot project environment. When a few years later GIZ and the International Maize and Wheat Improvement Center (CIMMYT) advertised a Scaling Advisor position, Woltering knew this was the job for him.

Scaling is the process of expanding beneficial technologies and practices over geographies, and across institutions and levels to impact large numbers of people. This sounds very abstract, and Woltering is now supporting colleagues to make sense of the what, why and how of scaling in their specific contexts. The GIZ and CIMMYT contract modality does not force him to work on one project alone, but allows him to support a broad range of projects and programs to achieve more sustainable impact, within and beyond CIMMYT.

Changing mindsets

There is a modus operandi of doing projects in the most efficient way to meet targets, then moving on to the next project. Success is often measured by the number of beneficiaries reached at the last day of that project. However, this is often at the expense of important “systems work” such as building lasting relationships, developing organizational capacities and improving the enabling environment rather than finding holes in it. CIMMYT’s mission and vision are focused on social impact, hence the outcomes of our work are more important than our outputs. We cannot assume that adoption of an innovation leads directly to positive impacts — we have the responsibility to abide by the principles of “do no harm” and “leave no one behind.” Scaling is a process that should be part of the design of projects from the beginning.

Woltering keeps asking himself, “What happens when the project stops tomorrow? Do local actors have the capacities and desire to take responsibility of the scaling process once the project is over? What models of collaboration can survive the project?” He observes a strong underestimation of the importance of context for an innovation to be successful. Woltering’s guiding principle is “10% is the innovation and 90% is the context.”

Lennart Woltering discusses scaling strategies during a workshop at CIMMYT. (Photo: Maria Boa Alvarado/CIMMYT)

The Scaling Scan

The first thing Woltering did at CIMMYT was visit the country offices and projects in Africa and Asia, to understand how colleagues give meaning to scaling and to identify opportunities and challenges. He saw that in every context there was a different bottleneck to scaling — government policies, the value chain, but hardly ever the technology. The common denominator among these situations was that there was always a weakest link. If that problem was solved, teams would encounter the next weakest link. He identified a need to think strategically about project elements from the beginning of the project.

Woltering came across a paper by PPPLab that mentioned ten scaling ingredients, or ten conditions for scaling to be successful. He got in touch with them to see how this could be useful for CIMMYT and the CGIAR. “How can we make this fluffy concept of scaling that people don’t understand into something meaningful?”

This idea became the Scaling Scan, developed by PPPLab and CIMMYT. The tool helps practitioners to analyze what they want to scale, while trying to keep the process as simple as possible. The Scaling Scan helps teams to come up with a realistic ambition and identify bottlenecks from the start. It highlights what project teams need to pay attention to on the journey to reach scale.

“One thing that immediately becomes clear is that impact at scale requires a much broader range of skills and disciplines than what any one organization can bring. The Scaling Scan and an associated partnership tool we developed helps teams to recognize what type of collaborations are necessary along the way. It is very encouraging to get emails from organizations like Catholic Relief Services and ILRI that they are using the Scaling Scan on their own,” says Woltering.

Participants in the scaling workshop stand for a group photo with the trainers. (Photo: CIMMYT)

Progress towards impact

For many decades, CGIAR focused only on research, but in the last 20 years, it expanded to focus on what actually happens with those research outputs.

CIMMYT has always been working on things we now call scaling, in the sense of having a positive impact and changing people’s lives for the better. However, how that happened in that specific context has never been integrated systematically in the design, implementation nor the learning. “Scaling is finally getting recognized as a science but also as an art, and it is great to work on both fronts with scientists and project managers,” says Woltering.

There is a global community of practice on scaling with donors, implementers and practitioners. Five years ago, there were ten members and now the agriculture working group has members of more than sixty different organizations (including USAID, IFAD, CGIAR, CRS). CIMMYT is not only leading this community, but also set up a CGIAR-wide task force and a CIMMYT internal task force on scaling.

The COVID-19 crisis has shown that we need sustainable change at scale, and short term and one-off solutions will not do. This has only accelerated a trend of funders and implementers shifting to a more systemic approach. “CIMMYT is at the forefront of this wave which makes it a very exciting time to be working on this,” said Woltering.

Breaking Ground: Yoseph Beyene breeds desirable maize varieties for smallholder farmers in sub-Saharan Africa

About 25 years ago, Yoseph Beyene first heard about the International Maize and Wheat Improvement Center (CIMMYT) from one of his professors, back when he was pursuing his undergraduate degree in Plant Science at Haramaya University in Ethiopia. “The professor, whom I regard as a great mentor, (…) always told me that if I ever got an opportunity to work at CIMMYT, I should not hesitate to take it up, as it was a great place to conduct maize breeding,” recollects Beyene, now a maize breeder at CIMMYT. He grew up in Alem Ketema, a village located 190 km north of Addis Ababa, Ethiopia’s capital.

In retrospect, he did not know this would change his perspective on how he viewed crops, especially maize, on smallholder farms. Like many other families in Alem Ketema, his family attended to their small farm to meet their food and nutritional needs. Most people practiced subsistence farming, intertwined with livestock keeping, on small plots that were typically less than 2 hectares. At the backyard of his family’s farm, different crops such as maize, sorghum and teff were grown. As a child, he never quite registered in his mind that farmers grew mainly recycled seed. “In hindsight, I can say that the yield of a crop such as maize was just about 1.5 tons per hectare at the time,” he reckons.

Such low yield potential meant feeding relatively large family sizes of about seven people was a tall order. It did not help that crops such as maize and wheat were frequently affected by diseases and pests and erratic rains, which diminished yields. It was not until his high school days when he had firsthand experience with high-yielding improved crop varieties. As part of the farm management class, he actively participated in the school’s farm management unit. He got to appreciate the yield variation between improved and local varieties, grown on the school plots. These improved seed, he quickly realized, were the ideal antidote to the low yield farmers obtained. 

Struck by an epiphany

“This was like a eureka moment for me. When I realized that it was possible to improve and deliver desirable seed varieties that could double farmers’ yields, I decided to study plant breeding at the university. If only the farmers back in my village knew about the improved seed and adopted them at the time, it could not only have helped solve the problems of food insecurity but also bettered their livelihoods,” he ponders.

When he enrolled for a PhD in Plant Breeding and Genetics at the University of Pretoria, he did his research in highland maize in collaboration with CIMMYT in Ethiopia. Upon completion, he was appointed as a senior cotton breeder at South Africa’s Agricultural Research Council (ARC), where he worked for one and a half years.

“One day, I saw an advertisement in which CIMMYT was looking for a maize breeder. I applied, went for the interview and was happy to get the position. That was in 2008,” he says.

The right tool for the right variety

Biotic and abiotic stresses are becoming more frequent and vicious because of climate change and there is growing urgency to tackle them to avert future potential food crises.

Beyene’s current research focuses on developing high-yielding and climate-resilient maize inbred lines and hybrids for sub-Saharan Africa. He uses  conventional and molecular breeding, including integration of novel tools and techniques, such as doubled haploid, and marker-assisted recurrent section and genomic selection. Over the years, he has developed at least 25 new drought-tolerant maize hybrids recommended for commercialization in Kenya, Mozambique, Uganda, South Africa and Tanzania. Currently, 23 seed companies have been engaged to produce and market the released hybrids through sub-licensing.

Presently, as the Regional Breeding Coordinator for Africa, he is responsible for assessing the progress of implementing product profile-based breeding, appropriate germplasm exchange within and across regional breeding hubs, and ascertaining the progress on new initiatives by regional breeding teams.

A long-term endeavor

Breeding is a costly, time consuming and complex exercise. “It takes at least 10 years from crossing to release using pedigree breeding because the hybrids should be evaluated in multiple years and tested in multiple locations, which increases costs and time of the breeding cycle. You have to appreciate the fact that you are not breeding for now but for the future,” he says.

“As a breeder, you have to keep testing new tools and techniques to make breeding more efficient. Yet, resources are not always constant but inadequate. Stresses are becoming more urgent and vicious, despite increased urgency in tackling them to avert a potential food crises,” he says.

To reduce the time and accelerate genetic gains, Beyene and his colleagues at CIMMYT are currently applying the genomic selection technique for maize breeding, using it to predict the performance of un-phenotyped genotypes at early stage of testing. He and his colleagues recently published their research comparing genomic selection with phenotypic selection, as used by CIMMYT’s maize breeding program in sub-Saharan Africa. They found that the use of genomic selection for yield under optimum and drought conditions in tropical maize can produce selection candidates with similar performance as those generated from conventional phenotypic selection, but at a lower cost. They concluded that this strategy should be effectively incorporated into maize breeding pipelines to enhance breeding program efficiency.

Breeding challenges notwithstanding, Beyene feels fulfilled whenever he sees a farmer has planted a variety that he helped breed. “The epitome of my inspiration is when there is a smile on their face because of the variety’s good performance on their farm,” he says.

Interacting with the farmers and seed companies provides an opportunity for him to learn, understand their varietal preferences as well as appreciate the impact that his work has on their operations. He is also actively engaged in building the capcity of public and private partners, and supervising master’s and doctoral students from various countries. He has published more than 50 articles in journals.

The life of a breeder is not as lonely and boring as some would think. Beyene creates time to be with his three children, playing with them and helping with their homework, taking them out for social events. He also dedicates time to watch football, reality television, comedy and drama with his family.

Breaking Ground: Maria Itria Ibba and the lab that bakes bread

The rising and shifting demand for wheat, with rapid urbanization and increasingly globalized food markets, is pushing farmers more than ever to produce high-quality grain, according to the scientist who leads wheat quality research in the world’s foremost publicly-funded wheat breeding program.

“Wheat quality is becoming more and more important, as the industrial production of bread and other wheat-based foods increases to meet the demands of city dwellers, working women, and wheat consumers in wheat-importing countries,” said Maria Itria Ibba, head of the Wheat Chemistry and Quality Laboratory at the International Maize and Wheat Improvement Center (CIMMYT).

“Companies that produce and market food for such consumers demand high, consistent quality in grain they purchase and we have to help wheat farmers to meet stringent requirements.”

This is so important that CIMMYT’s Global Wheat Program — whose contributions figure in more than half of the wheat varieties released worldwide — directly uses lab data on milling, processing and end-use quality to decide which bread and durum wheat lines to move forward in its breeding programs, according to Ibba.

“Assessing quality is a huge task, because wheat is used to make hundreds of different foods, including all kinds of leavened bread, flat breads, pastas, noodles and steamed bread,” said Ibba. “Our lab is an integral part of breeding, analyzing thousands of grain samples from thousands of wheat lines each year for nearly a dozen quality parameters.”

Cut out for quality

A native of Viterbo, Italy, Ibba has led the Wheat Chemistry and Quality Laboratory since 2019 and is uniquely qualified for the job, with a bachelor’s degree in biotechnology, a master’s degree in biotechnology for the safety and quality of agricultural products — both from the University of Tuscia, Viterbo — and a doctorate in crop science from the Washington State University. Her Ph.D. dissertation addressed “low-molecular-weight glutenin subunit gene family members and their relationship with wheat end-use quality parameters.”

With a mother who studied medicine and a father who worked at the Italian Space Agency, Ibba said that in school she always enjoyed science subjects such as biology and chemistry. “They were easy for me to understand and I really liked how, after studying them, I was able to explain and understand many things around me.”

Ibba said the biggest challenges for her and her lab team are to understand wheat quality needs and conduct faster and better analyses.

“Several of the tests we do are expensive, time-consuming, and require skilled personnel and significant amounts of grain,” she explained, citing the use of exotically named devices such as the “Quadrumat Senior mill,” the “mixograph,” and the “alveograph,” to list a few. “We’re continuously looking for novel methods that are quicker, use smaller samples of grain, and with lower costs.”

Understanding the biochemical and genetic bases of wheat grain and flour quality traits is key to this, according to Ibba, but wheat quality traits are so complex genetically that DNA markers are of little help in breeding. “We’ve begun to explore whole genome selection for wheat quality traits, in collaboration with Kansas State University, but this will never completely replace the laboratory tests.”

Let’s talk health and nutrition

A staple of tours for the hundreds of visitors that come each year to CIMMYT in Mexico, the wheat quality laboratory combines the razzle-dazzle of high-tech devices with hands-on, sensory attractions such as inflating dough balls and freshly baked test loaves.

Ibba’s work includes talking to visitors about wheat, its important history and role in human nutrition and food, and concerns in the popular media regarding wheat and health.

“I think people know more now about what gluten is and its importance, but there is still the need to talk about gluten and wheat so that people can make informed decisions based on scientific facts,” she said. “I was happy to see the recent article from CIMMYT on a review study which, among many other things, showed there was no scientific evidence for the idea that eating refined flour is bad for your health.”

“Wheat provides about 20 percent of calories and protein for more than 4.5 billion people in developing countries,” Ibba pointed out. “There’s an increasing focus on understanding and improving the nutritional quality of wheat and its products because of the greater overall interest in diets and in the nutritional value of diverse foods.”

Breaking Ground: Sylvanus Odjo finds the right technology for each farmer

A series of coincidences led Sylvanus Odjo to study agronomy. It was only after finishing his first degree that he learned that his namesake, Silvanus, was the Latin deity of forests and fields.

Spurred by a curiosity about the natural world, he spent several years working at the National Institute of Agriculture in his native Benin, before pursuing advanced degrees in Belgium, where he developed his interest in cereals research.

“Obviously by that point I knew about the CGIAR centers and the International Maize and Wheat Improvement Center,” he explains. “If you’re working on maize, you’ll know about CIMMYT.”

He joined the organization as a postdoctoral researcher in 2017 and now works as a postharvest specialist. He coordinates a network of platforms which evaluates and validates potential solutions and transfers them to farmers across Mexico and Latin America.

“All the projects I’m working on now have the same objective: finding ways to avoid and reduce postharvest losses.” These, Odjo estimates, can be as high as 40% in some parts of Mexico, with dramatic consequences for smallholder farmers whose food security is directly linked to the amount of grain they have. They are also the most likely to be affected by the effects of climate change.

“A lot of people think postharvest just means storage,” he points out, “but it actually encompasses everything from the moment of harvest and includes processes like drying, shelling, technical and economic activities.”

A drying specialist by training, Odjo now works across the entire postharvest system. There are two central components to his work. The first involves testing postharvest technologies to develop recommendations for farmers, conducting trials under controlled conditions on CIMMYT research stations and with local collaborators across Mexico and assessing how drying and storage technologies fare under different conditions. The second, and perhaps more challenging, is promoting the successful ones, such as hermetic grain storage bags, among farmers and providing training on how to use them appropriately.

“We see a lot of publications agreeing that we need to promote hermetic technologies, which is true.” The question, Odjo asks, is how to do it. “How can we succeed in making a solution available to farmers? And once that has happened, how do we convince them to use it? Those are big questions which people were asking 50 years ago but they’re still being discussed today.”

Odjo demonstrates the use of a handheld grain moisture tester in Comitán de Dominguez, Chiapas, Mexico. (Photo: Juan Carlos Reynoso)
Odjo demonstrates the use of a handheld grain moisture tester in Comitán de Dominguez, Chiapas, Mexico. (Photo: Juan Carlos Reynoso)

Finding answers to the big questions

“The potential solutions sound so simple, but when you actually try to implement these things it can be very complex.”

Odjo can reel off a list of postharvest interventions which seem straightforward initially but fail at the moment of implementation. Farmers might be instructed to harvest their grain at a particular time, which turns out to conflict with the timing of an important traditional ceremony, which cannot be rescheduled. Elsewhere they may be encouraged to avoid reducing moisture levels by purchasing a dryer but lack the resources to do so.

Much of Odjo’s work involves conducting research into the process of technology transfer and the scaling of postharvest technologies, working with a number of projects in Mexico to find the most efficient ways of training farmers and providing them with the tools they need to use improved practices and technologies.

“What we’re looking for is the right technology for each farmer,” he explains. “Because the conditions in the highlands of Guanajuato are not the same as in coastal Yucatán, or any of the other locations we work in.” Hermetic technology has been proven to be effective in most conditions, but the choice to use hermetic silos, hermetic bags, or a cocoon storage container ultimately depends on farmer preferences and the specific conditions in their local area. “We noticed, for example, that in the highlands pests tend to pose less of a threat to stored grain, so we need to use a different strategy than we would at sea level, where humidity can significantly increase the risk of grain becoming contaminated.”

Odjo and his team have also noted that in Mexico, although many postharvest activities such as shelling are led by women, men are more likely to attend farmer trainings, which makes it harder to ensure that they are reaching their target demographic. “Gender has emerged as a key parameter that we need to take into account, so we’re working with an excellent gender specialist at CIMMYT to find ways of making sure we transfer knowledge and technologies efficiently.”

While it can be challenging coordinating with so many different stakeholders, each with their distinct priorities and interests, Odjo is adamant that postharvest research can only be successful when it is fully interdisciplinary and collaborative. Though farmers are their core audience, he and his team make sure they work with extension agents, government actors, researchers and development practitioners to find solutions. “I can’t do anything alone so I’m open to collaboration,” he adds. “We always need fresh ideas.”

“A lot of people think postharvest just means storage, but it actually encompasses everything from the moment of harvest and includes processes like drying, shelling, technical and economic activities,” Odjo explains. (Photo: Francisco Alarcón/CIMMYT)
“A lot of people think postharvest just means storage, but it actually encompasses everything from the moment of harvest and includes processes like drying, shelling, technical and economic activities,” Odjo explains. (Photo: Francisco Alarcón/CIMMYT)

Sharing knowledge in 140 characters

Up until quite recently, Odjo was reluctant to join Twitter because he felt that he had nothing to share. It was only when colleagues encouraged him to use social media as a platform for discussing postharvest issues that he discovered the app is an effective way of sharing recommendations directly with farmers and agricultural service providers. “One of my lecturers used to say that you can understand something if you’re capable of explaining it to a kindergarten-aged child. If you don’t succeed, it means you haven’t understood.”

“That’s become a part of my job that I really enjoy: figuring out how to share research and results of investigations with different audiences in a simple manner.”

His newfound social media presence has also proved useful for connecting with researchers on a global level. In late 2019, researchers in Laos interested in learning about postharvest technologies reached out to Odjo, who was able to arrange for colleagues to travel to the country and share practices developed with local extension agents and blacksmiths in Mexico. “And do you know how they found me? Through my Twitter account.”

Moving forward, Odjo hopes to extend the scope of his activities beyond Latin America and carry out more knowledge exchange with his peers across the world. “In research, a lot of people are working on the same topics, but we don’t always share the information. I’m open to sharing my experience, because I’m sure I can learn a lot from others that will be useful for my job.”

Kenya in particular stands out as a case study he can learn from, where a high incidence of aflatoxins in maize, heavy government intervention and fierce market competition among providers of hermetic bags have allowed for the successful scaling of postharvest technologies. “It would be great to be able to analyze their scaling process and learn from it. Not to replicate it entirely, because obviously the conditions aren’t the same, but there will undoubtedly be lessons we can take and apply here in Mexico and Latin America.”

Breaking Ground: Aparna Das leads efficient and demand-driven maize research

Getting a good maize harvest, or just enough to feed the family, has always been a challenge for maize small farmers in developing countries. Faced with variable rainfall, heat waves, insect attacks or diseases, they rarely yield more than two tons of maize per hectare, and sometimes lose their crops altogether. Climate change, invasive pests like fall armyworm or new diseases like maize lethal necrosis could jeopardize even further the livelihoods of maize farmers and trigger severe food crises.

In this scenario, the lives and income of maize farmers rely on good seeds: seeds that are climate-resilient, pest- and disease-resistant, and that grow and yield well under local conditions, often with minimum inputs.

“That is where the maize improvement research at the International Maize and Wheat Improvement Center (CIMMYT) plays a crucial role in this challenge of food security. You need to develop the right location-specific varieties that farmers want, that partner seed companies are willing to produce, in a cost- and time-efficient way,” says Aparna Das. She joined CIMMYT’s Global Maize research program in August 2018 as Technical Program Manager.

“My role is to work  with and guide the Breeding and Seed Systems team, so that our research is more client- and product-oriented, efficient, and so that there is a better coordination and monitoring, aligned with the available resources and skills within CIMMYT, and with our numerous public and private partners,” she explains.

Value-for-money farmer impact

An important activity Das coordinated recently is a series of collaborative product profiling workshops with CIMMYT’s partners. Integrating the priorities of the national agricultural research systems and partner seed companies, this exercise reviewed and redefined what maize traits and attributes research should focus on in years to come. After this consultation, partners not only pick up CIMMYT germplasm based on trial data, but they can also verify if it fits with their own profile, to make sure that the traits they want are there. It makes breeding much more targeted and efficient.

“Product profiling has already influenced our research. For instance, all partners mentioned husk cover as a ‘must-have’ trait, because you have less insect attacks and grain spoilage,” Das explains. “Although it was considered a base trait, the breeders did not consider it systematically during their maize line selection and product advancement. Now it is integrated,” she notes.

“Our impact should not be limited to the number of varieties released or the number of papers published, but also how many varieties are picked up by partners, adopted by farmers and scaled up,” Das points out.

Breeders and seed systems specialists have worked together to estimate and track the costs of delivering products. Teams responsible for product profiles can now, through simulation, test different solutions and see what costs could be reduced or adjusted to develop the hybrid.

Das enjoys this type of collaboration. “Managing behavioral change is a key part of my role, being able to work with different teams and cultures, which makes my job so interesting,” she says.

Plates of boiled and roasted maize are displayed for tasting during a farmer participatory varietal selection exercise in Embu, Kenya, in August 2019. Flavors of varieties are very distinct and could explain why some old varieties are still preferably grown by farmers. (Photo: S. Palmas/CIMMYT)
Plates of boiled and roasted maize are displayed for tasting during a farmer participatory varietal selection exercise in Embu, Kenya, in August 2019. Flavors of varieties are very distinct and could explain why some old varieties are still preferably grown by farmers. (Photo: S. Palmas/CIMMYT)

An out-of-the-book thinker in a men’s world

Plant breeding is a male-dominated world but Das is used to fitting in as a minority. Originally from West Bengal, she grew up in Ludhiana, another Indian state and a different culture. She learned genetics and plant breeding at Punjab Agricultural University (PAU) in Ludhiana. Discovering the new field of molecular breeding, at its infancy twenty-five years ago, was an exciting challenge.

At PAU, Das pursued crop improvement research, first in wheat and potato, and later in rice genetics. She received an award from India’s Department of Science and Technology under the Young Scientist Program for her work on jumping genes in basmati rice, aimed at creating shorter and more productive basmati varieties while maintaining the basmati aroma.

Later she joined the International Rice Research Institute (IRRI) to work on the development of Golden Rice, a provitamin A-rich variety, through genetic engineering.

“Being a woman in plant breeding, especially as a breeder, is not that common. Women are not expected to do plant breeding fieldwork, away from the lab and offices. But I did not back off. I did my rice fieldwork in the paddy fields, at 40 degrees, all on my own. I believe that women bring a level of precision that is very important in breeding.”

Bridging public and private sectors

After ten years of public research, she moved to the private seed sector, to learn how seed companies integrate farmers’ needs to their research pipeline, and then channel this research to deliver to millions of farmers. “A big lesson from corporations is the value for money at each stage of their research, and that market research is instrumental to really understand farmers’ needs and guide breeding,” she notes.

After a decade in the private sector, Das was keen to move on and use her experience in the nonprofit sector. Then she joined CIMMYT. “This opportunity of technical program manager was timely. I knew the strengths of CGIAR, having highly educated scientists and the great potential outreach of the research. I knew where crop research could be improved, in converting basic research into demand-driven research.”

“Since my time at IRRI a decade ago, I realized things had moved on in the CGIAR system. Seed systems, product profiling and value chain research are now fully integrated in the Global Maize program. It is a crucial time to be here at CIMMYT. With the CGIAR reform, with the climate emergency, and emerging pests and diseases, we have to be even more inventive and reactive to continue to deliver greater impact,” she concludes.

Breaking Ground: Lara Roeven delves into complex gender dynamics

Lara Roeven completed her undergraduate degree in social sciences at the University of Amsterdam in the Netherlands, where she focused primarily on political science in a program that combined this with the study of psychology, law and economics. “I liked it a lot because it gave me an interdisciplinary look at how social injustice manifests itself.”

Having worked on gender and social inclusion issues in the past, she had already heard of CGIAR and its research portfolio, but it was the interdisciplinarity of CIMMYT’s approach that prompted her to apply to the organization at the end of a study abroad program in Mexico. “I had a strong interest in agriculture and I’d always wanted to look at how gender and social inclusion issues affect women and marginalized groups within the context of rural, environmental or climate change, so this role seemed like a good fit.”

Since joining CIMMYT’s Gender and Social Inclusion research unit in January 2019, Roeven has been part of a team of researchers analyzing the ways in which gender norms and agency influence the ability of men, women and young people to learn about, access and adopt innovations in agriculture and natural resource management.

So far, Roeven has mainly been supporting data analysis and helping to produce literature reviews. She has contributed to a number of studies simultaneously over the past year, from the feminization of agriculture in India to changing gender norms in Tanzania. “It’s very interesting because you learn the particularities of many different countries, and the extent to which gender norms can differ and really influence people’s opportunities.”

Searching for nuance

A lot of research follows a similar pattern in highlighting the relationship between women’s work and empowerment, but realities on the ground are often more nuanced. In India, for example, well-established social structures add another layer of complexity to gender dynamics. “What I found interesting when we started looking into the ways in which gender and caste interrelate was that nothing is straightforward.”

Women from higher castes can actually be more isolated than women from lower ones, she explains, for whom it can be more accepted to pursue paid work outside of the home. However, lower-caste women also frequently experience high levels of poverty and vulnerability and face social exclusion in other realms of life.

“These dynamics are actually a lot more complicated than we usually think. And that’s why it’s so interesting to do this kind of comparative research where you can see how these issues manifest themselves in different areas, and what researchers or development practitioners working at ground level have to take into account in order to address the issues these women face.”

Eventually, Roeven hopes to pursue a PhD and a career in academia, but for the time being she’s enjoying working on research that has so much potential for impact. “There are many studies showing that gender gaps need to be closed in order to increase food security and eliminate hunger,” she says. “I feel like many interventions, extension services or trainings don’t always have the desired effect because they do not effectively reach women farmers or young people. Certain people are continuously left out.”

Conducting this kind of research is a crucial step in working towards empowering women across the world, and Roeven would like to see more researchers incorporating this into their work, and really taking on gender as a relational concept. “We can keep on conducting research within the Gender and Social Inclusion research unit, but it would be interesting if our approaches could be mainstreamed in other disciplinary areas as well.”

Though it might not be easy, Roeven emphasizes that it is necessary in order to have an impact and prevent innovations from exacerbating gender and social inequality. “Besides,” she adds, “I think it’s great when research has a social relevance.”

Breaking Ground: Mandeep Randhawa fights wheat diseases using genetic resistance tools

With new pathogens of crop diseases continuously emerging and threatening food production and security, wheat breeder and wheat rust pathologist Mandeep Randhawa and his colleagues at the International Maize and Wheat Improvement Center (CIMMYT) and the Kenya Agricultural and Research Organization (KALRO) are working tirelessly to identify new sources of rust resistance through gene mapping tools and rigorous field testing.

With wheat accounting for around 20% of the world’s calories and protein, outbreaks of disease can pose a major threat to global food security and farmer livelihoods. The most common and prevalent diseases are wheat rusts — fungal diseases that can be dispersed by wind over long distances, which can quickly cause devastating epidemics and dramatically reduce wheat yields.

To tackle the problem, Randhawa and his colleagues work on developing improved wheat varieties by combining disease-resistant traits with high yielding ones, to ensure that farmers can get the best wheat yields possible while evading diseases.

Screening for disease

A native of the Punjab state of India, Randhawa joined CIMMYT as a Post-doctoral Fellow in Wheat Rust Resistance Genetics in 2015. He now works as a CIMMYT scientist and manages the Stem Rust Screening Platform in Njoro, Kenya, which supports screening against stem rust of up to 50,000 wheat lines per year from as many as 20 countries. Over the last 10 years about 650,000 wheat lines have been evaluated for stem rust resistance at the facility.

“The platform’s main focus is on evaluation of wheat lines against the stem rust race Ug99 and its derivative races prevalent in Eastern to Southern Africa, the Middle East and Iran,” explains Randhawa. Ug99 is a highly virulent race of stem rust, first discovered two decades ago in Uganda. The race caused major epidemics in Kenya in 2002 and 2004.

“East African highlands are also a hotspot for stripe wheat rust so, at the same time, we evaluate wheat lines for this disease,” adds Randhawa.

The facility supports a shuttle breeding scheme between CIMMYT Mexico and Kenya, which allows breeders to plant at two locations, select for stem rust (Ug99) resistance and speed up the development of disease-resistant wheat lines.

“Wheat rusts in general are very fast evolving and new strains are continuously emerging. Previously developed rust-resistant wheat varieties can succumb to new virulent strains, making the varieties susceptible. If the farmers grow susceptible varieties, rust will take on those varieties, resulting in huge yield losses if no control measures are adopted,” explains Randhawa.

Helping and sharing

For Randhawa, helping farmers is the main goal. “Our focus is on resource-poor farmers from developing countries. They don’t have enough resources to buy the fungicide. Using chemicals to control diseases is expensive and harmful to the environment. So in that case we provide them solutions in the form of wheat varieties which are high yielding but they have long-lasting resistance to different diseases as well.”

Under the Borlaug Global Rust Initiative, Randhawa and his team collaborate with KALRO to facilitate the transfer of promising wheat lines with high yield potential and rust resistance to a national pipeline for soon-to-be-released wheat varieties.

When he is not screening for wheat rusts diseases, Randhawa  also organizes annual trainings on stem rust diagnosis and germplasm evaluation for young wheat breeders and pathologists from developing countries. More than 220 wheat researchers have been trained over the last decade.

Mandeep Randhawa (left) talks to the participants of the 11th annual training on stem rust notetaking and germplasm evaluation. (Photo: Jerome Bossuet/CIMMYT)
Mandeep Randhawa (left) talks to the participants of the 11th annual training on stem rust notetaking and germplasm evaluation. (Photo: Jerome Bossuet/CIMMYT)

A farmer at heart

Randhawa always had an interest in agricultural science. “Initially, my parents wanted me to be a medical doctor, but I was more interested in teaching science to school students,” he says. “Since my childhood, I used to hear of wheat and diseases affecting wheat crops, especially yellow rust — which is called peeli kungi in my local language.” This childhood interest led him to study wheat genetics at Punjab Agricultural University in Ludhiana, India.

His mentors encouraged him to pursue a doctorate from the Plant Breeding Institute (PBI) Cobbitty at the University of Sydney in Australia, which Randhawa describes as “the mecca of wheat rust research.” He characterized two new stripe rust resistance genes formally named as Yr51 and Yr57 from a wheat landrace. He also contributed to the mapping of a new adult plant stem rust resistance gene Sr56.

Coming from India, his move to Australia was a pivotal moment for him in his career and his identity — he now considers himself Indian-Australian.

If he had not become a scientist, Randhawa would be a farmer, he says. “Farming is my passion, as I like to grow crops and to have rich harvest using my scientific knowledge and modern technologies.”

At CIMMYT, Randhawa has a constant stream of work identifying and characterizing new sources of rust resistance. “Dealing with different types of challenges in the wheat field is what keeps me on my toes. New races of diseases are continuously emerging. As pests and pathogens have no boundaries, we must work hand-in-hand to develop tools and technologies to fight fast evolving pests and pathogens,” says Randhawa.

He credits his mentor Ravi Singh, Scientist and Head of Global Wheat Improvement at CIMMYT, for motivating him to continue his work. “Tireless efforts and energetic thoughts of my professional guru Dr. Ravi Singh inspire and drive me to achieve research objectives.”