As the calendar turns to October 16, the International Maize and Wheat Improvement Center (CIMMYT) celebrates World Food Day. This year’s theme is “Grow, Nourish, Sustain. Together.”
The COVID-19 global health crisis has been a time to reflect on things we truly cherish and our most basic needs. These uncertain times have made many of us rekindle our appreciation for a thing that some take for granted and many go without: food.
Food is the essence of life and the bedrock of our cultures and communities. Preserving access to safe and nutritious food is and will continue to be an essential part of the response to the COVID-19 pandemic, particularly for poor and vulnerable communities, who are hit hardest by the pandemic and resulting economic shocks.
In a moment like this, it is more important than ever to recognize the need to support farmers and workers throughout the food system, who make sure that food makes its way from farm to fork.
Sustainable food systems
According to the Food and Agriculture Organization of the United Nations (FAO), over 2 billion people do not have regular access to safe, nutritious and sufficient food. The global population is expected to reach almost 10 billion by 2050.
Our future food systems need to provide affordable and healthy diets for all, and decent livelihoods for food system workers, while preserving natural resources and biodiversity and tackling challenges such as climate change.
Countries, the private sector and civil society need to make sure that our food systems grow a variety of food to nourish a growing population and sustain the planet, together.Â
This year, for World Food Day, we bring you three stories about CIMMYT’s work to produce nutritious food in a sustainable way.
Cereals offer greater health and nutrition benefits than commonly acknowledged, despite often being considered ânutrient-poorâ, say scientists. Read more.
Breaking Ground: Isaiah Nyagumbo advances climate-smart technologies to improve smallholder farming systems
Systems agronomist transforms farmers’ livelihoods through improved crop performance and soil health, promoting sustainable techniques that mitigate climate change effects. Read more.
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By 2050, the worldâs population could grow to 9.7 billion, food demand is expected to increase by 50% and global demand for grains such as maize, rice and wheat could increase by 70%. How can we meet the food and nutrition demands of a rising population, without negative environmental and social consequences?
Sustainable intensification is an approach using innovations to increase productivity on existing agricultural land with positive environmental and social impacts. Both words, âsustainableâ and âintensification,â carry equal weight.
CIMMYT conducts research on sustainable intensification to identify ways farmers can increase production of crops per unit of land, conserve or enhance important ecosystem services and improve resilience to shocks and stresses, especially those due to climate change and climate variability.
For example, CIMMYTâs research on sustainable intensification in India has helped shape policies that increase farmer income while reducing pollution and land degradation.
What is the scope of sustainable intensification?Â
Sustainable intensification takes into consideration impact on overall farm productivity, profitability, stability, production and market risks, resilience, as well as the interests and capacity of individual farmers to adopt innovations. It is not limited to environmental concerns, but also includes social and economic criteria such as improving livelihoods, equity and social capital.
Certain methods and principles are needed to achieve the goals of sustainable intensification. In collaboration with farmers and other change actors, CIMMYT carries out research-for-development projects to test and scale a range of technologies and approaches that contribute to these results. The research focuses on combined resource use efficiencies of crop production inputs: land, plant nutrients, labor and water.
One example is conservation agriculture, the combination of crop diversification, minimal soil movement and permanent soil cover. International scientific analysis has found that conservation agriculture can, in many places with different characteristics, play a crucial role towards achieving the United Nations Sustainable Development Goals.
Crop and system modeling, geographic information systems, remote sensing, scale-appropriate mechanization and socioeconomic modeling are some of the approaches that contribute to the design and evaluation of sustainable intensification alternatives in current farming systems.
Figure: Multi-criteria sustainability assessment of alternative (sustainable intensification) and reference systems in the Western Highlands of Guatemala.
What are some more examples?
Several interventions by CIMMYT aim at safeguarding biodiversity and protecting â in some cases increasing â ecosystem services crucial for small-scale farmersâ livelihoods and the health of all. Others have studied the impact of landscapes on dietary diversity and nutrition. Yet others have developed appropriate small-scale machines, allowing farmers to save time, costs and labor associated with agriculture to increase yields, halt the expansion of the agricultural frontier and invest in new opportunities.
How is sustainable intensification different from ecological intensification, agroecological intensification or climate-smart agriculture?Â
Sustainable intensification, ecological intensification and agroecological intensification strive for the same general goal to feed an increasing population without negative environmental and social consequences, but they place emphasis on different aspects.
Ecological intensification focuses on ecological processes in the agroecosystem. Agroecological intensification emphasizes a systems approach and strongly considers social and cultural perspectives.
Climate-smart agriculture and sustainable intensification are complementary, but climate-smart agriculture focuses on climate stress, adaptation and mitigation.
Sustainable intensification can be achieved with a range of methods, including these concepts. It is one strategy among many for global food system transformation.
What is the history of CIMMYTâs research on sustainable intensification?
In the 1960s, the Green Revolution brought high-yielding crops to some regions of Latin America and South Asia, allegedly saving millions from starvation. Yet the Green Revolution had unintended environmental and social consequences. Critics of the Green Revolution argued these cropping techniques were highly dependent on external inputs, fossil fuels and agrochemicals, causing environmental damage through overuse of fertilizers and water, and contributing to soil degradation.
In the 1980s, CIMMYT scientists began placing stronger emphasis on environmental and social aspects â such as conserving soil and water, and ensuring social inclusion of marginalized groups â recognizing their importance to sustain the intensification of crops in South Asia. It was understood that sustainability includes improving the livelihoods of rural people who depend on these natural resources, in addition to better resource management. CIMMYT began to take these considerations to the core of its work.
Farmers Maliamu Joni and Ruth Andrea harvest cobs of drought-tolerant maize in Mbeya, Tanzania. (Photo: Peter Lowe/CIMMYT)
Are these practices successful?
Sustainable intensification can boost yields, increase farmersâ profits and reduce greenhouse gas emissions. The reduction of greenhouse gas emissions can be achieved by increasing nitrogen use efficiency, which also reduces groundwater pollution.
Research from CIMMYTâs SIMLESA project has shown that conservation agriculture-based sustainable intensification practices led to a 60-90% increase in water infiltration and a 10-50% increase in maize yields in Malawi. In Ethiopia, crop incomes nearly doubled with crop diversification, reduced tillage and improved varieties, compared to using only one of these practices.
According to research from Stanford University, agricultural intensification has avoided emissions of up to 161 gigatons of carbon from 1961 to 2005. CIMMYT research shows that India could cut nearly 18% of agricultural greenhouse gas emissions through sustainable intensification practices that reduce fertilizer consumption, improve water management and eliminate residue burning. Zero-tillage wheat can cut farm-related greenhouse gas emissions by more than 75% in India and is 10-20% more profitable on average than burning rice straw and sowing wheat using conventional tillage.
A CIMMYT studyâŻinâŻScience shows that thousands of wheat farmers in northern India could increase their profits if they stop burning their rice straw residue and adopt no-till practices, which could also cut farm-related greenhouse gas emissions by as much as 78% and lower air pollution. This research and related work to promote no-till Happy Seeders led to a 2018 policy from the government of India to stop farmers from burning residue, including a $166 million subsidy to promote mechanization to manage crop residues within fields.
In light of this evidence, CIMMYT continues to work with stakeholders all along the value chain â from farmers to national agricultural research organizations and companies â to promote and scale the adoption of practices leading to sustainable intensification.
Cover photo:Â Irrigated fields under conservation agriculture at CIMMYT’s CENEB experiment station near Ciudad ObregĂłn, Sonora, northern Mexico. (Photo: CIMMYT)
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.
âA unique characteristic of systems agronomists,â Nyagumbo explains, âis 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.â
âThis understanding, combined with technical and agronomical skills, allows systems agronomists to innovate around increasing productivity, profitability and efficient farming practices, and to strengthen farmersâ capacity to adapt to evolving challenges, in particular those related to climate change and variability,â Nyagumbo says.
Isaiah Nyagumbo stands next to a field of maize and pigeon pea. Currently, Nyagumboâs 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 bachelorâs degree in agriculture specializing in soil science at the University of Zimbabwe and later a masterâs 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 Zimbabweâs 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.
âThis 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,â Nyagumbo recalls.
By the time an opportunity arose to join CIMMYT in 2010, Nyagumbo realized that âit was the right organization for me, moving forward the agenda of sustainability and focusing on improving productivity of smallholder farmers.â
Climate-smart results
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.
âOne 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,â 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. âIf 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,â he says.
Currently, Nyagumboâs 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.
âRight now, I am focused on understanding better the âclimate-smartnessâ of sustainable intensification technologies.â
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.
âThrough 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,â Nyagumbo says.
While experiences with COVID-19 have shifted working conditions and restricted travel, Nyagumbo believes âthrough 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.â
Overall, he is interested in impact. âThe greatest reward for me is seeing happy and transformed farmers on the ground, and knowing my role is making a difference in farmersâ livelihoods.â
The World Food Prize Foundation is honoring the work of Rattan Lal, who dedicated his life to study the effect of soil health in food production and climate change mitigation. On October 15 he will receive the 2020 World Food Prize, considered the âNobel Prizeâ of agriculture.
Lal, who serves as distinguished professor of Soil Science and founding director of the Carbon Management and Sequestration Center at Ohio State University, is a visionary who understood the intricate relationship between soil conservation, yield potential, nutrition and carbon sequestration.
âDr. Lalâs innovative research demonstrated how healthy soils are a crucial component of sustainable agricultural intensification â enabling higher crop yields, while requiring less land, agrochemicals, tillage, water and energyâ, announced the World Food Prize Foundation in a press release.
Lal becomes the 50th person to receive the World Food Prize since the late Norman Borlaug â 1970 Nobel Peace Prize laureate â established the award in 1987. The award acknowledges outstanding contributions to human development by individuals who significantly improve the quality, quantity and availability of food on a global scale.
âCIMMYT actively researches and promotes the sustainable farming practices that Dr. Lal studied and advocated for since the late 1980s, such as no tillage, residue retention and crop rotation, which combined with new precision farming technologies help farmers increase yields, reduce food production costs and protect the environmentâ, said Bram Govaerts, Integrated Development director and representative for the Americas at the International Maize and Wheat Improvement Center (CIMMYT).
Incoming CIMMYT Global Wheat Program director Alison Bentley speaks at Borlaug Global Rust Initiative Workshop. (Photo: CIMMYT)
Alison Bentley, who will be joining the International Maize and Wheat Improvement Center (CIMMYT) next month as director of the Global Wheat Program and the CGIAR Research Program on Wheat, joined wheat research colleagues at the Borlaug Global Rust Initiative Technical Workshop last week to introduce herself and offer her perspective on current prospects for wheat research. Â
Bentley, who currently serves as director of Genetics and Breeding at the National Institute of Agricultural Botany in the UK, emphasized the efforts of CIMMYT and partner scientists in the Accelerating Genetic Gains in Maize and Wheat for Improved Livelihoods (AGG) project.Â
âAGG is unique, and itâs something thatâs really close to my heart in harnessing innovations and deploying them in breeding to deliver genetic gains,â she said.Â
Bentley gave workshop attendees a sneak preview of new speed breeding facilities in CIMMYTâs Toluca experimental station, which will help wheat breeders reduce cycle time, saving costs and getting high yielding, improved varieties tested and in farmersâ fields more quickly.Â
âThere has never been a more exciting time to be involved in wheat research and breeding,â she told the gathering. Â
See Alison Bentleyâs full presentation from the BGRI Technical Workshop below.Â
Accelerating Genetic Gains in Maize and Wheat for Improved Livelihoods (AGG) is a 5-year project that brings together partners in the global science community and in national agricultural research and extension systems to accelerate the development of higher-yielding varieties of maize and wheat â two of the worldâs most important staple crops. Funded by the Bill & Melinda Gates Foundation, the UK Foreign, Commonwealth & Development Office (FCDO), the U.S. Agency for International Development (USAID) and the Foundation for Food and Agriculture Research (FFAR), AGG fuses innovative methods that improve breeding efficiency and precision to produce and deliver high-yielding varieties that are climate-resilient, pest- and disease-resistant, highly nutritious, and targeted to farmersâ specific needs.Â
Rural women in Nepal significantly contribute to food security, and when they are empowered, they can create avenues for agricultural growth. As seed producers are often disadvantaged in terms of accessing advanced agricultural knowledge and seed production skills, one opportunity for growth is strengthening the capacity of women seed producers.
âIn more than 80% of households in Sindhupalchowk district, women have the final say on the selection of maize variety,â said D.B. Bhandari, managing director of Hairyali Community Seed Company (HCSC). âThis urged me to engage women in seed production of preferred maize varieties for the mid-hills.â
HCSC, a partner company of the Nepal Seed and Fertilizer (NSAF) project implemented by the International Maize and Wheat Improvement Center (CIMMYT), is working to improve the business literacy of rural women to support their involvement in seed production and marketing of maize, wheat and rice seeds in Sindhupalchowk district, Bagmati province, Nepal.
Seed producers attend an orientation on the production and marketing of hybrid seed. (Photo: Dharma Dawadi/CIMMYT)
A path to empowerment and income
Access to agricultural inputs such as seed and fertilizer is challenging in Thulosirubari village due to its rural location and absence of agrodealers or nearby markets. Progressive farmers Parbati Gautam and Kamala Gautam, who grew up in the village in a family that has cultivated maize for generations and now grow maize, rice, millet and vegetables, found a solution. They decided to establish a cooperative âThulosirubari Mahila Krishi Sahakari Sanstha â that not only eases the supply of seed for farmers in their village but also engages in seed production. The cooperative has 45 female members so far.
In coordination with HCSC and the Government of Nepalâs Prime Minister Agriculture Modernization Project (PMAMP), orientation programs and women-only trainings were designed and organized by the NSAF project so farmers could boost their seed production efficiency and profitability at the grassroots level. The partnership between CIMMYT, HCSC and PMAMP provided technical and financial support to these groups, improved their entrepreneurship skills and business literacy, and created marketing linkages between the farmers and buyers. Thirty-five women were trained in the use of good agricultural practices in quality seed production and marketing of hybrid maize, rice and tomato seeds. HCSC supported the women with male and female lines of hybrid maize â Khumal hybrid-2 â to produce first generation seeds and build their skills on estimating ratios for sowing seeds, balanced fertilizer application, weeding, rouging and detasseling.
âI am so happy to learn about the importance of having different male and female lines and how to maintain their quality for crossing to produce first generation of hybrid maize seeds,â Kamala Gautam said.
After getting the required training and technical support, seven farmers from the cooperative, including Kamala and Parbati, collectively produced 1.1 mt of Khumal hybrid-2 with the value of $2,514, which was sold to HCSC in 2019. As the cooperative is a contract seed producer for HCSC, the women have market assurance and do not worry where and how to sell their seed.
âMy husband and I are not educated,â Parbati Gautam explained. âHowever, I was able to sell the hybrid maize seed then use the money to buy decent clothes and offer a better education to my two daughters and son.â
A woman stands in her rice seed production field in Nepal. (Photo: Mohan Mahato/CIMMYT)
Women empowering women
Parbati Gautam has served as chairperson at the cooperative for eight years, where she has mentored other seed producers. Based on her experience, women who have access to information and seed production technologies tend to have better crop yields and make informed decisions to increase their incomes and livelihoods.
According to Bhandari, farmersâ preferences are gradually shifting from local to hybrid varieties which offer better yields, early maturity and resilience to the effects of climate change. Parbati and Kamala Gautam confirm this, sharing that hybrid seed production provides 4-5 times more monetary value per kilogram of seed than that of grain.
âAlthough the cost of parent lines is expensive for seed production, improved farming technology ensures better quality seeds, higher yields and attractive farm business opportunities,â Parbati Gautam explained.
Since 2017, NSAF project researchers have been working to establish linkages with partner seed companies for seed marketing. Altogether, about 300 mt of maize and rice seed was produced by women farmers engaged in the project with the value of $112,000, and 80 percent of this seed was sold to three private seed companies including HCSC. In 2019, the NSAF project team established partnerships with an additional three cooperatives in Banke, Dang and Sindhupalchowk districts, where over 800 women are members.
The projectâs engagement of women’s seed producer groups is an example of an inclusive seed business model where farmers decide what to grow and how to sell. This intervention can be piloted in other parts of Nepal where women account for over 60 percent of the rural farming community. Targeted and sustained interventions to increase womenâs business agility, technical capacity in quality seed production, and market linkages will help boost productivity at household level and the country at large.
Hans-Joachim Braun, director of CIMMYT’s Global Wheat Program, speaks at the 8th International Wheat Conference in 2010. Braun has dedicated nearly four decades to wheat research. (Photo: Petr Kosina/CIMMYT)
Hans Braun, director of the Global Wheat Program at the International Maize and Wheat Improvement Center (CIMMYT), has received the Norman Borlaug Lifetime Achievement Award for nearly four decades of wheat research. He received the award on October 9, 2020, during the virtual Borlaug Global Rust Initiative (BGRI) Technical Workshop.
âWe rest on the shoulders of a lot of mighty people who have come before us,â said Ronnie Coffman, vice chair of BGRI, speaking to a global audience of wheat scientists and farmers as he presented four individuals with the award. âEach of these individuals has contributed to the improvement of wheat and smallholder livelihoods in major and enduring ways.â
Responsible for technical direction and implementation of the Global Wheat Program at CIMMYT and the CGIAR Research Program on Wheat (WHEAT), Braun leads and manages a team of 40 international scientists who develop wheat germplasm. This germplasm is distributed to around 200 cooperators in wheat-producing countries worldwide, and is responsible for the derived varieties being grown on more than 50% of the spring wheat area in developing countries.
Lifetime achievement
With the Norman Borlaug Lifetime Achievement Award, the BGRI community honors four individuals who have been integral to the initiative. (Photo: BGRI)
âIn his 35 years with CIMMYT, Hans has become familiar with all major wheat-based cropping systems in the developing and developed world,â said Coffman, who called Braun an important collaborator and close personal friend.
âHans was integral to the BGRIâs efforts in preventing Ug99 and related races of rust from taking out much of the 80% of the worldâs wheat that was susceptible when Ug99 was first identified in 1999,â Coffman explained. He âhas been an integral partner in the development and implementation of the Durable Rust Research in Wheat (DRRW) and Delivering Genetic Gain in Wheat (DGGW) projects.â
Braun delivered a keynote speech accepting the award and discussing the bright future of wheat, despite the many challenges that lie ahead.
âThe future of wheat improvement in developing countries remains on the shoulders of public organizations and institutions. It is paramount that we share germplasm, information and knowledge openly,â he said.
He emphasized the need to âkeep the herd togetherâ and maintain strong, global partnerships.
Braun also noted the importance of continuing to improve nutritional content, growing within planetary boundaries, and taking farmersâ preferences seriously. He highlighted CIMMYTâs exceptional capacity as one of the worldâs largest and most impactful wheat breeding programs, and encouraged national partners to continue their close collaboration.
He recalled what Norman Borlaug told him in 2004, when he became head of the Global Wheat Program: “Hans, I have confidence you can lead the program and I will always help you” â and how he did.
âI would like to thank all with whom I cooperated over four decades and who contributed to make CIMMYTâs program strong,â concluded Hans. âI am very optimistic that the global wheat community will continue to develop the varieties farmers need to feed 10 billion.â
The study identified two key explanations for the oversight. The first is that many cereal crops with varying nutritional qualities are indiscriminately grouped under the broad category of âstaples.â
A second problem lies in the fact that cereals are usually considered to be a major source of dietary energy alone. However, reducing nutritional attributes to macro- and micro-nutrients misses other beneficial elements of cereals known as âbioactive food components.â These include carotenoids, flavonoids, and polyphenols, and compounds that comprise dietary fiber.
âMost whole grain cereals provide differing amounts of proteins, fats, minerals and vitamins, in addition to being important sources of dietary energy,â said Jason Donovan, a senior economist at the International Maize and Wheat Improvement Center (CIMMYT) and co-author of the paper published in Food Policy.
âOnly relative to other ânutrient-richâ foodstuffs can cereals be described as ânutrient-poorâ.â
In the paper, entitled Agri-nutrition research: Revisiting the contribution of maize and wheat to human nutrition and health, the authors called on researchers and policymakers to embrace the multiple dietary components of cereals in addressing under- and over-nutrition, micronutrient deficiencies and the growing global problem of non-communicable diseases.
âThrough increasing the availability of, and access to, healthy foods derived from cereals, we can better address the growing triple burden of malnutrition that many countries are facing,â said Olaf Erenstein, co-author and director of CIMMYTâs Socioeconomics program.
âTo feed the world within planetary boundaries, current intakes of whole grain foods should more than double and address tricky issues like the current over-processing, to make the most of the nutrition potential of maize and wheat.â
While some carbohydrates can create a glycemic response that has negative effects on diabetes and obesity, dietary fiber in cereals comprises carbohydrates that are fermented in the large intestine with largely positive metabolic and health effects.
In addition, the naturally-occurring compounds found in maize and wheat can be enhanced through conventional breeding, genomic selection and bio- and industrial-fortification to offer enriched levels of beneficial components.
For example, scientists at CIMMYT have worked on new maize and wheat varieties with additional levels of vitamin A and zinc to help address some of the nutritional deficiencies found worldwide. Researchers are also improving how cereals are produced, processed, and stored to increase productivity and improve food safety while maintaining their nutritional benefits.
One of challenges in maximizing the nutritional benefit of cereal-based foods in diets is that the processing of grains often causes substantial losses of essential vitamins and minerals. Meanwhile, manufacturing industries create ultra-processed foods that often contain noxious qualities and components, which contribute directly to the significant and increasing global health and economic costs of non-communicable diseases.
âIf we are to end hunger by delivering healthy, diverse and nutritional diets in the next decade, we need a broader and more nuanced understanding of the nutritional and health-promoting value of diverse foods, including cereals,â added Nigel Poole, co-author and Professor of International Development at SOAS University, London.
âCereals and so-called ânutrient-richâ foods are complementary in agri-nutrition, both of which require additional research, resources and attention so that one does not replace the other.â
The International Maize and What Improvement Center (CIMMYT) is the global leader in publicly-funded maize and wheat research and related farming systems. Headquartered near Mexico City, CIMMYT works with hundreds of partners throughout the developing world to sustainably increase the productivity of maize and wheat cropping systems, thus improving global food security and reducing poverty. CIMMYT is a member of the CGIAR System and leads the CGIAR programs on Maize and Wheat and the Excellence in Breeding Platform. The Center receives support from national governments, foundations, development banks and other public and private agencies. For more information visit staging.cimmyt.org
To the first-time observer, the aftermath of a fall armyworm infestation must be terrifying. The larvae can cause significant damage to an entire field in a single night, leaving once-healthy leaves looking like tattered rags.
A new instructional video, which will air in Bangladesh, aims to combat both the pest and the distress its appearance can cause with detailed, actionable information for farmers. The video describes how to identify the pest, its lifecycle and the kind of damage it can do to maize â among other crops â and provides techniques for identifying, assessing, and combating an infestation.
This video was developed by the International Maize and Wheat Improvement Center (CIMMYT) with support from the Department of Agricultural Extension (DAE) and the Bangladesh Wheat and Maize Research Institute (BWMRI), as part of the project Fighting back against fall armyworm in Bangladesh. Supported by USAID’s Feed the Future Initiative and Michigan State University, this CIMMYT-led project works in synergy with the Cereal Systems Initiative for South Asia (CSISA), and with national partners to mitigate the impact of this invasive pest on smallholder farmers’ livelihoods.
The video is available in Bangla with English captions.
For the first time, wheat blast, a fast-acting and devastating fungal disease, has been reported on the African continent, according to a new article published by scientists from the Zambian Agricultural Research Institute (ZARI), the International Maize and Wheat Improvement Center (CIMMYT) and the US Department of Agriculture â Foreign Disease Weed Science Research Unit (USDA-ARS).
This year’s Nobel Peace Prize award is likely to turn the eyes of the world to the millions of people who suffer from, or face the threat of hunger. CGTN Africa has been running a series on food production in the continent. The series is in line with this year’s Nobel Peace Prize theme â making food security an instrument of peace. This episode focuses on the impact of improved seeds.
Sashimoni Lohar, a fifty-three-year-old from Badbil village, in Odisha, is like any other woman you would encounter in Indiaâs rural heartlands. Her life is mostly confined within the boundaries of her home and farm.
The COVID-19 lockdown has been hard on people across India, but particularly agonizing for families like Loharâs. Both her sons lost their jobs as laborers, one in a town near home, and the other in a city in a different state. Her younger son Debodutta, a migrant laborer stuck in the southern Indian city of Bengaluru when the midnight lockdown was announced, managed to survive and returned home two months later, aggrieved and penniless. Her husband remained the only earning family member, though on a meager salary, and the family dreaded not only the virus but hunger, as the small reserve of income and rations they had was coming to an end.
Lohar was the only one who refused to give up hope. With support from her village self-help group (SHG), she cultivated two acres of hybrid maize this year. The income generated through selling the crop at a roadside stall next to her farm ensured the wellbeing of her family in this critical period. For a brief time, along with her husbandâs small income, she became the provider for the family with seven mouths to feed during the lockdown.
Lohar did worry for her jobless sonsâ futures but believed that as a successful maize farmer with the skills acquired in the last few years, she can do even better. âMaize farming has supported us during this low-income and very critical period. I shall continue maize cultivation and hope to increase our lease in land next year,â said a visibly triumphant Lohar.
Investing in maize
Today, along with her husband and a new-found entrepreneurial spirit, she hopes to keep Debodutta and her older son closer to home. After lockdown restriction were eased, she invested about Rs.12,000 (roughly US$165) into maize cultivation and set up two stalls by the national highway next to the farm to sell green maize cobs again alongside her family. They made back almost double their investment from less than one acre and she plans to keep the excess as dry grain for the poultry feed mill. A budding entrepreneur full of confidence, Lohar now plans to start a small grocery shop with a loan in the coming months.
A few years ago, many women from these tribal areas in Odisha did not even step out of their houses and villages. They were reluctant to go to the market or the bank â anywhere away from the familiarity of their home. Today, through the opportunities afforded by government economic development programs and collaborations such as the one with the International Maize and Wheat Improvement Centerâs (CIMMYT) Cereal Systems Initiative for South Asia project (CSISA), these women have established themselves as successful maize farmers and entrepreneurs.
Lohar is just one of many women in the rural villages of Odisha â particularly in Mayurbhanj district where COVID-19 has left many male family members jobless â who either individually or in groups erected about 27 small stalls adjacent to their maize fields to sell green cobs to travelers on the highway. Many are very confident and determined to support and lead their families through this difficult time.
Farmer and budding entrepreneur Sashimoni Lohar proudly shows off her new maize stall next to her farm. (Photo: Wasim Iftikar/CIMMYT)
Engaging tribal groups
Mayurbhanj is a district in Odisha where nearly 58.7 percent of the population are from tribal groups. During the kharif â autumn, monsoon and cultivation â season, thousands of hectares of upland are left fallow, due to lack of education and knowledge and tribal farmersâ low risk-bearing capacity. CSISA began working in the district in 2013, improving farming systems for higher yields and providing sustainable livelihood options for tribal farmers.
From 2013 to 2020, CSISA, in collaboration with the State Department of Agriculture, Department of Horticulture, NGO partners, private seed companies, women SHG federations and the Integrated Tribal Development Agency (ITDA), helped develop maize cultivation as an important part of the tribal peopleâs livelihoods. Thousands of hectares of fallow lands are now being converted to cultivate maize, focusing on sustainable agriculture and livelihoods, predominantly involving women as most men were occupied or engaged in migrant jobs. This year alone, more than 100 tribal women from Badbil village have cultivated approximately 120 acres of commercial hybrid maize.
CSISA supports the farmers all the way from sowing to crop harvesting. To strengthen dry grain marketing and to avail the benefits of different schemes under the government of Odishaâs support for farmer producer groups (FPGs), CSISA has formed two womenâs FPGs in Badbil alone. Some of the SHGs working with CSISA on maize cultivation in the region in the last four-five years include Maa Jagat Janani, Johar Jaher Aya, Biswa Jay Maa Tarini, Maa Saraswati, Subha Patni, and Maa Brundabati.
The women from the villages in Mayurbhanj have become well-known, both within and outside the district, for their good quality green cobs and marketing intelligence. These women had the courage to change their circumstances and lifted their families out of situations of uncertainty and hardship. The rows of industrious rural women selling maize by the national highway became national news, and many of the stateâs media channels that come to cover this story hailed their determination and capacity for income generation, even in a pandemic, as symbols of womenâs empowerment in the tribal community.
Cover photo: A womensâ group sells green cobs by the national highway next to their maize farm. (Photo: Wasim Iftikar/CIMMYT)
Donald L. Winkelmann, Director General of CIMMYT from 1985 to 1994. (Photo: CIMMYT)
With sorrow we report the passing of Donald Winkelmann, who served as Director General of the International Maize and Wheat Improvement Center (CIMMYT) from 1985 to 1994.
During his tenure, CIMMYT expanded notably and gained recognition as a research center committed to sustainable agricultural development. Winkelmann successfully negotiated CIMMYTâs final status as a public international organization.
The Center’s first economist, Winkelmann arrived in 1972 to conduct and coordinate what became a landmark series of adoption studies on emerging maize and wheat technologies from CIMMYT. He established CIMMYT’s Economics program and served as its first director.
In his first address as Director General, he emphasized that, when competing against “new forces” and technological changes “the old personality of CIMMYT must endure â the commitment to excellence and action, and to the ideal of making things better.”
Winkelmann was appointed for a second term as Director General by the Board of Trustees in 1990.
On November 23, 1994, he received the Order of the Aztec Eagle â the highest distinction given to a foreigner by the Mexican government. During the award ceremony, the Under-Secretary of Foreign Relations of Mexico, Ambassador Andres Rozenthal, highlighted three stages of Winkelmann’s contributions to Mexico. First, as visiting professor of economics at the Post Graduate College (1966-1971), where he helped train Mexican agricultural economists with new tools and methodologies. Second, as founder and director of the Economics program at CIMMYT (1971-1985), where he addressed themes such as on-farm research and comparative advantage studies, generated research methodologies, and carried out training workshops in agricultural economics. Lastly, as Director General of CIMMYT (1985-1994), where he helped strengthen collaboration between CIMMYT and Mexican research institutions, while working on allocation of resources to research, strategic planning and research impacts.â
After retiring from CIMMYT in November 1994, Winkelmann accepted the appointment of Chair of the CGIARâs Technical Advisory Committee (TAC).
The CIMMYT community sends its warmest condolences to the Winkelmann family.
Donald L. Winkelmann, Director General of CIMMYT from 1985 to 1994. (Photo: CIMMYT)
Donald L. Winkelmann, Director General of CIMMYT from 1985 to 1994. (Photo: CIMMYT)
Donald L. Winkelmann, Director General of CIMMYT from 1985 to 1994. (Photo: CIMMYT)
Director General Martin Kropff (left) and former Deputy Director General Marianne BĂ€nziger (third from left) greet Donald Winkelmann and his wife Breege during a visit to the CIMMYT headquarters in October 2019. (Photo: CIMMYT)
Masuriya, a rural village in Nepalâs Gauriganga municipality, was one of the villages affected during the countryâs civil war which ran from 1996-2006. Since 2012, Bandana Joshi, chairperson of a local cooperative, has been encouraging women in her village to optimize fertilizer application to maximize plant growth and profitability, and improve livelihoods. However, her journey to this day was not an easy one.
In the years of the civil war, women in the villages like Masuriya faced the burden to make ends meet for their children and elderly family members, as most men fled in fear of war or migrated to earn income. It was during this time that Joshi and a group of 24 women who were operating a savings and credit firm realized that more women in their village needed monetary support to carry out their livelihood activities. They decided to expand their services and formed a cooperative to empower rural women and make finance available in the village. Their cooperative, Sana Kisan Sahakari Sanstha Limited, now has 1,186 women members, more than half of whom belong to marginalized communities â 514 Janajatis and 154 Dalits.
Many of the members are small commercial farmers, owning about 1.4 ha of land for farming as their sole source of income. Most have traditionally grown cereals such as rice and wheat alongside a few vegetables and had limited knowledge on cash crop farming and soil fertility management. They would produce and sell their surplus rice and wheat when they needed cash to buy groceries or pay household bills.
Cooperative member prepares cauliflower for marketing. (Photo: Uttam Kunwar/CIMMYT)
In October 2016, researchers from the International Maize and Wheat Improvement Centerâs (CIMMYT) Nepal Seed and Fertilizer (NSAF) project and the International Fertilizer Development Center (IFDC), launched an integrated soil fertility management (ISFM) program and worked alongside the cooperative to disseminate and encourage the use of ISFM technologies among its members. The purpose was to show farmers the benefits of ISFM â an integration of organic inputs and inorganic fertilizers with improved seeds â for rice, wheat and cauliflower cultivation, that includes balanced fertilizer application to increase yield. The project team conducted research trials and on-farm demonstrations on these crops as part of the initiative and built capacity through farmer field days and trainings on best management practices.
As a strategic entry point, the cooperative in coordination with female community volunteers helped implement the ISFM program. Women received training on the right source and amount of fertilizer that matches crop needs, and the right time and place to apply these fertilizers to maximize nutrient uptake and improve crop yields. NSAF researchers engaged with lead farmers and the cooperativeâs leadership to influence their acceptance of the new fertilizer application practices, and they in turn motivated the members to use balanced fertilizer application. In 2020, these activities have been critical in building awareness on balanced fertilizer application for more than 800 farmers on over 700 ha of land, with each household able to raise their crop productivity by at least 50% for vegetables and 25% for cereals.
Better soil, better harvest
So far, the use of balanced fertilizer application has benefited more than a hundred members of the cooperative by gaining an average income of $219 in a season from cultivating cauliflower â a cash crop in Nepalâs Terai region. This additional return has helped farmers to adequately feed an average family of 4.5 people for the entire year.
Dutrani Chaudhary, a cooperative member, said that she was able to raise cauliflower production by 64% by applying balanced fertilizers that supplied all the essential nutrients â nitrogen, phosphorus, potash and micro-nutrient boron. She earned about $238 from 0.033 ha of land, which is a much larger gain for any farmer from a single season. As well as boosting her pride and confidence, she can now contribute for her childrenâs school fees and household expenditures.
After witnessing positive results, many other farmers in the village started applying major nutrients using urea, DAP (Di-ammonium Phosphate) and MoP (Muriate of Potash) to increase crop productivity. In 2017, Joshi and her members noticed a sharp rise in fertilizer procurement from the cooperative among farmers resulting in almost double the sales compared to 2015. Prior to the projectâs agronomic literacy programs on soil fertility management, she sold merely 15 tons urea and 10 tons of DAP. Thereafter, fertilizer sales increased to 32.6 tons and 27.9 tons, for urea and DAP respectively, in just two years.
âFor the first time in 2018 we sold 500 kilograms of MoP since the cooperative established,â explained Joshi. MoP was never considered a priority by the farmers before and they rarely purchased it from the cooperative.
Women participating in farmer field day of cauliflower in Masuriya. (Photo: Uttam Kunwar/CIMMYT)
On the rise
Now more organized and well-equipped, the cooperative has started organizing programs this year on off-seasonal and seasonal vegetable cultivation on crops such as tomato, cauliflower and cucurbits that have aided around 150 member households. âWe have prioritized balanced fertilizer application in our vegetable production program,â says Madhuri Chaudhary, manager of the cooperative.
The woman-led rural institution has achieved remarkable success over the years by learning and adopting best agronomic practices including fertilizer application, planting and cultivation methods that helped increase crop productivity and household income. Having seen the benefits, male family members now encourage them to participate in agronomic literacy programs to acquire advanced knowledge and skills.
Joshi and her team of visionary women have been successful in setting up an inclusive new movement in Masuriya village, which has led to their active participation in development activities and decision-making roles not only at the household level but also in societal issues around womenâs rights. Passionate to learn new skills and grow financially independent, these rural women are confident in making their own decisions for themselves, their family and for the wider society. Although it started small, the cooperative has now boomed towards improving rural womenâs economic empowerment and sparking better livelihood opportunities in the area.
Cover photo:Â Balanced nutrient management helps farmer Dharma Devi generate better household income from cauliflower cultivation. (Photo: Uttam Kunwar/CIMMYT)
Blockchain promises to revolutionize the economic system by changing the way we communicate over the internet. Though it is best known for tracking bitcoin, many researchers believe the digital trust technology can have positive social and environmental benefits through supply chains. This is one of the foundational principles of AgriFoodTrust, a testing and learning platform and knowledge base for digital trust and transparency technologies.
However, at the moment there is little research into the mechanisms by which blockchain implementations in the supply chain create these positive impacts, said Susanne Köhler, a doctoral student at Aalborg University, who is working to examine exactly how blockchain-based technologies can change supply chains for good.
Blockchain is a distributed ledger technology that allows the storing and exchange of assets and information between two entities globally in a secure, transparent and immutable way, without the need for a trusted centralized authority to authenticate parties and validate transactions. It offers the opportunity to revolutionize how we trust individuals and institutions and how we view contracts, certifications, land titles, medical records and personal data.
In the food system for example, blockchain is being used to improve trust by tracking information along the supply chain to curb the spread of counterfeit maize seeds in Africa.
As part of her research, Köhler is interviewing actors working with blockchain from a range of industries to further explore how this disruptive technology can be used to increase the resilience of individuals, communities and ecosystems. Her research is carried out at Aalborg University within the Sustainable Blockchain Technologies project financed by the Independent Research Fund Denmark â Social Sciences.
Köhler answered a few questions about her research.
Could you please explain the aim of your research? Who are you interviewing?
The purpose of this study is to discover the mechanisms by which blockchain-based technologies in the supply chain create positive social and environmental impacts. It has been claimed that blockchain will bring a variety of positive impacts, but it is unclear how and if the impacts are due to blockchain or another component in a system of technologies. We want to find out what the status-quo of blockchain-based technologies in the supply chain is, what impacts these implementations currently have and might have in the future, and how these impacts are generated. To do so, I am interviewing different actors involved in implementing blockchain-based technologies in supply chains such as technology developers, brands and NGOs. At this point, I do not focus on a specific industry.
What can we learn by comparing approaches to blockchain in different supply chains to improve social and environmental impact?
All blockchain-based implementations are different. They can differ in terms of system architecture, governance structures, implementation stage and environmental factors. Blockchain is a component in a system of technologies. One implementation may work with facial recognition to identify trusted producers and verify asset registration. Others may use registered mobile phones to enter assets to the blockchain. As the technology is still in its infancy and many implementations are in early stages, looking at different implementations can help us gain an understanding of blockchainâs overall potential. Each case can provide a different perspective that highlights how blockchain brings impacts. This helps to shape the larger picture. In turn, individuals can learn from this larger picture.
Maize seed ready for planting in Nicaragua. (Photo: Neil Palmer / CIAT)
What barriers do projects face implementing blockchain in projects? How will your research help overcome these challenges?
Impact is defined as changes to specific targets such as human wellbeing or ecosystem wellbeing. It is important to measure these impacts in order to understand the gains of having a blockchain-based implementation and to help anticipate drawbacks before the technology scales up. Currently, few projects are measuring impact, because they are still in early stages. This means that we are working with few data, novel implementations, uncertain conditions and small-scale implementations. Therefore, we interview different projects and different kinds of actors â such as technology providers or brands. We want to understand blockchain-based technologies in the supply chain, gain an understanding of their benefits, and provide a scientific basis to explain how blockchain currently impacts supply chains and how it may do so in the future. This will help anticipate drawbacks, focus on developing the potentials for blockchain to be used to create impact, and communicate benefits more clearly. This knowledge may be important for overcoming regulatory and other barriers.
What do you aim to do with your results? Who will benefit?
The results will be published in a peer-reviewed journal ensuring scientific rigor. We want to contribute to the discussion of how blockchain creates positive social and environmental impacts. The results may support decision-making of various stakeholders including brands, technology providers and policy makers.
Can you tell us about the Sustainable Blockchain Technologies project?
Experts have claimed that blockchain will be a game changer in many different industries. It may even change the world we live in for the better. The Sustainable Blockchain Technologies project develops from this premise to investigate and anticipate the environmental and social effects of blockchain beyond the hype and with solid scientific basis. The main hypothesis is that while blockchain allows for secure, robust, and trustworthy solutions, and can bring clear improvements compared to current technologies in terms of traceability and transparency, this comes at a cost. Thus, the main objective of the project is investigating what environmental and social impacts blockchain will have as an alternative or substitute of currently available technologies. We look at this broad objective from two different perspectives. First, we conduct environmental assessments of blockchain technology itself. Second, we analyze blockchain potentials of applications in the supply chain.
This story was originally posted on the website of the CGIAR Platform for Big Data in Agriculture (https://bigdata.cgiar.org/).
Cover photo: Sita Kumari, farmer, uses mobile phone apps to enhance her yields and get access to market and labor. (Photo: C. De Bode/CGIAR)