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In Burkina Faso, a business model for mechanization is providing hope

Ouattara Ali grows rice and maize on a small parcel of land in a village on the outskirts of Bobo Dioulasso, Burkina Faso’s second-largest city.

In the eight years since he began farming, he has faced significant challenges because he depends on traditional practices. Other smallholders in the community are in a similar situation, which limits their ability to realize greater prosperity.

A steady trickle of young adults is leaving the area to find work in the city as an alternative to the difficulty of trying to make ends meet on limited hectarage, coping with erratic harvests and with no guarantee of long-term financial stability.

This story is not unique to Ali and his community – it is familiar across Burkina Faso and other nations where the problems of food security, reliable employment, and dependable income limit economic development in rural areas.

Mechanization as a business

To help communities tackle these challenges, in 2014 Germany’s Federal Ministry for Economic Cooperation and Development (BMZ) created the special initiative One World No Hunger, which launched Green Innovation Centers for the Agriculture and Food Sector (GIC) in 14 countries in Africa and two in Asia. In Burkina Faso, the GIC focuses primarily on the sesame and rice value chains in the Hauts-Bassins, Cascades, Boucle du Mouhoun, and Sud-Ouest regions.

These initiatives include the introduction of mechanized agricultural practices that can increase yields of maize, rice, and other crops. In connection with GIC, farmers like Ali have used machines across the full agricultural value chain – from seed development to post-harvest – to improve their own crop yields. Mechanization has also enabled them to offer their services for hire to other farmers in the area.

Mechanization is a significant economic driver for boosting development of farm areas, but to achieve sustainable success and maximize the ability to bring transformative change to communities, business model development must be a critical focus area.

One of Ouattra Ali’s two-wheel tractors that he uses to provide machinery hire services to nearby farmers. (Credit: Rabe Yahaya/GIZ)

In August, the International Maize and Wheat Improvement Center (CIMMYT) and Deutsche Gesellschaft fuer Internationale Zusammenarbeit (GIZ) GmbH, collaborated with the United Nations Food and Agriculture Organization (FAO) and Germany’s University of Hohenheim to host a webinar on business models for agricultural mechanization projects. Joining the conversation were 48 participants from countries including Burkina Faso, Nigeria, Benin, and Vietnam.

During the webinar, FAO Senior Consultant Karim Houmy presented research on business models from two case studies of agricultural mechanization hire services in sub-Saharan Africa. Houmy found five basic types of business model, each with its own structure, complexity, and requirements, but he also outlined common features that characterize all successful models.

Many models, a few key principles

The basic business model for agricultural mechanization involves a farmer who uses machinery on their own crops, and then subsequently provides the same services to neighboring farmers. This model is probably the simplest and least expensive. Any smallholder who can procure the necessary machinery, parts, and training can launch this small business, generate additional income, and help neighbors increase their yield. This model also has limits, however, as it restricts farmers to a relatively small footprint of clients whose farms are located near the service provider.

At the other end of the scale is an enterprise model where an entrepreneur does not own any farm machinery but uses mobile phones and geographic information system (GIS) technology to connect farmers with service providers. This model provides a much greater geographical scope as well as greater opportunities for growth and innovation. It also adds layers of complexity that require a network of intermediaries – from machinery dealers and mechanics to booking agents – and bank financing.

The more diverse in operational offerings a business model is, the more promise it holds for generating economic growth and food security. This occurs by spreading activity across a wider geographic region, providing yield-increasing services for more farmers, employing more workers, and generating increased demand up and down the supply chain.

In addition to laying out the range of business models in operation today, Houmy identified success factors important for all, including long-term access to financing and local infrastructure, both of which are structural issues that entrepreneurs have less immediate control over. GIC works to address this shortcoming by involving a broad range of stakeholders, including government actors, in addressing issues of sustainability.

Houmy encouraged entrepreneurs to focus on areas like cultivating a skilled staff, building close links with processors and aggregators, and diversifying the services they offer. This sort of business model training can translate into significant improvements on the ground.

Building a business

Life began to change dramatically for Ali when his local agricultural bureau connected him to the GIC in his area.

Through his relationship with GIC, Ali gained access to some basic mechanized farming equipment, including disc plows, harrows, and planters, which revolutionized his work. He now prepares his rice and maize fields more quickly and evenly. He plants them more efficiently and spends less time harvesting while producing equal and sometimes higher yields. To support this transition, GIC provided training in agricultural mechanization, seed production, and financial management.

Initially, Ali sustained an injury while using a harrow and trailer. Thankfully, this did not slow him down for long, he said. He learned how to regularly tighten components of the machine to avoid further injuries and other safety problems.

Soon, Ali began using his machines to provide services to his neighboring farmers as well, helping them with land preparation, transportation, and planting.

Today, 22 local farmers use Ali’s services, and his community is experiencing the benefits. Less time is spent on planting and harvesting while agricultural yields are increasing. Mechanization marked a sharp decline in the drudgery associated with farming tasks, especially for the area’s youth and women.

Ali is thinking about the future by expanding and diversifying. He plans to buy a seeder and a thresher if he can get financing, and he is interested in additional training. He is developing a business plan for a larger enterprise that would be “the farmers’ one-stop shop” for mechanization services in his area. With the profits so far, he has built a house for his wife and two children and bought a small car.

GIC has supported 26 service providers like Ali in Burkina Faso as well as others in Benin, Mali, and Kenya. Over time, the proliferation of sustainable agricultural operations like Ali’s, as well as their growth into more complex and more profitable business networks, holds enormous promise for rural areas where food security, sustainable employment and a baseline of prosperity have been elusive for far too long.

Cover photo: Workers on Ouattra Ali’s farm outside of Bobo Dioulasso, Burkina Faso. (Credit: Rabe Yahaya/GIZ)

Because error has a price

A systematic review conducted by a team of scientists from the International Maize and Wheat Improvement Center (CIMMYT) has revealed that many farmers around the world incorrectly identify their crop varieties, with significant impacts on their farming practices, yields, profits, and research.

The review, published this month in Outlook on Agriculture, brings together information from 23 published studies to sketch crop variety misclassification among farmers, its determinants, and the implications of classification errors on the farm and in research.

“We found that seven out of ten farmers incorrectly identified the grown variety when they were asked to identify the variety by its specific name. When farmers were asked if the grown variety was either improved or local, three out of ten farmers made incorrect classifications,” said Michael Euler, first author of the study and agricultural resource economist at CIMMYT.

Whether farmers correctly identify crop varieties has a knock-on effect on their farming practices, which in turn affects their crop yields and income. This can bleed into research, impacting experiments and evaluation studies of agricultural technologies and methods. For example, scientists might assign treatment and control groups based on incorrect farmer variety classification, potentially leading to biased estimates and data discrepancies.

“Varietal misidentification can lead to improper agronomic management, forgone farm revenue, and seed system malfunctioning. From a monitoring and evaluation perspective, the potential presence of bias in estimates due to varietal misclassification is problematic as it may mask the true costs and benefits of seed technologies,” said Euler.

Immature wheat seeds. Ciudad Obregon, Mexico 2017. (Photo: Peter Lowe/CIMMYT)

The study is the first systematic review of the use of DNA fingerprinting – a method that uses molecular markers to identify crop varieties – to assess how accurate farmers are in identifying their varieties and the impacts this has on seed markets, crop performance, farm profits, and research.

“The use of DNA fingerprinting to identify crop varieties in farmers’ fields has emerged only recently. The review of existing literature, nonetheless, shows its potential to strengthen the functioning and effectiveness of seed markets, supply chains, and extension services,” said Vijesh Krishna, co-author of the study and senior scientist at CIMMYT.

The results of the review show that cases of farmers misidentifying varieties are widespread, causing problems for farm productivity and profits, as well as research. The authors also found that DNA fingerprinting can shed light on what drives farmers to misidentify varieties and how they can minimize misclassification.

“Varietal misidentification is not only related to farmer and farm characteristics but also depends on the properties of the seed system through which seeds are obtained. We need more comprehensive modeling approaches to improve our understanding of the system-level drivers of farmer varietal misclassification,” said co-author and CIMMYT senior agricultural economist Moti Jaleta.

However, like most technologies, DNA fingerprinting has its limitations. It may not always be feasible in all settings, and the costs may offset the benefits in areas where formal seed markets are already well-functioning.

“DNA fingerprinting is considered a reliable method to accurately identify varieties grown by farmers and is increasingly seen as the ‘gold standard’ for varietal identification. However, it requires a high-quality reference library, a well-designed sampling strategy, and accurate tracking of plant samples from collection sites to the point of analysis,” said CIMMYT senior scientist and co-author David Hodson.

Based on the results of the analysis, the authors recommend integrating DNA fingerprinting into existing national data collection toolboxes to accurately estimate adoption and turnover rates of improved crop varieties and to evaluate existing genetic crop diversity on farms. Understanding and promoting genetic crop diversity are crucial steps for enhancing food security and increasing the climate and pest and disease resilience of crops.

Having accurate estimates of adoption and turnover rates of varieties, combined with seed supply system assessment, can also help researchers and decision-makers pinpoint any bottlenecks or loopholes in the “lab to farm” process, according to the authors.

“The review aims at helping researchers and policymakers strategize to more effectively assess the functioning and effectiveness of seed diffusion systems to deliver modern seeds to smallholders,” concluded Krishna.

Read the full study: Because error has a price: A systematic review of the applications of DNA fingerprinting for crop varietal identification

Cover photo: Farmer examines wheat seed. Ciudad Obregon, Mexico 2017. (Photo: Peter Lowe/CIMMYT)

The right time for the right place

Wheat is a strategically important crop for Afghanistan because as a major source of nutrition — accounting for up to 60% of a family’s daily caloric intake — it is linked directly to national food security. However, despite occupying over 2.5 million hectares of arable land across the country, Afghanistan does not currently produce enough wheat to meet the needs of a growing population. On average, annual production is estimated at around 5 million metric tons — 2 million metric tons less than needed — and as a result Afghanistan makes up this significant shortfall by importing wheat flour from neighboring countries where wheat productivity is significantly higher.

There is tremendous potential to increase national wheat productivity by introducing improved agronomic practices and making use of suitable farming technologies. However, given Afghanistan’s vast agro-ecological diversity, it is essential that best practices are recommended based on local conditions, as these vary greatly across the country.

Take seeding, for instance. Sowing wheat seed at the optimum time has been shown to help maximize yields and significant research has been undertaken to determine the optimal sowing dates for winter and spring wheat in different areas. These times are governed not only by environmental requirements and growing cycles, but also by the need to avoid certain diseases and insect pests, which may be more prevalent at specific times of year.

But these can vary widely even within a season. For example, research shows that the best time to sow irrigated winter wheat in Afghanistan’s hot and arid western provinces is from the second week of October up until the end of the month. However, the optimum window falls one month later in the more mountainous and forested provinces of the East, and even later for rain-fed wheat.

The same distinctions apply to seeding and fertilizer application rates, which can vary subtly between similar regions. Consider that the optimum seed rate for irrigated wheat sown using the broadcast method is the same in both the Northern and Central zones, 25-30 kilograms per jerib (approx. half an acre). One might expect the optimum rates for row cultivation to match, but in fact they differ by two kilograms. This might not seem like much, but given how significantly seed density and spacing influence crop yield and quality, these figures are vital knowledge for farmers looking to maximize their yield potential.

To help disseminate these research-based recommendations to farmers and local agricultural extension staff, researchers at the International Maize and Wheat Improvement Center (CIMMYT) have partnered with Afghanistan’s Ministry of Agriculture, Irrigation and Livestock, Michigan State University’s Global Center for Food Systems Innovation and the USAID to compile four new booklets featuring zone-specific advice for irrigated and rain-fed systems in each of Afghanistan’s main agro-ecological zones.

Covering between four and ten provinces each, these guides include localized recommendations for the best sowing dates, nutrient management, weed management, and best practices in irrigation, arming wheat farmers with the key information they need to effectively increase production in their area and support the country’s wider food security needs.

More information is available in the booklets below:

Zone-Specific Recommendations for: Northern Region

Zone-Specific Recommendations for: Central Region

Zone-Specific Recommendations for: Eastern Region

Zone-Specific Recommendations for: Western Region

Cover photo: The optimal time for wheat sowing in Afghanistan varies by region according to the country’s vast agro-ecological diversity. CIMMYT recommends a localized approach. (Photo: Rajiv Sharma/CIMMYT)

Quality protein maize: a road ahead

Maize, along with wheat and rice, provides around 30% of food calories to more than 4.5 billion people in 94 developing countries. These statistics declare that maize is an important crop to ensure food and nutritional security for poor communities in Africa, Asia and Latin America.

Limited diversification in dietary food and higher per capita maize consumption indicates that a great proportion of the population in developing countries are lacking in essential nutrients like micronutrients and amino acids.

Rigorous efforts by International Maize and Wheat Improvement Center (CIMMYT) maize breeder Surinder K. Vasal and cereal chemist Evangelina Villegas in the early 1980s led to the development of an improved maize kernel with higher yield and vitreous appearance by combining the opaque-2 and genetic modifier systems by using backcrossing and recurrent selection. These efforts led to development of an improved maize known as quality protein maize (QPM).

QPM ensures the nutritional security of maize dependent communities. It is described as nutritionally superior maize with high lysine, tryptophan and leucine contents along with high biological value and high protein intake. QPM also has higher contents of non-zein protein (albumin, globulin and glutelin fractions), which are rich in lysine and tryptophan.

The development of QPM was comprised of a series of efforts across many decades to develop promising varieties. CIMMYT described the term QPM for maize genotypes with improved lysine and tryptophan contents and hard endosperm texture. Now, QPM is referred to maize genotypes with homozygous o2 alleles, increased lysine and tryptophan contents, and without harboring the negative pleiotropic effects of soft endosperm.

In recent years, CIMMYT has developed several QPM varieties across many countries with different genetic backgrounds. However, to fast track the deployment of QPM at scale, it needs a vibrant seed system in place and a viable business model which ensures an active engagement of seed producers, farmers and consumers.

This review article discusses the importance and timeline of various events in QPM development and dissemination, genetic basis and systems, breeding strategies, challenges and potential opportunities for QPM adoption. “We can consider the article as a compendium of QPM where it addresses historical background and scientific breakthroughs which will be useful to researchers, students and others who are looking for a comprehensive information on QPM,” said AbduRahman Beshir, CIMMYT’s senior scientist and maize seed systems specialist for Asia, who co-authored the publication.

Read the full study: Quality protein maize (QPM): Importance, genetics, timeline of different events, breeding strategies and varietal adoption

Cover photo: Scientists have discovered that Quality Protein Maize (QPM) can mitigate the protein deficiency found in regular maize. (Credit: CIMMYT)

Special issue on gender research in agriculture highlights CIMMYT’s work on gender inclusivity

A new special issue on gender research in agriculture highlights nine influential papers published in the past three years on gender research on crop systems including maize.

The virtual special issue, published earlier this month in Outlook on Agriculture, features work by International Maize and Wheat Improvement Center (CIMMYT) scientists on gender inclusivity in maize systems in Africa and South Asia.

In the Global South, women contribute substantial labor to agriculture but continue to face barriers in accessing agricultural resources, tools and technologies and making decisions on farms.

Combatting gender inequality is crucial for increasing agricultural productivity and reducing global hunger and poverty and should be a goal in and of itself. Evidence suggests that if women in the Global South had access to the same productive resources as men, farm yields could rise by up to 30 percent, increasing total agricultural output by up to 4 percent and decreasing the number of hungry people around the world by up to 17 percent.

The latest virtual special issue includes a review of existing research by CIMMYT gender experts, exploring issues and options in supporting gender inclusivity through maize breeding and the current evidence of differences in male and female farmers’ preferences for maize traits and varieties. The team also identified key research priorities to encourage more gender-intentional maize breeding, including innovative methods to assess farmer preferences and increased focus in intrahousehold decision-making dynamics.

The issue also features a study by CIMMYT and Rothamsted Research researchers on differences in preferred maize traits and farming practices among female and male farmers in southern Africa. The team found that female plot managers and household heads were more likely to use different maize varieties and several different farming practices to male plot managers and household heads. Incorporating farming practices used by female farmers into selection by maize breeding teams would provide an immediate entry point for gender-intentionality.

Also included is a recent paper by CIMMYT gender researchers which outlines the evidence base for wheat trait preferences and uptake of new farming technologies among male and female smallholder farmers in Ethiopia and India. The team highlight the need for wheat improvement programs in Ethiopia and India to include more gender-sensitive technology development, evaluation and dissemination, covering gender differences in wheat trait preferences, technology adoption and associated decision-making and land-use changes, as well as economic and nutritional benefits.

In a study carried out in the Eastern Gangetic Plains of South Asia, CIMMYT scientists investigated how changes in weed management practices to zero tillage – a method which minimizes soil disturbance – affect gender roles. The team found that switching to zero tillage did not increase the burden of roles and responsibilities to women and saved households valuable time on the farm. The scientists also found that both women and men’s knowledge of weed management practices were balanced, showing that zero tillage has potential as a gender inclusive farming practice for agricultural development.

Also featured in the special issue is a study by CIMMYT experts investigating gender relations across the maize value chain in rural Mozambique. The team found that men were mostly responsible for marketing maize and making decisions at both the farm level and higher levels of the value chain. The researchers also found that cultural restrictions and gender differences in accessing transport excluded women from participating in markets.

Finally, the collection features a study authored by researchers from Tribhuvan University, Nepal and CIMMYT exploring the interaction between labour outmigration, changing gender roles and their effects on maize systems in rural Nepal. The scientists found that the remittance incomes sent home by migrants and raising farm animals increased maize yields. They further found that when women spent more time doing household chores, rearing farm animals and engaging in community activities, maize yields suffered, although any losses were offset by remittance incomes.

Read the study: Virtual Special Issue: Importance of a gender focus in agricultural research for development

Cover photo: Women make up a substantial part of the global agriculture workforce, but their role is often limited. (Credit: Apollo Habtamu/ILRI)

Connect rural areas with digital innovations to unlock climate resilience for hundreds of millions of farmers

A female farmer using digital agricultural tools. (Credit: C. De Bode/CGIAR)

Research shows that digital innovations can increase small-scale farmers’ incomes, boost the adoption of better practices, and increase resilience to climate shocks while reducing the gender gap and managing food system risks. However, these benefits are not universal. More than 600 million people and 40 percent of small farms are still not covered by mobile internet, especially in those countries most dependent on agricultural production. Across low- and middle-income countries, women are 7 percent less likely than men to own a mobile phone and 15 percent less likely to use mobile internet.

A new CGIAR Research Initiative, Digital Innovation, has been launched to research pathways to bridge this digital divide, improve the quality of information systems, and strengthen local capacities to realize the potential of digital technologies.

Read the original article: Connect rural areas with digital innovations to unlock climate resilience for hundreds of millions of farmers

Scientist urges upgrades to monitor groundwater use for agriculture in low-income countries

Data collector reading data from offline groundwater level logger – one of the three tested monitoring technologies. (Credit: Subash Adhikari/CIMMYT)

Based on a pilot study regarding the feasibility and cost effectiveness of several groundwater monitoring approaches for agriculture in Nepal’s Terai region, a water and food security specialist who led the research has recommended the use of phone-based systems.

Speaking to diverse experts at the recent World Water Week 2022 in Stockholm, Sweden, Anton Urfels, a systems agronomist at the International Maize and Wheat Improvement Center (CIMMYT), said that manual monitoring with phone-based data uploading is relatively low-cost and effective and could be scaled up across the Terai.

“One alternate monitoring approach studied — online data uploading — has substantially lower staff time requirements and technology costs and higher temporal resolution than phone-based monitoring, but does not provide real-time data and entails high technical skills, capital costs, and risks of theft and damage,” said Urfels in his presentation, ‘Upgrading Groundwater Monitoring Networks in Low-Income Countries’.

Urfels and partners also developed a prototype of an open-source groundwater monitoring dashboard to engage stakeholders, help translate raw data into actionable information, and detect water depletion trends.

Water has become a key part of food research and innovation, critical for sustainable and ecological intensification in agriculture, according to the scientist.

“Collecting groundwater data is difficult and the technology for monitoring is unreliable, which impairs effective modeling, decision-making, and learning,” Urfels explained. “Like other countries in the region, Nepal is increasing its agricultural groundwater consumption, particularly through private investment in irrigation wells and pumps that open irrigation to more farmers. This and climate change have altered groundwater recharge rates and availability, but national data on these trends are incomplete.”

An extensive lowland region bordering India and comprising one-fifth of the nation’s territory, the Terai is Nepal’s breadbasket.

Held yearly since 1991, World Water Week attracts a diverse mix of participants from many professions to develop solutions for water-related challenges including poverty, the climate crisis, and biodiversity loss. The 2022 theme was “Seeing the Unseen: The Value of Water”.

“I’d recommend more pilot studies on phone-based groundwater monitoring for other areas of Nepal, such as the Mid-hill districts,” Urfels said. “We also need to fine-tune and expand the system dashboard and build cross-sectoral coordination to recognize and take into account groundwater’s actual economic value.”

Urfels said the Nepal Ministry of Energy, Water Resources and Irrigation has requested the nationwide scale-out of a digital monitoring system, and CIMMYT and Nepal experts will support this, as well as improving the system, which would be freely available for use and development by researchers and agencies outside of Nepal.

The research described was carried out under the Cereal Systems Initiative in South Asia (CSISA), which is funded by USAID and the Bill & Melinda Gates Foundation, and under the CGIAR integrated research initiative, Transforming Agrifood Systems in South Asia (TAFSSA).

Opinion: Feeding people on this warming Earth requires future-proofing our agri-food systems. Here’s how.

The existing model of funding for agricultural research and development (R&D) is not equipped for the challenges it needs to meet, according to an opinion piece for MarketWatch, penned by Bram Govaerts, Director General of the International Maize and Wheat Improvement Center (CIMMYT) and Elizabeth Cousens, President and Chief Executive Officer of the United Nations Foundation.

To tackle climate change, address hunger and malnutrition, and revive rural livelihoods, Cousens and Govaerts call for increased and more balanced investment in R&D for agri-food systems, using a participatory model to take advantage of knowledge sharing.

Co-designed projects, such as MasAgro, which involve local communities and value chain actors, can be vital in bridging the R&D gap.

Read the article: Opinion: Feeding people on this warming Earth requires future-proofing our agri-food systems. Here’s how.

Weather data and crop disease simulations can power predictions of wheat blast outbreaks, new study shows

Cutting-edge models for crops and crop diseases, boosted by high-resolution climate datasets, could propel the development of early warning systems for wheat blast in Asia, helping to safeguard farmers’ grain supplies and livelihoods from this deadly and mysterious crop disease, according to a recent study by scientists at the International Maize and Wheat Improvement Center (CIMMYT).

Originally from the Americas, wheat blast shocked farmers and experts in 2016 by striking 15,000 hectares of Bangladesh wheat fields, laying waste to a third of the crops. The complex interactions of wheat and the fungus, Magnaporthe oryzae pathotype Triticum (MoT), which causes blast, are not fully understood. Few current wheat varieties carry genetic resistance to it and fungicides only partly control it. Warm temperatures and high humidity favor MoT spore production and spores can fly far on winds and high-altitude currents.

Mean potential wheat blast disease infections (NPI) across Asia, based on disease and crop infection model simulations using air temperature and humidity data from 1980-2019. Black dots represent wheat growing areas with presumably unsuitable climates for wheat blast. The x and y axes indicate longitude and latitude.

“Using a wheat blast infection model with data for Asia air temperatures and humidity during 1980-2019, we found high potential for blast on wheat crops in Bangladesh, Myanmar, and areas of India, whereas the cooler and drier weather in countries such as Afghanistan and Pakistan appear to render their wheat crops as unlikely for MoT establishment,” said Carlo Montes, a CIMMYT agricultural climatologist and first author of the paper, published in the International Journal of Biometeorology. “Our findings and approach are directly relevant for work to strengthen monitoring and forecasting tools for wheat blast and other crop diseases, as well as building farmers’ and agronomists’ disease control capacity.”

Montes emphasized the urgency of those efforts, noting that some 13 million hectares in South Asia are sown to wheat in rotation with rice and nearly all the region’s wheat varieties are susceptible to wheat blast.

Read the full study: Variable climate suitability for wheat blast (Magnaporthe oryzae pathotype Triticum) in Asia: Results from a continental‑scale modeling approach

Cover photo: Researchers take part in a wheat blast screening and surveillance course in Bangladesh. (Photo: CIMMYT/Tim Krupnik)

The world cannot ignore the global food crisis and its consequences

Climate change is an undoubted contributor to the global food crisis. Natural disasters and poor weather is leading to 193 million people facing acute food insecurity.

While food aid is vital, improving food systems and reducing reliance on food imports is the route to a long-term solution. In an article for the Des Moines Register, Cary Fowler, US government food security envoy, details the importance of developing reliable local production and well-functioning markets to support farmers.

The United States government’s Feed the Future initiative is addressing some of these challenges, such as by supporting the International Maize and Wheat Improvement Center (CIMMYT) to develop drought-tolerant maize, which is now planted on 17 million acres in Africa. This variety is making a significant difference to food security.

Read the article: Opinion: The world cannot ignore the global food crisis and its consequences

CGIAR’s “GDI Oscars” celebrate the stars behind advancing Gender, Diversity and Inclusion in our workplaces

More than 200 staff came together to celebrate the winners of CGIAR’s first-ever Inclusive Workplace Awards on September 15 at a special online ceremony that rolled out the red carpet from Peru to Penang.

In early June, a call for nominations went out across CGIAR for the Inclusive Role Model, Inclusive Leader, and Inclusive Team Awards, each with clearly stated selection criteria.

When the nomination period closed in early July, more than 150 staff had submitted nominations – indicating the value of CGIAR’s collective work towards creating even more inclusive workplaces.

“It’s our very own GDI Oscars,” said co-host Fiona Bourdin-Farrell, CGIAR’s Global Director of People and Culture, setting the celebratory tone in the first few minutes of the event.

“The Inclusive Workplace Awards allow us to recognize the stars among us who have demonstrated in words and deed their personal commitment to advancing gender, equity and inclusion in our workplaces.”

Inclusive Team Award

The final award of the day, the Inclusive Team Award, went to the CIMMYT Women in Crop Science Team for proactively adopting better ways of working to create an inclusive and respectful team culture.

Members of CIMMYT’s award-winning Women in Crop Science group.

Accepting the award on behalf of the team, Alison Bently, Director of CIMMYT’s Global Wheat Program, said that the Women in Crop Science Team grew out of the significant underrepresentation of women in crop science.

“We established the group to identify and try to collectively address some of the causes of underrepresentation,” she said. “And importantly,” she added “to develop tangible actions broadly covering operational equality, recruitment and retention, and raising awareness and visibility.”

Winding up her acceptance remarks, Alison said: “I think it’s important to say that there’s much work that remains to be done. But the CIMMYT Women in Crop Science Team is committed to working with and supporting colleagues here at CIMMYT, across the CG[IAR], and in the international community to build a more inclusive and diverse community.”

Read the original article: CGIAR’s “GDI Oscars” celebrate the stars behind advancing Gender, Diversity and Inclusion in our workplaces

MasAgro is “a gift for Africa”

Francisco Mayorga joins the CIMMYT Board of Trustees to reflect on MasAgro. (Credit: Francisco AlarcĂłn/CIMMYT)

Between June 20-23, the International Maize and Wheat Improvement Center (CIMMYT) hosted its Board of Trustees meeting, with presentations spanning the breadth of its global projects.

One particular project captured the imagination of attendees: MasAgro, which promotes the sustainable intensification of maize- and wheat-based production systems in Mexico. Through implementing collaborative research initiatives, developing improved varieties, and introducing sustainable technologies and farming practices, the program aims to improve livelihoods and production systems for farmers by enhancing their connections with local value chain actors.

Francisco Mayorga, businessman and former Secretary of Agriculture for Mexico, and Lindiwe Sibanda, CIMMYT board member and member of the CGIAR System Board, presented on the creation of CIMMYT’s MasAgro program and its results. Sibanda interviewed Mayorga to learn where the project’s achievements can be scaled and replicated, describing the project as a “gift for Africa” from Mexico.

Farmers load hybrid maize cobs in sacks for horse transportation over the mountains in Chiapas, Mexico. (Credit: P. Lowe/CIMMYT)

What’s in it for farmers?

Built on the premise of ‘take it to the farmers’, MasAgro helps farmers understand the broader context of agrifood systems in order to facilitate their successful transition to sustainable farming practices. This is accomplished through innovation hubs: core spaces defined by similar agroecological conditions that promote participatory innovation processes and co-implement functional structures for the validation, adaptation, and scaling of sustainable solutions.

Innovation hubs facilitate mentorship by providing closeness between farmers and value chain actors. A physical and virtual network of research platforms, demonstration modules and extension areas support actors to gain skills and knowledge to achieve common objectives. For example, farmers can learn how about agricultural tools and practices and where best to use them on their land, and they now consider the impact of fertilizers on the soil and ecosystem and seek alternatives.

Useful information is provided via multiple communication tools, including mobile messaging, to enable effective knowledge sharing and innovation between actors. The network has led to farmers independently adapting and adopting new practices after learning from others.

The selling point for farmers is understanding why sustainable agriculture creates opportunities for their livelihoods and lives – with improved practices, they can establish a successful long-term setup to increase their yield and income. These opportunities will appeal to smallholders worldwide.

Silvia Suarez Moreno harvests maize in Chiapas, Mexico. (Credit: P. Lowe/CIMMYT)

Benefits for the public and private sector

What also differentiates MasAgro is the emphasis on public and private sector partnerships. CIMMYT collaborated with partners to develop the MasAgro mindset and build their capacity to deliver seed to small- and medium-sized farms. Sibanda praised the use of CIMMYT’s presence in Mexico for developing these connections.

Mayorga highlighted the importance of securing funding and support from the Ministry of Agriculture in the project’s success. He said he initially persuaded colleagues to invest by emphasizing MasAgro’s holistic approach, which considers all elements of farming, rather than dealing with them as individual elements.

Using the different government instruments to support the theory of change towards the impact of MasAgro is part of the success. For example, for businesses, the Mexican government provided funding for laboratory equipment and training needs after identifying seed company partners to support through their research programs and regional markets. Mayorga also celebrated partnerships with small and medium enterprises (SMEs), who were supported by CIMMYT engineers to design more effective machinery and think around scale-appropriate business models. This created additional businesses in the agricultural sector.

Through these partnerships, private sector organizations have invested in agricultural research and development that will benefit smallholders, prevent food insecurity, and support a shift to sustainable farming. Countries in Africa can benefit from similar investment, which could be achieved through exporting and recreating the MasAgro model.

Tzeltal farmer harvests beans in her maize field. (Credit: P. Lowe/CIMMYT)

Flexible government support

Practical support and policy change from the Mexican government further encouraged farmers to adopt sustainable practices. Mayorga explained how a subsidy for farmers’ fuel was replaced with alternative financial support for equipment. Sibanda described this initiative as “visionary” and “a triple win” – farmers could purchase a machine at a subsidized rate, use less labor, and cause less damage to the environment.

To incentivize large companies in Mexico that buy a lot of wheat, Mayorga tapped into their desire “to encourage an economic behavior in the farmer” and introduce a more entrepreneurial approach to agriculture. They encouraged businesses to buy grains from farmers at a better price and learn more about the MasAgro approach.

“You don’t stay with an idea as a policy advisor and politician – you popularize it, look for new champions, walk the talk and put money into it,” summarized Sibanda. “I think that’s a legacy.”

Regenerative agriculture in Mexico: the case of Bimbo

Grupo Bimbo has two pilots with the International Maize and Wheat Improvement Center (CIMMYT) in the Mexican states of Sonora, Sinaloa and Jalisco to embed sustainable practices.

Through regenerative agriculture, an approach which aims to improve soil health and protect water resources and biodiversity, Grupo Bimbo has set the goal of ensuring that 200,000 hectares of wheat are cultivated with regenerative agriculture practices by 2030, ensuring that by 2050 100% of its key ingredients will be produced with this type of practices.

Read more: Regenerative agriculture in Mexico: the case of Bimbo

After the flood

Heavy summer rains have led to severe floods in Pakistan, affecting over 800,000 hectares of land. Rural areas in the southern coastal provinces have been hardest hit with water levels remaining high throughout the Indus River system. This compounds the existing inequalities in livelihoods and represents significant humanitarian as well as agricultural impacts.

Due to flood damage, the estimated direct crop loss by economists stands at around $2.3 billion. Reports indicate that over 32 million people have been displaced by the flooding and urgent humanitarian needs include access to food, water, shelter, and public health.

The International Maize and Wheat Improvement Center (CIMMYT) strongly encourages enhanced investment in ensuring that our agricultural systems can adapt to as well as mitigate climate change impacts. In the current context, the development and distribution of improved wheat seed must be seen as a central pillar of flood response to secure wheat-dependent livelihoods.

No single drop, be it geo-political or climatic, will tip the balance on our global food system. But we must be increasingly aware of the compounding and amplifying effects of each crisis and develop strategies towards more sustainable agri-food systems.

Read the full study: One drop at a time: recent heavy rain has led to flooding in Pakistan, devastating agricultural land, and rural communities

Cover photo: Current areas of cropland and flood-affected crop land in Pakistan. This highlights the significant impacts of the flood waters, particularly on cropland in southern parts of the country. The boundaries shown on this map do not imply official endorsement or acceptance.

Can we accelerate gender equality?

In an introductory essay for the Bill & Melinda Gates Foundation 2022 Goalkeepers report, Melinda French Gates explores progress against the UN General Assembly’s 17 Sustainable Development Goals (SDGs). Latest analysis by the foundation and its partner Equal Measures 2030 suggests gender equality will not be achieved for 100 years, three generations later than hoped.

French Gates believes initiatives to improve gender equality “treats symptoms, not the cause”, which is why the International Maize and Wheat Improvement Center (CIMMYT) incorporates gender equality work into each project. Social norms and gender-based labor division mean women are often confined to set roles in agricultural production, leading to exclusion from decision-making and a lack of control over their economic wellbeing and household food security. Across CIMMYT’s work in the Global South, researchers are addressing multiple aspects of gender inequality.

Training shows women their power

Rina Begum, Nilufar Akter and Monika Rani are Bangladeshi women supported by CIMMYT to achieve their highest economic potential. Developing their business acumen enabled the women to take on essential roles in the workplace, establish themselves in their communities, and fund their children’s education.

CIMMYT-led workshops helped the women grow their self-confidence and identify where their skills and knowledge could enhance their economic situations. In turn, they are keen to help more women access the same opportunities for independence and growth.

“I used to think I wasn’t cut out for light engineering because it was primarily male-dominated, but I was mistaken”, confessed Akter. “This industry has a lot to offer to women, and I’m excited at the prospect of hiring more of them.”

“When women have economic means in their own hands—not just cash, but in an account that they control—it unlocks all kinds of things for their lives,” French Gates says.

Adapting research methods to women’s needs

CIMMYT’s Accelerating Genetic Gains in Maize and Wheat (AGG) project is designing a better framework for faster turnover of improved varieties and increased access for women and marginalized farmers. However, traditional data collection methods may not be suitable for understanding the true experiences of rural women.

Instead, researchers have adapted their data collection methods to cultural restrictions, where women may feel unable to talk openly. Instead of a traditional survey, the team used five vignettes that explore how the production and consumption decisions are held within the households. Respondents then chose the scenario that best represents their own experiences.

Providing opportunities for women to tell their stories in more accessible ways will lead to richer qualitative data, which can improve the development and implementation of gender interventions.

Climate change and gender equality

For International Day of Women and Girls in Science this year, researcher Tripti Agarwal shared her research on the impact of Climate-Smart Agricultural Practices (CSAPs) on women and farming households in Bihar, India. The region is at risk of natural disasters, causing agricultural production loss and food insecurity – with women’s food security more severely affected.

Climate-Smart Villages (CSVs) could offer a solution by acknowledging the gender gap and promoting gender-equitable approaches in enhancing knowledge, developing capacity and improving practices. Through the adoption of climate-resilient practices and technologies, CSV reduces the risk of crop loss and ensures there is enough food for the household.

Agarwal also highlights the work that men must do to level the playing field. “When we talk about women, especially in rural/agricultural contexts, we see that support from the family is critical for them,” said Agarwal. “Creating plans and roadmaps for women would help achieve a gender-empowered agricultural domain, but we must also bring behavior change among men towards a more accepting role of women in farming and decision making.”

During field day, women farmers use a mini tiller for direct seed. Training women in new technologies improves their opportunities and income. (Credit: P. Lowe/CIMMYT)

Careers for women in science

CIMMYT’s global presence provides opportunities for women to launch and grow their careers in science, technology, engineering, and mathematics (STEM).

Madhulika Singh, an agricultural scientist with CIMMYT’s Cereal Systems Initiative for South Asia (CSISA) project, made what was seen as a radical choice to study a STEM subject. She was inspired by seeing other women in her family build successful careers, showing the power of role models in inspiring the next generation. “I grew up thinking ‘there is so much that a woman is capable of,’ whether at home or her workplace,” said Singh.

Initiatives such as CIMMYT’s Women in Crop Science group also help to highlight role models, create mentorship opportunities, and identify areas for change. The group recently received the Inclusive Team award at the inaugural CGIAR Inclusive Workplace Awards.

“When I see women achieving their dreams in science, or as businesswomen, and supporting other women, that keeps me hopeful,” said French Gates.

Read the article: Melinda French Gates on her foundation’s shocking findings that gender equality won’t happen for 100 years: ‘Money is power’

Cover photo: A girl in India harvests good quality hybrid green maize cobs. Women and girls play an essential role in global agriculture. (Credit: CSISA/Wasim Iftikar.)