The Government of Ethiopia has consistently prioritized agriculture and sees it as a core component of the countryâs growth. However, despite considerable efforts to improve productivity, poor management of soil health and fertility has been an ongoing constraint. This is mainly due to a lack of comprehensive site-and context-specific soil health and fertility management recommendations and dissemination approaches targeted to specific needs.
The government envisions a balanced soil health and fertility system that helps farmers cultivate and maintain high-quality and fertile soils through the promotion of appropriate soil-management techniques, provision of required inputs, and facilitation of appropriate enablers, including knowledge and finance.
So far, a plethora of different research-for-development activities have been carried out in support of this effort, including the introduction of tools which provide location-specific fertilizer recommendations. For example, researchers on the Taking Maize Agronomy to Scale in Africa (TAMASA) project, led by the International Maize and Wheat Improvement Center (CIMMYT), have created locally calibrated versions of Nutrient ExpertÂź (NE) â a tool for generating fertilizer recommendations â for maize farmers in Ethiopia, Nigeria and Tanzania.
Nutrient ExpertÂź is only one of the many fertilizer recommendation tools which have been developed in recent years covering different levels of applicability and accuracy across spatial scales and users, including smallholder farmers, extension agents and national researchers. However, in order to make efficient use of all the resources available in Ethiopia, there is a need to systematically evaluate the merits of each tool for different scales and use cases. To jump start this process, researchers from the TAMASA project commissioned an assessment of the tools and frameworks that have been developed, adapted and promoted in the country, and how they compare with one another for different use-cases. Seven tools were assessed, including Nutrient ExpertÂź, the Ethiopian Soil Information System (EthioSIS) and RiceAdvice.
For each of these, the research team asked determined how the tool is currently being implemented â for example, as an app or as a generic set of steps for recommendation generation â and its data requirements, how robust the estimates are, how complicated the interface is, how easy it is to use, the conditions under which it performs well, and the spatial scale at which it works best.
Farmer Gudeye Leta harvests his local variety maize in Dalecho village, Gudeya Bila district, Ethiopia. (Photo: Peter Lowe/CIMMYT)
Combining efforts and information
The results of this initial assessment indicate that the type of main user and the scale at which decisions are made varied from tool to tool. In addition, most of the tools considered have interactive interfaces and several â including Nutrient ExpertÂź and RiceAdvice â have IT based platforms to automate the optimization of fertilizer recommendations and/or analyze profit. However, the source codes for all the IT based platforms and tools are inaccessible to end-users. This means that if further evaluation and improvements are to be made, there should be a means of collaborating with developers to share the back-end information, such as site-specific response curves and source codes.
Because most of the tools take different approaches to making fertilizer application site-specific, each of them renders unique strengths and trade-offs. For example, Nutrient ExpertÂź may be considered strong in its approach of downscaling regionally calibrated responses to field level recommendations based on a few site-specific responses from farmers. By contrast, its calibration requires intensive data from nutrient omission trials and advice provision is time consuming.
Overall, the use of all the Site-Specific Decision-Support Tools (SSDST) has resulted in improved grain yields compared to when farmers use traditional practices, and this is consistent across all crops. On average, use of Nutrient ExpertÂź improved maize, rice and wheat yields by 5.9%, 8.1% and 4.9%, respectively. Similarly, the use of RiceAdvice resulted in a 21.8% yield advantage.
The assessment shows that some of the tools are useful because of their applicability at local level by development agents, while others are good because of the data used to develop and validate them. However, in order to benefit the agricultural system in Ethiopia from the perspective of reliable fertilizer-use advisory, there is a need to develop a platform that combines the merits of all available tools. To achieve this, it has been suggested that the institutions who developed the individual tools join forces to combine efforts and information, including background data and source codes for IT based tools.
While the COVID-19 pandemic has disrupted efforts to convene discussions around this work, CIMMYT has and will continue to play an active advocacy role in supporting collaborative efforts to inform evidence-based reforms to fertilizer recommendations and other agronomic advice in Ethiopia and the wider region. CIMMYT is currently undertaking a more rigorous evaluation of these tools and frameworks as a follow up on the initial stocktaking activity.
The International Maize and Wheat Improvement Center (CIMMYT) is proud to partner with the Whole Grain Initiative in celebrating International Whole Grain Day on November 19, 2020.
In terms of diet and nutrition, ours is an age of contradiction. While populations in wealthy countries are faced with unprecedented levels of diet-related disease, close to 2 billion people globally remain food insecure. At the same time, global agriculture has an enormous role to play in the transition towards an environmentally sustainable future.
International Whole Grain Day 2020 is a good day to step back and consider the continued role of whole grains in the healthy, sustainable diets of today and tomorrow. Explore our content to learn what whole grains are, how weâre working to make whole grain wheat and maize even more nutritious, and discover some our favorite recipes.
For a deeper dive into the subject, check out our explainer on whole grains: What they are, why they are important for your health, and how to identify them.
The grain or kernel of maize and wheat is made up of three edible parts: the bran, the germ and the endosperm. (Graphic: Nancy Valtierra/CIMMYT)
CIMMYTâs âA Grain a Dayâ cookbook highlights the big role maize and wheat play in diets around the world, and brings global cuisine to your own kitchen. (Note: not all recipes call for whole grains.) Learn more.
Join members of the Whole Grain Initiative, the FAO and global leaders on November 19 as they discuss the role of whole grains in meeting the âtriple challengeâ of ensuring global food security and improving the livelihoods of agri-food workers in an environmentally sustainable manner. Join the webinar: Building Healthy, Sustainable and Resilient Food Systems.
Interested in learning more about how CIMMYT is working to make grain-based diets healthier and more nutritious? Check out our archive of health and nutrition content.
Featured image: Little girl eating roti, Bangladesh (S. Mojumder/Drik/CIMMYT)
Where agriculture relies heavily on manual labor, small-scale mechanization can reduce labor constraints and contribute to higher yields and food security. However, demand for and adoption of labor-saving machinery remains weak in many areas. Paradoxically, this includes areas where women face a particularly high labor burden.
âHow do we make sense of this?â asks Lone Badstue, a rural development sociologist at the International Maize and Wheat Improvement Center (CIMMYT). âWhat factors influence womenâs articulation of demand for and use of farm power mechanization?â
To answer this question, an international team of researchers analyzed data from four analytical dimensions â gender division of labor; gender norms; gendered access to and control over resources like land and income; and intra-household decision-making â to show how interactions between these influence womenâs demand for and use of mechanization.
âOverall, a combination of forces seems to work against womenâs demand articulation and adoption of labor-saving technologies,â says Badstue. Firstly, womenâs labor often goes unrecognized, and they are typically expected to work hard and not voice their concerns. Additionally, women generally lack access to and control over a range of resources, including land, income, and extension services.
This is exacerbated by the gendered division of labor, as womenâs time poverty negatively affects their access to resources and information. Furthermore, decision-making is primarily seen as menâs domain, and women are often excluded from discussions on the allocation of labor and other aspects of farm management. Crucially, many of these factors interlink across all four dimensions of the authorsâ analytical framework to shape womenâs demand for and adoption of labor-saving technologies.
A diagram outlines the links between different factors influencing gender dynamics in demand articulation and adoption of laborsaving technologies. (Graphic: Nancy Valtierra/CIMMYT)
Demand articulation and adoption of labor-saving technologies in the study sites are shown to be stimulated when women have control over resources, and where more permissive or inclusive norms influence gender relations. âWomenâs independent control over resources is a game changer,â explains Badstue. âAdoption of mechanized farm power is practically only observed when women have direct and sole control over land and on- or off-farm income. They rarely articulate demand or adopt mechanization through joint decision-making with male relatives.â
The study shows that independent decision-making by women on labor reduction or adoption of mechanization is often confronted with social disapproval and can come at the cost of losing social capital, both within the household and in the community. As such, the authors stress the importance of interventions which engage with these issues and call for the recognition of technological change as shaped by the complex interplay of gender norms, gendered access to and control over resources, and decision-making.
Agriculture is largely feminized in Nepal, where over 80% of women are employed in the sector. As a result of the skills gap caused by male out-migration, many women farmers are now making conscious efforts to learn techniques that can help improve yields and generate greater income â such as balanced fertilizer application â with support from the International Maize and Wheat Improvement Center (CIMMYT).
Studies have shown that many farmers lack knowledge of fertilizer management, but balanced fertilizer application using the right ratio of nutrients is key to helping crops thrive Through the Nepal Seed and Fertilizer (NSAF) project, CIMMYT researchers are working towards promoting precision nutrient management through multiple trials and demonstrations in farmersâ fields.
Through this initiative, Dharma Devi Chaudhary, a smallholder farmer from Kailali district, has been able to increase her annual earnings by adopting balanced fertilizer application in cauliflower cultivation â a key cash crop for the winter season in Nepalâs Terai region.
Her inspiration to use micronutrients such as boron came from the results she witnessed during a CIMMYT-supported demonstration conducted on her land in 2018. During the demonstration, Chaudhary learned the principles of the four âRsâ of nutrient stewardship: the right rate, the right time, the right source and the right placement of fertilizers. She became familiar with different types of fertilizer and the amount to be used, as well as the appropriate time and place to apply urea top-dressing, diammonium phosphate (DAP) and muriate of potash (MoP) for optimal utilization by the plant.
Chaudhary also learned how boron application can increase crop yields while helping prevent plant diseases, especially in cauliflower, where boron deficiency can lead to a disorder known as âdead heartâ and cause significant yield loss. This is particularly useful knowledge for farmers in Nepal, where the boron content in soil is generally low.
A digital soil map developed by researchers on the NSAF project shows medium-to-high boron deficiency in Kailali district. (Map: CIMMYT)
Benefitting from best practices
Cauliflower is cultivated on 615 hectares of land across Kailali and produces a yield of 15 tons per hectare â far less than the potential yield of 35-40 tons. As a standard practice, farmers in the area have been applying nitrogen, phosphorous and potassium (NPK) at a ratio of 27: 27.6: 9 kilograms per hectare and three tons of farmyard manure per hectare. During a CIMMYT-led demonstration on a small parcel of land, Chaudhary observed that balanced fertilizer application yielded about 64% more than when using her traditional practices, fetching her an income of $180 that season compared to her usual $109.
Following this demonstration, Chaudhary decided to independently cultivate cauliflower on a plot of 500 square meters, where she applied farmyard manure two weeks before transplantation and then used DAP, MOP, boron and zinc as a basal application during transplanting. She also applied urea in split doses, first at 25 days and then 50 days after transplantation. Using this technique, Chaudhary was able to yield 46 tons of cauliflower per hectare, nearly twice as much as was yielded by farmers using traditional practices. As a result, she was able to generate an income increase of $800 for her household, compared to the previous seasonâs earnings.
âI was able to buy education resources, clothing and more food supplies for my children with the additional income I earned from selling cauliflower last year,â said Chaudhary. âLearning about the benefits of using micronutrients is essential for smallholder farmers like me who are looking for ways to improve their farming business.â
Smallholder farmers tend to be risk averse, which can make technology adoption difficult. However, on-farm demonstrations help reduce the risks farmers perceive and facilitate new technology adoption easily by exhibiting encouraging results.
Chaudhary now serves as a lead farmer at Janasewa Krishak Multi-purpose Cooperative and supports the organization by disseminating knowledge on balanced fertilizer management practices to hundreds of farmers in her community. After seeing the impact of adopting the recommended techniques, the use of balanced fertilizer is reaping benefits for other farmers in her district, helping them achieve better income from higher crop yields and maintain soil fertility in their area.
Dharma Devi Chaudhary (right) stands next to her flourishing cauliflower crop in Kailali, Nepal. (Photo: Uttam Kunwar/CIMMYT)
âI wonder why I never considered using drip irrigation for all these years,â says Michael Duri, a 35-year-old farmer from Ward 30, Nyanga, Zimbabwe, as he walks through his 0.5-hectare plot of onions and potatoes. âThis is by far the best method to water my crops.â
Duri is one of 30 beneficiaries of garden drip-kits installed by the International Maize and Wheat Improvement Center (CIMMYT), an implementing partner under the Program for Growth and Resilience (PROGRESS) consortium, managed by the Zimbabwe Resilience Building Fund (ZRBF).
âIn June 2020, I installed the drip kit across 0.07 hectares and quickly realized how much water I was saving through this technology and the reduced amount of physical effort I had to put in,â explains Duri. By September, he had invested in two water tanks and more drip lines to expand the area under drip irrigation to 0.5 hectares.
Michael Duri stands with his son and mother next to his potato field in Nyanga, Zimbabwe. (Photo: Shiela Chikulo)
Water woes
Zimbabwe’s eastern highland districts like Nyanga are renowned for their diverse and abundant fresh produce. Farming families grow a variety of crops â potatoes, sugar beans, onions, tomatoes, leafy vegetables and garlic â all year round for income generation and food security.
Long poly-pipes lining the district â some stretching for more than 10 kilometers â use gravity to transport water from the mountains down to the villages and gardens. However, in the last five-to-ten years, increasing climate-induced water shortages, prolonged dry spells and high temperatures have depleted water reserves.
To manage the limited resources, farmers access water based on a rationing schedule to ensure availability across all areas. Often during the lean season, water volumes are insufficient for effectively irrigating the vegetable plots in good time, which leads to moisture stress, inconsistent irrigation and poor crop performance. Reports of cutting off or diverting water supply among farmers are high despite the local council’s efforts to schedule water distribution and access across all areas. âWhen water availability is low, itâs not uncommon to find internal conflicts in the village as households battle to access water resources,â explains Grace Mhande, an avid potato producer in Ward 22.
Climate-proofing gardens
Traditionally, flood, drag hose, bucket and sprinkler systems have been used as the main irrigation methods. However, according to Raymond Nazare, an engineer from the University of Zimbabwe, these traditional irrigation designs âwaste water, are laborious, require the services of young able-bodied workers and use up a lot of time on the part of the farmers.â
Prudence Nyanguru, who grows tomatoes, potatoes, cabbages and sugar beans in Ward 30, says the limited number of sprinklers available for her garden meant she previously had to irrigate every other day, alternating the sprinkler and hose pipe while spending more than five hours to complete an average 0.05-hectare plot.
âWhereas before I would spend six hours shifting the sprinklers or moving the hose, I now just switch on the drip and return in about two or three hours to turn off the lines,â says Nyanguru.
The drip technology is also helping farmers in Nyanga adapt to climate change by providing efficient water use, accurate control over water application, minimizing water wastage and making every drop count.
âWith the sprinkler and flood systems, we noticed how easily the much-needed fertile top soil washed away along with any fertilizer applied,â laments Vaida Matenhei, another farmer from Ward 30. Matenhei now enjoys the simple operation and steady precision irrigation from her drip-kit installation as she monitors her second crop of sugar beans.
âVery little is done to promote small-scale irrigation,â explains Baudron. âHowever, an installation with drip kits and a small petrol pump costs just over $1 per square meter.â
Prudence Nyanguru tends to her thriving tomato field in Nyanga, Zimbabwe. (Photo: Shiela Chikulo/CIMMYT)
A disability-inclusive technology
The design of the drip-kit intervention also focused on addressing the needs of people with disabilities. At least five beneficiaries have experienced the limitations to full participation in farming activities as a result of physical barriers, access challenges and strenuous irrigation methods in the past.
For 37-year-old Simon Makanza from Ward 22, for example, his physical handicap made accessing and carrying water for his home garden extremely difficult. The installation of the drip-kit at Makanzaâs homestead garden has created a barrier-free environment where he no longer grapples with uneven pathways to fetch water, or wells and pumps that are heavy to operate.
âI used to walk to that well about 500 meters away to fetch water using a bucket,â he explains. âThis was painstaking given my condition and by the time I finished, I would be exhausted and unable to do any other work.â
The fixed drip installation in his plot has transformed how he works, and it is now easier for Makanza to operate the pump and switches for the drip lines with minimal effort.
Families living with people with disabilities are also realizing the advantages of time-saving and ease of operation of the drip systems. âI donât spend all day in the field like I used to,â says George Nyamakanga, whose brother Barnabas who has a psychosocial disability. âNow, I have enough time to assist and care for my brother while producing enough to feed our eight-member household.â
By extension, the ease of operation and efficiency of the drip-kits also enables elderly farmers and the sick to engage in garden activities, with direct benefits for the nutrition and incomes of these vulnerable groups.
Irene Chikata, 69, operates her lightweight drip-kit on her plot in Nyanga, Zimbabwe. (Photo: Shiela Chikulo/CIMMYT)
Scaling for sustained productivity
Since the introduction of the drip-kits in Nyanga, more farmers like Duri are migrating from flood and sprinkler irrigation and investing in drip irrigation technology. From the 30 farmers who had drip-kits installed, three have now scaled up after witnessing the cost-effective, labor-saving and water conservation advantages of drip irrigation.
Dorcas Matangi, an assistant research associate at CIMMYT, explains that use of drip irrigation ensures precise irrigation, reduces disease incidence, and maximal utilization of pesticides compared to sprinklers thereby increasing profitability of the farmer. âAlthough we are still to evaluate quantitatively, profit margin indicators on the ground are already promising,â she says.
Thomas Chikwiramadara and Christopher Chinhimbiti are producing cabbages on their shared plot, pumping water out of a nearby river. One of the advantages for them is the labor-saving component, particularly with weed management. Because water is applied efficiently near the crop, less water is available for the weeds in-between crop plants and plots with drip irrigation are thus far less infested with weeds than plots irrigated with buckets or with flood irrigation.
âThis drip system works well especially with weed management,â explains Chinhimbiti. âNow we donât have to employ any casual labor to help on our plot because the weeds can be managed easily.â
Thomas Chikwiramadara and Christopher Chinhimbiti walk through their shared cabbage crop in Nyanga, Zimbabwe. (Photo: Shiela Chikulo/CIMMYT)
Wheat fields in the Arsi highlands, Ethiopia, 2015. (Photo: CIMMYT/ Peter Lowe)
A state-of-the-art study of plant DNA provides strong evidence that farmers in Ethiopia have widely adopted new, improved rust-resistant bread wheat varieties since 2014.
The results â published in Nature Scientific Reports â show that nearly half (47%) of the 4,000 plots sampled were growing varieties 10 years old or younger, and the majority (61%) of these were released after 2005.
Four of the top varieties sown were recently-released rust-resistant varieties developed through the breeding programs of the Ethiopian Institute for Agricultural Research (EIAR) and the International Maize and Wheat Improvement Center (CIMMYT).
Adoption studies provide a fundamental measure of the success and effectiveness of agricultural research and investment. However, obtaining accurate information on the diffusion of crop varieties remains a challenging endeavor.
DNA fingerprinting enables researchers to identify the variety present in samples or plots, based on a comprehensive reference library of the genotypes of known varieties. In Ethiopia, over 94% of plots could be matched with known varieties. This provides data that is vastly more accurate than traditional farmer-recall surveys.
This is the first nationally representative, large-scale wheat DNA fingerprinting study undertaken in Ethiopia. CIMMYT scientists led the study in partnership with EIAR, the Ethiopian Central Statistical Agency (CSA) and Diversity Array Technologies (DArT).
âWhen we compared DNA fingerprinting results with the results from a survey of farmersâ memory of the same plots, we saw that only 28% of farmers correctly named wheat varieties grown,â explained Dave Hodson, a principal scientist at CIMMYT and lead author of the study.
The resulting data helps national breeding programs adjust their seed production to meet demand, and national extension agents focus on areas that need better access to seed. It also helps scientists, policymakers, donors and organizations such as CIMMYT track their impact and prioritize funding, support, and the direction of future research.
âThese results validate years of international investment and national policies that have worked to promote, distribute and fast-track the release of wheat varieties with the traits that farmers have asked for â particularly resistance to crop-destroying wheat rust disease,â said Hodson.
Ethiopia is the largest wheat producer in sub-Saharan Africa. The Ethiopian government recently announced its goal to become self-sufficient in wheat, and increasing domestic wheat production is a national priority.
Widespread adoption of these improved varieties, demonstrated by DNA fingerprinting, has clearly had a positive impact on both economic returns and national wheat production gains. Initial estimates show that farmers gained an additional 225,500 tons of production â valued at $50 million â by using varieties released after 2005.
The study results validate investments in wheat improvement made by international donor agencies, notably the Bill & Melinda Gates Foundation, the Ethiopian government, the UK Foreign, Commonwealth and Development Office (FCDO, formerly DFID), the US Agency for International Development (USAID) and the World Bank. Their success in speeding up variety release and seed multiplication in Ethiopia is considered a model for other countries.
âThis is good news for Ethiopian farmers, who are seeing better incomes from higher yielding, disease-resistant wheat, and for the Ethiopian government, which has put a high national priority on increasing domestic wheat production and reducing dependence on imports,â said EIAR Deputy Director General Chilot Yirga.
The study also confirmed CGIARâs substantial contribution to national breeding efforts, with 90% of the area sampled containing varieties released by Ethiopian wheat breeding programs and derived from CIMMYT and the International Center for Agricultural Research in the Dry Areas (ICARDA) germplasm. Varieties developed using germplasm received from CIMMYT covered 87% of the wheat area surveyed.
âThis research demonstrates that DNA fingerprinting can be applied at scale and is likely to transform future crop varietal adoption studies,â said Kindie Tesfaye, a senior scientist at CIMMYT and co-author of the study. âAdditional DNA fingerprinting studies are now also well advanced for maize in Ethiopia.â
This research is supported by the Bill and Melinda Gates Foundation and CGIAR Fund Donors. Financial support was provided through the âMainstreaming the use and application of DNA Fingerprinting in Ethiopia for tracking crop varietiesâ project funded by the Bill & Melinda Gates Foundation (Grant number OPP1118996).
Dave Hodson, International Maize and Wheat Improvement Center (CIMMYT), d.hodson@cgiar.org
ABOUT CIMMYT:
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
The âdouble burden of malnutritionâ refers to the seemingly paradoxical coexistence of obesity and undernutrition. It affects people whose diet consists primarily of âemptyâ calories: high-energy foods lacking in essential vitamins and minerals.
This project takes aim at both issues by combining improved agronomic practices with the use of biofortified maize varieties, to increase the nutritional value of maize, Zimbabweâs most important, high-calorie staple food crop.
This project, whose full title is âAddressing malnutrition with biofortified maize in Zimbabwe: From crop management to policy and consumersâ, will carry out on-station trials at Harare Research Station and Domboshava Training Centre, and conduct on-farm trials with 60 farmers in two wards in Murehwa district. These trials will help researchers predict the effect of bio + agro fortification at the national level. Project findings will be broadly disseminated through a well-defined stakeholder engagement strategy.
Objectives:
Evaluate new Provitamin A maize varieties and the next generation of multiple-biofortified lines under different agronomic practices to gain knowledge on the combination of bio + agronomic fortification.
Determine the actual nutrient content of the new Provitamin A lines in farmers’ fields with a range of different soil fertility levels and under farmers crop management.
Evaluate the possible impact of the combined bio + agro fortification approach on micronutrient uptake and human health by integrating the new grain composition with food supply data from household/individual dietary surveys at country level in Zimbabwe.
To move knowledge into practice, the information developed throughout the project will be distributed to stakeholders working in nutrition in Zimbabwe. This will ensure that the knowledge generated in the project helps farmers and consumers to maximize the benefits from biofortified crops.
In most developing countries, smallholder farmers are the main source of food production, relying heavily on animal and human power. Women play a significant role in this process â from the early days of land preparation to harvesting. However, the sector not only lacks appropriate technologies â such as storage that could reduce postharvest loss and ultimately maximize both the quality and quantity of the farm produce â but fails to include women in the design and validation of these technologies from the beginning.
âAgricultural outputs can be increased if policy makers and other stakeholders consider mechanization beyond simply more power and tractorization in the field,â says Rabe Yahaya, an agricultural mechanization expert at CIMMYT. âIncreases in productivity start from planting all the way to storage and processing, and when women are empowered and included at all levels of the value chain.â
In recent years, mechanization has become a hot topic, strongly supported by the German Federal Ministry for Economic Cooperation and Development (BMZ). Under the commission of BMZ, the German development agency GIZ set up the Green Innovation Centers (GIC) program, under which the International Maize and Wheat Improvement Center (CIMMYT) supports mechanization projects in 16 countries â 14 in Africa and two in Asia.
As part of the GIC program, a cross-country working group on agricultural mechanization is striving to improve knowledge on mechanization, exchange best practices among country projects and programs, and foster links between members and other mechanization experts. In this context, CIMMYT has facilitated the development of a matchmaking and south-south learning matrix where each country can indicate what experience they need and what they can offer to the others in the working group. CIMMYT has also developed an expert database for GIC so country teams can reach external consultants to get the support they need.
âThe Green Innovation Centers have the resources and mandate to really have an impact at scale, and it is great that CIMMYT was asked to bring the latest thinking around sustainable scaling,â says CIMMYT scaling advisor Lennart Woltering. âThis is a beautiful partnership where the added value of each partner is very clear, and we hope to forge more of these partnerships with other development organizations so that CIMMYT can do the research in and for development.â
This approach strongly supports organizational capacity development and improves cooperation between the country projects, explains Joachim Stahl, a capacity development expert at CIMMYT. âThis is a fantastic opportunity to support GIZ in working with a strategic approach.â Like Woltering and Yahaya, Stahl is a GIZ-CIM integrated expert, whose position at CIMMYT is directly supported through GIZ.
A catalyst for South-South learning and cooperation
Earlier this year, CIMMYT and GIZ jointly organized the mechanization working groupâs annual meeting, which focused on finding storage technologies and mechanization solutions that benefit and include women. Held from July 7â10 July, the virtual event brought together around 60 experts and professionals from 20 countries, who shared their experiences and presented the most successful storage solutions that have been accepted by farmers in Africa for their adaptability, innovativeness and cost and that fit best with local realities.
CIMMYT postharvest specialist Sylvanus Odjo outlined how to reduce postharvest losses and improve food security in smallholder farming systems using inert dusts such as silica, detailing how these can be applied to large-scale agriculture and what viable business models could look like. Alongside this and the presentation of Purdue Universityâs improved crop storage bags, participants had the opportunity to discuss new technologies in detail, asking questions about profitability analysis and the many variables that may slow uptake in the regions where they work.
Harvested maize cobs are exposed to the elements in an open-air storage unit in Ethiopia. (Photo: Simret Yasabu/CIMMYT)
Discussions at the meeting also focused heavily on gender and mechanization â specifically, how women can benefit from mechanized farming and the frameworks available to increase their access to relevant technologies. Modernizing the agricultural sector in developing countries in ways that would benefit both men and women has remained a challenge for many professionals. Many argue that the existing technologies are not gender-sensitive or affordable for women, and in many cases, women are not well informed about the available technologies.
However, gender-sensitive and affordable technologies will support smallholder farmers produce more while saving time and energy. Speaking at a panel discussion, representatives from AfricaRice and the Food and Agriculture Organization of the United Nations (FAO) highlighted the importance of involving women during the design, creation and validation of agricultural solutions to ensure that they are gender-sensitive, inclusive and can be used easily by women. Increasing their engagement with existing business models and developing tailored digital services and trainings will help foster technology adaptation and adoption, releasing women farmers from labor drudgery and postharvest losses while improving livelihoods in rural communities and supporting economic transformation in Africa.
Fostering solutions
By the end of the meeting, participants had identified and developed key work packages both for storage technologies and solutions for engaging women in mechanization. For the former, the new work packages proposed the promotion of national and regional dialogues on postharvest, cross-country testing of various postharvest packages, promotion of renewable energies for power supply in storing systems and cross-country scaling of hermetically sealed bags.
To foster solutions for women in mechanization, participants suggested the promotion and scaling of existing business models such as âWoman mechanized agro-service provider cooperativeâ, piloting and scaling gender-inclusive and climate-smart postharvest technologies for smallholder rice value chain actors in Africa, and the identification and testing of gender-sensitive mechanization technologies aimed at finding appropriate tools or approaches.
Cover image:Â A member of Dellet â an agricultural mechanization youth association in Ethiopiaâs Tigray region â fills a two-wheel tractor with water before irrigation. (Photo: Simret Yasabu/CIMMYT)
The COVID-19 global health crisis has disrupted food and agricultural systems around the world, affecting food production, supply chains, trade and markets, as well as peopleâs livelihoods and nutrition. Following an initial assessment in May 2020, the Food and Agriculture Organization of the United Nations (FAO) joined the International Fund for Agricultural Development (IFAD), the International Maize and Wheat Improvement Center (CIMMYT) and other CGIAR centers to conduct a comprehensive assessment of the impacts of the COVID-19 pandemic on Bangladeshâs agri-food system.
The report shares critical reflections and lessons learned, as well as providing detailed quantitative and qualitative information on all disruption pathways and possible recovery strategies.
According to the research team, the major visible impact was the decline of food demand due to the disruption of value chain actors in the food market and income shortages, especially among low- and daily wage-earning populations. This reduced demand lead in turn to reduced prices for agricultural goods, particularly perishable food items like vegetables, livestock and fish products.
Additionally, constraints on the movement of labor led to a disruption in agricultural services, including machinery and extension services, while domestic and international trade disruptions created input shortages and lead to price volatilities which increased production costs. This increase, coupled with reductions in production and output prices, essentially wiped farmer profits.
A farmer takes maize grain to a local reserve in Bangladesh. (Photo: Fahad Kaizer/FAO)
Building back a better food system
The latest report was launched at the same time as the CGIAR COVID-19 Hub in Bangladesh, which aims to build local resilience to the effects of the pandemic and support government-led recovery initiatives. At a panel discussion presenting the results of the assessment, researchers emphasized the importance of social safety net mechanisms and food demand creation, as well as the need for strong monitoring of food systems to ensure continued availability and affordability, and early detection of any critical issues.
The discussion centered on the need for public access to trustworthy information in order to raise awareness and instill confidence in the food they consume. One key recommendation which emerged is facilitating the digitalization of farming, which looks to re-connect farmers and consumers and build the food system back better. The accelerated development of digital platforms connecting farmers to markets with contactless delivery systems can ensure the safer flow of inputs and outputs while generating a higher share of consumer money for farmers. There is also a need to explore green growth strategies for reducing food waste â the creation and distribution of improved food storage systems, for instance â and circular nutrient initiatives to better utilize food waste as feed and bio manure.
Gokul P. Paudel is an agricultural economist working with CIMMYT’s Socioeconomics Program, based in Nepal. His research mostly focuses on technology adoption and impact assessment, scale-appropriate mechanization, climate change impacts and adaptations, conservation agriculture, technical efficiency analysis, trade-off analysis, non-market valuation and big data, data mining and advanced machine learning.
At seed fair in Masvingo District, Zimbabwe, farmers browse numerous displays of maize, sorghum, millet, groundnuts and cowpeas presented by the seed companies gathered at Muchakata Business Centre.
The event â organized by the International Maize and Wheat Improvement Center (CIMMYT) as part of the R4 Rural Resilience Initiative â is promoting a range of stress-tolerant seeds, but there is a particular rush for the vitamin A-rich, orange maize on offer. Farmers excitedly show each other the distinctive orange packets they are purchasing and in no time all, this maize seed is sold out at the Mukushi Seeds stand.
âI first saw this orange maize in the plot of my neighbor, Florence Chimhini, who was participating in a CIMMYT project,â explains Dorcus Musingarimi, a farmer from Ward 17, Masvingo. âI was fascinated by the deep orange color and Florence told me that this maize was nutritious and contained vitamin A which helps to maintain normal vision and maintain a strong immune system.â
âI would like to grow it for myself and consume it with my family,â says Enna Mutasa, who also purchased the seed. âI heard that it is good for eyesight and skin â and it is also tasty.â
A customer shows off her orange maize purchases at a seed fair in Masvingo, Zimbabwe. (Photo: S. Chikulo/CIMMYT)
Knowledge transfer through mother trials
Florence Chimhini is one of ten farmers who has participated in the âmother trialsâ organized as part of the Zambuko/R4 Rural Resilience Initiative since 2018.
These trials were designed in a way that allows farmers to test the performance of six different maize varieties suited to the climatic conditions of their semi-arid region, while also growing them under the principles of conservation agriculture. Using this method, farmers like Chimhini could witness the traits of the different maize varieties for themselves and compare their performance under their own farm conditions.
An important outcome of the mother trials was a growing interest in new varieties previously unknown to smallholders in the area, such as the orange maize varieties ZS244A and ZS500 which are sold commercially by Mukushi Seeds.
âRecent breeding efforts have significantly advanced the vitamin A content of orange maize varieties,â says Christian Thierfelder, a cropping systems agronomist at CIMMYT. âHowever, the orange color has previously been associated with relief food â which has negative connotations due to major food crises which brought low quality yellow maize to Zimbabwe.â
âNow that farmers have grown this maize in their own mother trial plots and got first-hand experience, their comments are overwhelmingly positive. The local dishes of roasted maize and maize porridge are tastier and have become a special treat for the farmers,â he explains.
âThough not as high yielding as current white maize varieties, growing orange maize under climate-smart conservation agriculture systems can also provide sustained and stable yields for farm families in Zimbabweâs drought-prone areas.â
Grison Rowai, a seed systems officer at HarvestPlus outlines the benefits of an orange maize variety at a seed fair in Masvingo, Zimbabwe. (Photo: S.Chikulo/CIMMYT)
Addressing micronutrient deficiency
In Zimbabwe, at least one in every five children suffers from ailments caused by vitamin A deficiency, from low levels of concentration to stunting and blindness. The vitamin is commonly found in leafy green vegetables, fruits and animal products â sources that may be unavailable or unaffordable for many resource-poor households.
Staple maize grain, however, is often available to smallholder families and thus serves as a reliable means through which to provide additional micronutrient requirements through conventional biofortification. This allows people to improve their nutrition through the foods that they already grow and eat every day, says Lorence Mjere, a seed systems officer at HarvestPlus Zimbabwe.
The beta-carotene in orange maize gives it its distinctive orange color and provides consumers with up to 50% of their daily vitamin A requirements.
âOrange maize addresses hidden hunger in family diets by providing the much-needed pro-vitamin A which is converted to retinol upon consumption,â explains Thokozile Ndhlela, a maize breeder at CIMMYT. âIn doing so, it helps alleviate symptoms of deficiency such as night blindness and poor growth in children, to name just a few.â
The success of the recent seed fairs shows that provitamin A maize is gaining momentum among smallholder farmers in Masvingo and its continued promotion will support all other efforts to improve food and nutrition security in rural farming communities of southern Africa.
There are decades when nothing happens and weeks when decades happen. So goes the old saw. In the social sciences, these âweeksâ are often referred to as critical junctures. They are moments when the old rules of the game â the long-established ways of doings things â go out the window and new patterns begin to emerge. The breadbasket states of northwestern India seem to be having one of those weeks.
After years of research and advocacy that appeared to be making little headway, researchers at the International Maize and Wheat Improvement Center (CIMMYT) and the Indian Council of Agricultural Research (ICAR) are seeing a sudden and dramatic increase in the adoption of some of the technologies and techniques they have long argued are necessary in this region, including direct-seeding of rice, crop diversification and the adoption of Happy Seeder technology.
A case of unintended consequences
In March 2020 the Indian government decreed a national lockdown in response to the COVID-19 crisis. This triggered the largest internal migration since partition, as millions of migrant workers and day laborers scrambled to return to their home villages. Estimates suggest that up to 1 million workers left the northwestern states of Haryana and Punjab alone.
Agriculture in the region is dominated by the labor- and input-intensive production of rice and wheat in rotation. This system is the most productive per hectare in India, but it is also extremely sensitive to external shocks. The success of both the rice and wheat crop depend on the timely transplantation of rice in mid-June.
As the results of a recently published study demonstrate, delays in this schedule can have devastating downstream effects not only on rice and wheat yields, but on regional air quality too. Models of the worst-case delay scenario predicted a total economic loss of nearly $1.5 billion. Moreover, they predicted that, if no action were taken, up to 80% of rice residue would be burned later in the autumn, when cooler conditions contribute to seasonally poor air quality.
Such an exacerbation of the regionâs air pollution would be dire under normal conditions. During a global pandemic of a primarily respiratory illness, it could be devastating.
Fortunately, solutions and technologies that CIMMYT researchers had been studying for decades, along with ICAR, Punjab Agricultural University (PAU) and other national partners, promised to help ward off the worst effects of the crisis. The adoption of direct-seeding technology could help reduce the labor-intensiveness of rice production, crop diversification could minimize the economic impacts of the crisis, and the use of Happy Seeder technology could alleviate the practice of residue burning.
A farmer burns rice residues after harvest to prepare the land for wheat planting around Sangrur, Punjab, India. (Photo: Neil Palmer/CIAT)
Decades of work pay off
The study, co-authored by researchers at CIMMYT, ICAR and the International Rice Research Institute (IRRI), relied on a sophisticated ex ante model of four different rice-transplanting delay scenarios. It is published in the November 2020 issue of Agricultural Systems.
However, given the time-sensitivity and high-stakes of the issue, the lead researchers did not wait for the articles publication to press their case. Earlier this year they circulated their initial findings and recommendations to policymakers via their national partners. Notably, after receiving a one-pager summarizing these, the Chief Minister of Punjab released a video address echoing their points.
âPolicymakers realized the need for these kinds of solutions,â says Balwinder Singh, a CIMMYT scientist and lead author of the paper. They then moved quickly to incentivize their adoption through various mechanisms, such as subsidizing direct-seeding drills and ensuring the timely availability of machines and other inputs.
Singh and Jat have been carrying out a multi-year survey to assess farmer willingness to adopt Happy Seeder technology and have documented a drastic increase in farmer interest in the technology during 2020. For Jat, this highlights the power of partnerships. âIf you donât include your partners from the beginning, they will not own what you say,â he argues.
Such changes are to be celebrated not only as an important response to the current labor shortage, but also as key to ensuring the long-term sustainability of agricultural production in the region, having important implications for the stewardship of water resources, air pollution and soil health.
âPolicies encouraging farming practices that save resources and protect the environment will improve long-term productivity and sustainability of the nation,â says S. K. Chaudhari, deputy director general for Natural Resource Management at ICAR.
A farmer in India uses a tractor fitted with a Happy Seeder. (Photo: Dakshinamurthy Vedachalam/CIMMYT)
Warding off catastrophe
Although the agricultural cycle is not yet over, and early data are still partial, Singh and Jat estimate that thanks to the dramatic adoption of alternative agricultural practices this year, their worst-case estimates have been avoided. Given the rapid response from both policymakers and farmers, the real-world effects of the COVID-19 labor crisis are likely closer to the mid-range severity scenarios of their analysis. Indeed, early estimates predict no rice yield losses and minor-to-no wheat yield losses over baseline. For the researchers, the relief is palpable and the lessons couldnât be clearer.
âThese technologies were there for decades, but they were never appreciated because everything was normal,â says Jat. âThis clearly indicates a need for investment in the technology and the research. You may encounter a problem at any time, but you cannot generate the technology overnight.â
A digital transformation is changing the face of international research for development and agri-food systems worldwide. This was the key takeaway from the 4th annual CGIAR Big Data in Agriculture Convention held virtually last month.
âIn many countries, farmers are using data to learn about market trends and weather predictions,â said Martin Kropff, director general of the International Maize and Wheat Improvement Center (CIMMYT), in a video address to convention participants. âBut many still do not have access to everything that big data offers, and that is where CIMMYT and partners come in.â
As a member of CGIAR, CIMMYT is committed to ensuring that farmers around the world get access to data-driven solutions and information, while at the same time ensuring that the data generated by farmers, researchers and others is used ethically.
According to CGIAR experts and partner organizations, there are four key areas with the potential to transform agriculture in the next 10 years: data, artificial intelligence (AI), digital services and sector intelligence.
Key interventions will involve enabling open data and responsible data use, developing responsible AI, enabling and validating bundled digital services for food systems, and building trust in technology and big data â many of which CIMMYT has been working on already.
Harnessing data and data analytics
Led by CIMMYT, the CGIAR Excellence in Breeding (EiB) team have been developing the Enterprise Breeding System (EBS) â a single data management software solution for global breeding programs. The software aims to provide a solution to manage data across the entire breeding data workflow â from experiment creation to analytics â all in a single user-friendly dashboard.
CIMMYT and partners have also made significant breakthroughs in crop modelling to better understand crop performance and yield gaps, optimize planting dates and irrigation systems, and improve predictions of pest outbreaks. The Community of Practice (CoP) on Crop Modeling, a CGIAR initiative led by CIMMYT Crop Physiologist Matthew Reynolds, aims to foster collaboration and improve the collection of open access, easy-to-use data available for crop modelling.
The CIMMYT-led Community of Practice (CoP) on Socio-Economic Data continues to work at the forefront of making messy socio-economic data interoperable to address urgent and pressing global development issues in agri-food systems. Data interoperability, one of the foundational components of the FAIR data standards supported by CGIAR, addresses the ability of systems and services that create, exchange and consume data to have clear, shared expectations for its content, context and meaning. In the wake of COVID-19, the world witnessed the need for better data interoperability to understand what is happening in global food systems, and the CoP actively supports that process.
The MARPLE team carries out rapid analysis using the diagnostic kit in Ethiopia. (Photo: JIC)
Improving data use and supporting digital transformation
In Ethiopia, the MARPLE (Mobile And Real-time PLant disEase) diagnostic kit â developed by CIMMYT, the Ethiopian Institute of Agricultural Research (EIAR) and the John Innes Centre (JIC) â has helped researchers, local governments and farmers to rapidly detect diseases like wheat rust in the field. The suitcase-sized kit cuts down the time it takes to detect this disease from months to just 48 hours.
In collaboration with research and meteorological organizations including Wageningen University and the European Space Agency (ESA), CIMMYT researchers have also been developing practical applications for satellite-sourced weather data. Crop scientists have been using this data to analyze maize and wheat cropping systems on a larger scale and create more precise crop models to predict the tolerance of crop varieties to stresses like drought and heatwaves. The aim is to share the climate and weather data available on an open access, user-friendly database.
Through the AgriFoodTrust platform â a new testing and learning platform for digital trust and transparency technologies â CIMMYT researchers have been experimenting with technologies like blockchain to tackle issues such as food safety, traceability, sustainability, and adulterated and counterfeit fertilizers and seeds. Findings will be used to build capacity on all aspects of the technologies and their application to ensure this they are inclusive and usable.
In Mexico, CIMMYT and partners have developed an application which offers tailored recommendations to help individual farmers deal with crop production challenges sustainably. The AgroTutor app offers farmers free information on historic yield potential, local benchmarks, Â recommended agricultural practices, Â commodity price forecasting and more.
Stepping up to the challenge
As the world becomes increasingly digital, harnessing the full potential of digital technologies is a huge area of opportunity for the agricultural research for development community, but one that is currently lacking clear leadership. As a global organization already working on global problems, itâs time for the CGIAR network to step up to the challenge. Carrying a legacy of agronomic research, agricultural extension, and research into adoption of technologies and innovations, CGIAR has an opportunity to become a leader in the digital transformation of agriculture.
Currently, the CGIAR System is coming together as One CGIAR. This transformation process is a dynamic reformulation of CGIARâs partnerships, knowledge, assets, and global presence, aiming for greater integration and impact in the face of the interdependent challenges facing todayâs world.
âOne CGIARâs role in supporting digitalization is both to improve research driven by data and data analytics, but also to foster the digitalization of agriculture in low and lower-middle income countries,â said CIMMYT Economist Gideon Kruseman at a session on Exploring CGIAR Digital Strategy at last monthâs Big Data convention.
âOne CGIAR â with its neutral stance and its focus on global public goods â can act as an honest broker between different stakeholders in the digital ecosystem.â
Cover photo:Â A researcher demonstrates the use of the AgroTutor app on a mobile phone in Mexico. (Photo: Francisco AlarcĂłn/CIMMYT)
At present, nearly half of the worldâs population is under some form of government restriction to curb the spread of COVID-19. In Bangladesh, in the wake of five deaths and 48 infections early in the year, the government imposed a nationwide lockdown between March 24 and May 30, 2020. Until April 17, 38 of the countryâs 64 districts were under complete lockdown.
âWhile this lockdown restricted the spread of the disease, in the absence of effective support, it can generate severe food and nutrition insecurity for daily wage-based workers,â says Khondoker Mottaleb, an agricultural economist based at the International Maize and Wheat Improvement Center (CIMMYT).
Of the 61 million people who make up Bangladeshâs employed labor force, nearly 35% are paid daily. In a new study published in PLOS ONE, Mottaleb examines the food security and welfare impacts of the lockdowns on these daily-wage workers â in both farm and non-farm sectors â who are comparatively more resource-poor in terms of land ownership and education, and therefore likely to be hit hardest by a loss in earnings.
Using information from 50,000 economically active workers in Bangladesh, collected by the Bangladesh Bureau of Statistics (BBS), the study quantifies the economic losses from the COVID-19 lockdowns based on daily-wage workersâ lost earnings and estimates the minimum compensation packages needed to ensure their minimum food security during the lockdown period.
Using the estimated daily wage earnings, the authors estimate that a one-day, complete lockdown generates an economic loss equivalent to $64.2 million. After assessing the daily per capita food expenditure for farm and non-farm households, the study estimates the need for a minimum compensation package of around $1 per day per household to ensure minimum food security for the daily wage-based worker households.
In May 2020, the Government of Bangladesh announced the provision of approximately $24 per month to two million households, half of whom will receive additional food provision. While this amount is in line with Mottalebâs findings, he stresses than this minimum support package is only suitable for the short-term, and that in the event of a prolonged lockdown period it will be necessary to consider additional support for other household costs such as clothing, medicine and education.
âWithout effective support programs, the implementation of a strict lockdown for a long time may be very difficult, if poor households are forced to come out to search for work, money and food,â explains Mottaleb. âIn the event of a very strict lockdown scenario, the government should consider issuing movement passes to persons and carriers of agricultural input and output to support smallholder agriculture, wage workers and agricultural value chains.â
Andrea GardeazĂĄbal has many titles â Monitor, Evaluation and Learning Manager, ICT for Agriculture â but the core of what she does is knowledge management. She merges monitoring, evaluation, accountability and learning (MEAL) with information communication technologies (ICT) to transform data into something meaningful.
A political scientist by training, GardeazĂĄbal knows the power of data and statistics. As she began working on ICT-for-development projects in the field, she observed a lack of understanding of ICT and how the development sector could take advantage of these tools.
âI knew this was progressing very fast; that this was the future. Everyone was talking about ICT and the future with the internet of things, and social media was just getting started,â she said. So she asked herself, how could the development sector take advantage of these new technologies?
GardeazĂĄbal was working on projects bringing computers to rural areas in Colombia, which did not have internet connection or electricity. The problem could not be solved simply with a machine. She wanted to understand how to use ICT for development in a meaningful way. This triggered an interest in MEAL, to understand how ICT benefits the development sector, or does not, and to reintegrate that information into project design and impact.
After working in ICT for civil participation, education and microfinance, she joined CIMMYT with the mission to understand ICT for agriculture. Now she merges ICT tools with MEAL, leading the design, development and operation of systems for data collection, data cleaning, data analysis and data visualization with the Integrated Development programâs projects in Colombia, Guatemala and Mexico.
Ensuring intended results
Monitoring, learning, accountability and evaluation is crucial to ensure CIMMYT delivers on its objectives. Monitoring means ensuring that operations in the field are happening as planned. Rather than waiting until the end of the project when the donor asks for a report, GardeazĂĄbalâs team monitors operations in the field on a quarterly or yearly basis. The team, both in the field and at headquarters, uses this data to check that the project is achieving what was intended and make interventions or adjustments if necessary.
Evaluation looks at project results and evidence. The team collects evidence for every single data point that they have, and then evaluates that evidence for impact and results in the field. This data is not only related to yield increase, but includes sustainable production, capacity development, and adequate technology adaptation and adoption processes.
Accountability is transparency with funders, so that everyone involved in a project is accountable for the processes, decisions and impact. CIMMYT is able to show progress through a transparent relationship with funders.
Learning happens after the team collects information, produces results evaluations, and understands what was done well and where the process had to be redirected. This information can then inform design of new projects or project phases. âWe use the data and analysis of each project to redesign or modify our plans for the next project or even what kinds of projects we want to conduct,â GardeazĂĄbal said.
Andrea GardeazĂĄbal merges ICT tools with monitoring, evaluation, accountability and learning to improve project design. (Photo: Francisco AlarcĂłn/CIMMYT)
What ICT can offer
In the past, a MEAL team would collect data from a representative sample at the start of the project, then go back to the office and analyze that data. At the end of the project, the team would complete the same exercise, to see the difference from what they gathered at the beginning.
With ICT tools, researchers are able to gather and analyze robust data more quickly and can communicate efficiently with the beneficiaries of a project throughout its course. Artificial intelligence and machine learning algorithms can help in understanding large sets of data so that this information can strengthen and streamline the MEAL process and project impact.
âWe donât need to wait until the end of the project for the results in the field or to have a sense of what the farmers are saying and achieving. We have a lot of tools, from the ICT side, that help make monitoring and evaluation more efficient,â GardeazĂĄbal explained.
An international award recognized some of these ICT tools earlier this year. GardeazĂĄbal formed part of the winning team with members from the Alliance of Bioversity International and CIAT and the International Institute for Applied Systems Analysis (IIASA) working on groundbreaking data systems and tools that help over 150,000 farmers in Mexico.
The team tracked over 500 variables over different farming plots and analyzed them with geographic, weather and market data to help identify the best management practices for each plot. This information â including historic yield potential, local benchmarks, windows of opportunity, recommended agricultural practices and commodity price forecasting â is available to farmers through an app called AgroTutor (Android, iOS).
The importance of an enabling environment
However, GardeazĂĄbal cautions against the idea that technology on its own is going to end poverty or increase food security.
âICT is a vehicle for innovation in agriculture. Just having an app in the field is not enough to generate the change that we are actually looking for. You need an enabling environment, a network, engagement of the farmers and the buy-in of scientists to take advantage of ICT tools.â
From drones and satellite imagery to artificial intelligence, ICT tools can help CIMMYT carry out its mission by streamlining the data gathering and analytics processes.
However, this work is not done in isolation from the environment surrounding it. CIMMYT does not only work on increasing yields, but also manages resources and local networks in efficient ways. Teams must monitor data on air quality, water use and efficient information flows, analyze this data, and then return to the field with recommendations for the most sustainable production within integrated agri-food systems.
