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Pillar: Discovery

New innovative crops could significantly reduce agriculture’s climate change impact and environmental footprint

As the global population approaches the 10 billion mark, the reliance on fertilisers to boost agricultural production has become an essential, yet environmentally challenging, practice. A Century-long dependence on these additives has allowed food production to keep pace with the growth in human population. However, the use of fertilisers across various farming systems is now causing severe ecological stress. The leaching of nitrogen into natural ecosystems, coupled with the release of greenhouse gases, is pushing the Earth’s environmental limits to a critical threshold.

To address this, an ambitious new research initiative aims to shrink the nitrogen footprint of agriculture by developing a breakthrough technology based on nature’s own solutions: a natural process called biological nitrification inhibition (BNI). The Novo Nordisk Foundation has awarded CIMMYT a grant of up to USD 21.1 million to lead an innovation research initiative called CropSustaiN that is designed to reduce the nitrogen footprint of wheat cultivation.

“Success in this initiative could lead to a major shift in agricultural practices globally, benefiting both the planet and farmers’ livelihoods. In addition to using less fertiliser, cost for the farmer will be minimal because all the components are already in the seed. This initiative could, potentially, be extended from wheat cultivation to include other staple crops like maize and rice,” says Claus Felby, Senior Vice President, Biotech, Novo Nordisk Foundation.

“BNI could be a part of how we revolutionise nitrogen management in agriculture. It represents a genetic mitigation strategy that not only complement existing methods but also has the potential to decrease the need for synthetic fertilisers substantially. The mitigation potential of better nitrogen fertiliser management could be as impactful for the Global South as the Green Revolution,” explains Bram Govaerts, Director General, CIMMYT.

Revolutionary mitigation approach

Rooted in a seed-based genetic strategy, BNI leverages a plant’s innate ability to suppress soil nitrification through the release of natural compounds. This approach potentially promises to curb the use and leaching of synthetic nitrogen fertilisers—a significant contributor to greenhouse gas emissions and water pollution—without compromising wheat yield or soil vitality. The BNI-method contrasts with synthetic nitrification inhibitors and could offer a more scalable and cost-effective solution, potentially reducing nitrogen fertiliser usage by 20%, depending on regional farming conditions.

By harnessing the power of genetics in plant seeds, CropSustaiN leverages the natural process of BNI to develop new wheat varieties that require significantly less nitrogen fertiliser. Using conventional breeding, genes from wild crop relatives like wild rye, which have inherently better nitrogen use efficiency, are incorporated. CIMMYT makes such breeding products available to its global network of partners for the international public good.

The agenda for CropSustaiN includes validating BNI efficacy across diverse climates and integrating the technology into mainstream agricultural protocols. While the venture carries success risks, the potential rewards—ranging from widespread BNI adoption to valuable insights into nitrogen management—position it as a pioneering initiative. By ensuring that the seeds developed through this program are accessible to all farmers without exclusive patent rights, the Novo Nordisk Foundation is leading an inclusive approach to agricultural innovation.

CropSustaiN builds on the joint research by the Japan International Research Center for Agricultural Sciences (JIRCAS) and CIMMYT that started in 2015. The initiative has already yielded BNI wheat lines tested over three farming seasons. These innovative crops are now poised for further development and for scaling worldwide, indicating a potential paradigm shift in agricultural practices.

The Novo Nordisk Foundation has already laid the groundwork for CropSustaiN by funding related BNI research at CIMMYT, the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT), Aarhus University, the University of Aberdeen, and the University of Copenhagen -thus fostering an ecosystem for research innovation.

About the Novo Nordisk Foundation

Established in Denmark in 1924, the Novo Nordisk Foundation is an enterprise foundation with philanthropic objectives. The vision of the Foundation is to improve people’s health and the sustainability of society and the planet. The Foundation’s mission is to progress research and innovation in the prevention and treatment of cardiometabolic and infectious diseases as well as to advance knowledge and solutions to support a green transformation of society.

www.novonordiskfonden.dk/en

About CIMMYT

CIMMYT is a cutting edge, non-profit, international organization dedicated to solving tomorrow’s problems today. It is entrusted with fostering improved quantity, quality, and dependability of production systems and basic cereals such as maize, wheat, triticale, sorghum, millets, and associated crops through applied agricultural science, particularly in the Global South, through building strong partnerships. This combination enhances the livelihood trajectories and resilience of millions of resource-poor farmers, while working towards a more productive, inclusive, and resilient agrifood system within planetary boundaries. CIMMYT is a core CGIAR Research Center, a global research partnership for a food-secure future, dedicated to reducing poverty, enhancing food and nutrition security, and improving natural resources. For more information, visit staging.cimmyt.org.

Further information 

Jakob Stein, Communications Specialist, jse@novo.dk

Six new CIMMYT maize hybrids available from South Asia Breeding Program

CIMMYT is happy to announce six new, improved tropical maize hybrids that are now available for uptake by public and private sector partners, especially those interested in marketing or disseminating hybrid maize seed across the tropical lowlands of South Asia and similar agroecologies in other regions. NARES and seed companies are hereby invited to apply for licenses to pursue national release, scale-up seed production, and deliver these maize hybrids to farming communities.

How does CIMMYT’s improved maize get to the farmer?
Product Profile Newly available CIMMYT hybrids Basic traits
South Asia Heat + Drought Tolerance (SAHDT) CAH219 Medium maturing, yellow, high yielding, drought and heat tolerant, to FER and TLB
CAH220
South Asia Waterlogging + Drought Tolerance (SAWLDT) CAH214 Medium maturing, yellow, high yielding, drought + waterlogging tolerant, and resistant to FER, TLB and FSR
CAH218
South Asia Drought Tolerance (SADT) CAH216 Medium maturing, yellow, high yielding, drought tolerant, and resistant to TLB and FER
CAH217

 

Performance data Download the CIMMYT-Asia Maize Regional On-Station (Stage 4) and On-Farm (Stage 5) Trials: Results of the 2022-2023 Seasons and Product Announcement from Dataverse.
How to apply Visit CIMMYT’s maize product allocation page for details
Application deadline The deadline to submit applications to be considered during the first round of allocations is 18 June 2024. Applications received after that deadline will be considered during subsequent rounds of product allocations.

 

The newly available CIMMYT maize hybrids were identified through rigorous, years-long trialing and a stage-gate advancement process which culminated in the 2023 South Asia Regional On-Farm Trials. The products were found to meet the stringent performance and farmer acceptance criteria for CIMMYT’s breeding pipelines that are designed to generate products tailored in particular for smallholder farmers in stress-prone agroecologies of South Asia.

Applications must be accompanied by a proposed commercialization plan for each product being requested. Applications may be submitted online via the CIMMYT Maize Licensing Portal and will be reviewed in accordance with CIMMYT’s Principles and Procedures for Acquisition and use of CIMMYT maize hybrids and OPVs for commercialization. Specific questions or issues faced with regard to the application process may be addressed to GMP-CIMMYT@cgiar.org with attention to Nicholas Davis, program manager, Global Maize Program, CIMMYT.

APPLY FOR A LICENSE

Rebel Seeds’ Borlaug gets Hard wheat classification

Australia’s smallest seed company, Rebel Seeds, has achieved a significant milestone with the Australian Hard classification for Borlaug 100, a wheat variety introduced in 2015 through the CIMMYT-Australia-ICARDA Germplasm Evaluation (CAIGE) project. This classification allows Borlaug 100 to be delivered into H2 segregations at bulk-handling sites across Queensland and northern New South Wales, benefiting local growers with better prices and enhancing its export potential. The success of Borlaug 100 underscores CIMMYT’s crucial role in providing resilient, high-yielding wheat varieties suited to diverse growing conditions globally.

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Enhanced radiation use efficiency and grain filling rate as the main drivers of grain yield genetic gains in the CIMMYT elite spring wheat yield trial

CIMMYT’s Bread Wheat Breeding Program analyzed top wheat genotypes over 14 years, aiming to boost grain yield (GY) and stability. Results at the Norman E. Borlaug Research Station in Mexico showed an annual GY gain of 0.96%, driven by enhancements in biomass, grain filling rate, and radiation use efficiency. This underscores CIMMYT’s success in delivering high-yielding wheat varieties globally and suggests potential future gains through diverse genotype intercrossing.

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New High-Yield Corn Variety Boosts Agricultural Productivity in Peru

The introduction of the new high-yield corn variety, INIA 608 – ALLIMASARA, in Peru represents a significant collaboration between CIMMYT and the National Institute of Agricultural Innovation (INIA). This variety, developed through advanced crossbreeding techniques at the El Porvenir Agricultural Experimental Station, showcases CIMMYT’s pivotal role in enhancing agricultural productivity globally. By boosting yield capacities significantly up to 40% per hectare, this initiative not only supports the livelihoods of local farmers but also advances sustainable agricultural practices in challenging environmental conditions.

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Indian scientists visit Türkiye for soil and root health training program

Soil is the foundation of agriculture, and healthy soil is critical to the entire ecosystem. However, soil health is under threat today as many factors make soil unhealthy, leading to significant losses in farming. CIMMYT in India has been addressing these issues in partnership with national and international institutions, while CIMMYT’s SBP program in Türkiye aims to deliver high-yielding wheat germplasm that is resistant to SBP and supports the International Soil-Borne Pathogens Research & Development Center (ISBPRDC) of Türkiye. It also facilitates knowledge exchange and technology transfer to support joint research and development activities to improve soil health.

On arrival, the group of scientists and professors from Bihar was welcomed by Metin Türker, director general of Agricultural Research and Policies (TAGEM). Talking about the intricate nexus of agriculture, climate, and technology, Türker emphasized varietal developments to irrigation advancements and engaged in lively discussions with the group, fueled by a shared vision for agricultural sustainability.

Led by Abdelfattah A. Dababat, CIMMYT country representative in Türkiye and the leader of the SBD program, the scientists and professors from India ventured into the heart of research institutions, immersing themselves in the latest innovations in wheat improvement and plant pathology. Their journey took them from Ankara to Eskisehir and ended at the Abant Izzet Baysal University, Bolu, where they were greeted by passionate experts eager to share their knowledge. Bonds were forged amid lectures and laboratory demonstrations, and ideas ignited, paving the way for future collaborations.

Visit to Ankara Province

The participants visited the Field Crops Central Research Institute and were introduced to the TAGEM Seed Gene Bank and Herbarium. Participants were acquainted with seed processing and preservation methods with live demonstrations. Following that, participants visited the Plant Protection Central Research Institute in Ankara, where its Director Ayse Ozdem gave an overview of the institute’s mandates and research work. Participants had the opportunity to explore the plant pathology laboratory and learn about major crop diseases in Türkiye and their control measures.

Participants later visited winter wheat trial sites at the research station in Haymana, a district of Ankara province. The group then interacted with Mesut Keser, ICARDA’s wheat breeder who specializes in winter and facultative wheat while working on the International Winter Wheat Improvement Program (IWWIP). This was followed by a visit to the pathology field experiments, a breeder seed production area, and an experimental trial for evaluating Syngenta TYMIRIUM® technology at the research station.

Visit to TZARI in Eskisehir

Scientists also had a chance to visit the Transitional Zone Agricultural Research Institute located in the Central Anatolian Plateau of Türkiye. The institute’s director Sabri Cakir welcomed the participants and briefed them about the ongoing research activities of the institute and its relevance to agriculture in Türkiye. Savas Belen gave a general overview of the institute and the breeding program, while Abdullah Tane Kilinc presented a glimpse of the activities of the Department of Plant Pathology. Professor Halil Toktay gave an overview of plant parasitic nematodes in wheat and potato, followed by Gül Erginbas Orakci who discussed the importance of managing soil-borne pathogens.

Beyhan Akin, wheat breeder at CIMMYT, gave a presentation on CIMMYT’s breeding activities in Türkiye, and Oğuz Önder presented fertilizer application on the quality of Bread Wheat and the importance of foliar fertilization in crops.

Thereafter, participants visited the plant pathology laboratory where Abdelfattah A. Dababat and Gül Erginbas-Orakci gave an overview of laboratory methods to study Cereal Cyst Nematodes and Root-Lesion Nematodes with live demonstrations. Innovative approaches to tackle the Plant-Parasitic Nematodes in agriculture were also discussed. In the agronomy laboratory, Oğuz Önder gave a live demonstration for estimating plant grain and biomass yield by optical sensor-based technologies. Participants also had the opportunity to explore the soil science laboratory and become familiar with state-of-the-art equipment used for soil nutrient analysis.

Visit to Bolu

The participants visited Abant Izzet Baysal University, in Bolu, where the Rector Professor. Mustafa Alişarlı welcomed them. This was followed by presentations and discussions on burning issues in agriculture. Professor Senol Yildiz gave a presentation on soil health assessment and management. Professor Halil Kütük of the Department of Plant Protection gave a brief overview of the latest research advancement in biological control of major crop diseases. In continuation, Abdelfattah A. Dababat gave an overview of the cereal cyst nematode and their management. The discussion led to a brainstorming session on soil health management, soil-borne diseases, soil microbiome, and the challenges of using microorganisms for soil health improvements. The major challenges and opportunities for agriculture development under changing climate scenarios in India and Türkiye were also discussed.

The training course exposed participants to the latest research and technologies for soil and root health management to increase agricultural productivity and profitability immediately and into the future. During the entire visit, participants working in different fields (soil science, agronomy, plant breeding, and microbiology) interacted with Türkiye’s expert counterparts to discuss their work and share valuable research insights. Several topics and technologies relevant to global agriculture, like zero tillage, climate-resilient agriculture, precision input management, hidden hunger, and digital agriculture, were discussed. Participants also explored future opportunities for bilateral research collaborations between India and Türkiye.

Participants expressed their deepest gratitude to the CIMMYT team at Türkiye, led by Abdelfattah A. Dababat, for arranging an effective training program and for the support provided at every step. “Your careful planning and thoughtful execution have created an environment where learning flourishes and connections are made. Thank you for your invaluable contribution to our learning journey,” said the participants. Participants also expressed their sincere thanks to the Ministry of Agriculture, Türkiye, and the BISA team for coordinating this training and making the entire experience seamless and impactful for all involved. Special thanks were offered to the Government of Bihar for supporting the travel of scientists from India for this training program under the climate-resilient agriculture project in the state.

Kenyan researchers release armyworm-resistant maize seeds

Kenyan researchers at KALRO, in partnership with CIMMYT, have developed new maize varieties resistant to the fall armyworm, enhancing food security. These varieties, approved after rigorous testing, are expected to increase maize production. The development is supported by a $500,000 grant from CIMMYT, which also funds infrastructure improvements to aid in seed distribution.

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Ghana hosts West African consultative meeting to transform dryland agriculture

The West Africa Regional Consultation Conference, organized by CIMMYT and the African Drylands Crop Improvement Network in Accra, addressed pressing issues in the region’s agricultural sector, notably in dryland farming amid climate change. CIMMYT’s Dr. Paswel Marenya emphasized the need to boost yields of crucial cereals like sorghum and millet through innovative practices discussed at the conference. With 47 scientists from nine countries participating, the event aimed to foster collaboration and drive tangible improvements in food security and livelihoods across West Africa.

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Re-imagining heat tolerance traits in wheat

Researchers, funded by the GRDC, are collaborating with experts from ANU, the University of Adelaide, and CIMMYT to enhance heat tolerance in wheat. Led by Professor Owen Atkin and Dr. Scott Boden, the projects aim to identify genetic markers for breeding heat-resistant varieties. Using advanced phenotyping technology, scientists are exploring biochemical pathways and heat shock proteins to develop solutions for climate change-induced challenges in agriculture.

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With agricultural diversification, more is better

Over the last seventy years, intensively managed monocultures, focused on maximizing calorie production, have become a dominant approach to global food production. This trend toward simplification in agricultural systems has supported productivity gains but has very troubling consequences for the environment including nutrient pollution and biodiversity loss at a massive scale. Restoring diversity is essential to regaining ecological balance.

Monocultures are generally all the same, turning biologically-rich systems into chemical-intensive engineered ones nearly devoid of life forms other than those yielding a genetically identical commodity crop. Their guiding principle is producing food ingredients as cheaply as possible. Biologically diversified agricultural systems can take many forms. Their guiding principle is recapturing resilience and resource use efficiency while supplying balanced diets and viable livelihoods.

In recent years, there have been many efforts to biologically diversify farming systems. Increasing the number of species and the genetic diversity is associated with improved resilience and resource use efficiency.

A new paper published in Science consolidates evidence from across a wide range of diversification strategies, applied on five continents, to understand how they affect environmental and social outcomes. These strategies encompass many different interventions ranging from crop rotations and cover crops to livestock inclusion to use of compost, hedgerows, and contour farming.

Farmers hold groundnuts as a preferred crop. (Photo: Sieglinde Snapp/CIMMYT)

The study shows that the likelihood of environmental and social benefits goes up when a greater number of diversification strategies are combined. Importantly, the environmental benefits of diversification were found to be greatest in very simplified landscapes with less than 20% in non-crop area.

It also found that applying multiple diversification strategies in tandem reduces tradeoffs. In other words, the path to agricultural win-wins leads to diversified working landscapes, not just diversification strategies on individual farms.

The push toward commodity monocultures has been baked into many agricultural policies, such as subsidies and trade deals, and into land tenure systems. The monoculture bias is also reinforced through pricing, payment, and other supply chain arrangements. Even research agendas have encouraged monoculture with the long-term emphasis on yield-focused breeding.

It’s time to dismantle the structural barriers that leave so many farmers just getting by “against the odds” and at the expense of functioning ecosystems.

Mexico safeguards agriculture against invasive pests, diseases

In 2023, Mexico, with CIMMYT’s support, rejected 1,463 risky agricultural shipments, preventing 258 quarantine-worthy pests from entering the country. CIMMYT highlighted climate change’s role in pest spread, emphasizing Mexico’s commitment to safeguarding food production and ensuring global food security.

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USAID team lauds PQR value chain process in Bangladesh

Daily Sun Report, Rangpur

Experts of a visiting team from the United States Agency for International Development (USAID) have lauded the premium quality rice (PQR) value chain process in northern Bangladesh.

They made the admiration while visiting the Bengal Auto Rice Mills at Pulhat in Dinajpur and exchanging views with its owner, PQR farmers, local service providers (LSP) and traders on PQR production, milling and marketing.

Dr. Zachary P. Stewart, Production Systems Specialist of the Center for Agriculture-Led Growth, Bureau for Resilience, Environment and Food Security of the USAID from Washington led the team during their three-day tour in Northern Bangladesh that ended on Saturday.

John Laborde and Muhammad Nuruzzaman from the USAID’s Bangladesh Mission, Program Director of Sustainable Agrifood Systems at CIMMYT in Mexico Dr. Sieglinde Snapp and CIMMYT Country representative for Bangladesh Dr. Timothy J. Krupnik accompanied by him.

The Cereal Systems Initiative for South Asia CSISA-III project, funded by USAID and implemented by the International Rice Research Institute (IRRI) and International Maize and Wheat Improvement Center (CIMMYT), has been actively engaged in expanding and enhancing PQR value chains since 2016 in the Khulna division and since 2019 in the Rangpur division in Bangladesh.

The team members visited the entire Auto Rice Mills to observe the process of milling, sorting and packaging of PQR rice.

Owner of Bengal Auto Rice Mills Mr. Zahangir Alam informed that previously he sourced BRRI dhan50 (Banglamoti) from the southern part of Bangladesh.

However, since establishing a connection with CSISA in 2019, he has been procuring 30 percent to 40 percent of the total annual demand for BRRI dhan50 for producing PQR from the CSISA-beneficiary PQR farmers’ groups and others locally.

He highlighted how farmers have benefited from direct paddy purchases from them and obtaining high-quality and admixture-free rice.

“With assistance from CSISA, I have successfully branded this variety using its original name (BRRI dhan50) since 2020,” Zahangir Alam added.

Lead farmer Md. Azad expressed the advantages they have experienced from cultivating BRRI dhan50 through CSISA and higher yield of the BRRI dhan50 variety compared to the BRRI dhan28.

He highlighted their affiliation with the Bengal Auto Rice Mills, which has enabled them to fetch prices 7-8 Bangladesh Taka (BDT) higher per kilogram of paddy than those for BRRI dhan28.

During the visit, Agronomist from Bangladesh Office of IRRI Dr. Sharif Ahmed provided an overview of the PQR initiatives conducted by CSISA.

He also facilitated the tour alongside Md. Alanuzzaman Kurishi, Hub Coordinator at CIMMYT’s Dinajpur Field Office and Abdullah Miajy, a Specialist in Agricultural Research and Development at IRRI’s Rangpur Hub.

Photo: Daily Sun

Successful surveillance results in early first detection of Ug99 in South Asia

The detection of the Ug99 wheat stem rust strain TTKTT in Nepal showcases the effectiveness of CIMMYT-led global surveillance efforts. Identified early through diligent field surveys by Nepal’s NPPRC and NWRP and confirmed by Denmark’s GRRC, this proactive response helped prevent further spread. Despite no subsequent detections in South Asia, the case underlines the importance of ongoing surveillance and development of resistant wheat varieties, supported by international initiatives.

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Crop technology from CGIAR, including CIMMYT seed varieties, contributes US $47 billion each year to the global economy according to fresh analysis of six decades’ worth of data

A recent study in World Development reveals CGIAR’s crop technologies generate $47 billion annually in global economic benefits. From 1961 to 2020, CGIAR, with significant contributions from CIMMYT, enhanced agricultural productivity across 221 million hectares. These innovations, particularly in sub-Saharan Africa, have boosted yields, reduced food prices, and spurred economic growth, highlighting the critical role of agricultural research in ensuring global food security and combating poverty.

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Digging in the Dirt: Detailed soil maps guide decision-making, from the field to the policy room

When a non-farmer looks upon a field, they might just see it as an expanse of dirt and give no more thought to it. But to a farmer, that dirt is soil, the lifeblood of agriculture. Among other things, soil delivers necessary nutrients to crops, allowing them to grow and flourish.

About 95% of the food consumed around the world grows from soil, which is rapidly deteriorating because of unsustainable human activity. Around 33% of all soils around the world are degraded, meaning they can no longer sustain the same level of agricultural activity. This leads to lower crop yields, which potentially leads farmers to increase their use of fertilizer to overcome the damaged soil. But increased nitrogen fertilizer use has profound climate change effects, as poor fertilizer management, including overuse, can lead to nitrous oxide (a greenhouse gas) leaking into the air and nitrates into groundwater, rivers, and other water systems.

Sampling points in the state of Celaya, Guanajuato Mexico. (Photo: CIMMYT)

An important implement in the effort to preserve soil fertility is the practice of soil mapping, a process which produces detailed physical and chemical soil properties within a region. Things like the amount of nutrients, acidity, water conductivity, and bulk density, help guide decision making from individual farmers all the way to regional and national stakeholders.

The Sustainable Productivity Growth Coalition, a United Nations initiative which aims to accelerate the transition to more sustainable food systems through a holistic approach to productivity growth to optimize agricultural sustainability, featured soil mapping as an innovative, evidence-based approach for accelerating sustainable productivity growth in its 2023 report.

A global soil mapping initiative is underway led by the Food and Agriculture Organization of the United Nations (FAO) and the Global Soil Partnership with important contributions from CIMMYT scientist working in Mexico.

“Soil mapping of an agricultural region for chemical and physical soil properties offers a range of benefits that can significantly improve agricultural practices, land management, and overall productivity,” said Ivan Ortiz Monasterio, CIMMYT principal scientist.

Map for Phosphorus Bray 1. (Photo: CIMMYT)

Soil maps = blueprints

Using up-to-date soil information at the national scale can help to plan agricultural and land planning interventions and policies, by excluding areas with higher carbon content or fertility from urbanization plans, or by planning the implementation of irrigation schemes with high-quality water in salt-affected areas.

For farmers, there are many benefits, including the creation of nutrient management plans, which are perhaps the most important. These plans guide decisions about application rates and timing of inputs like fertilizers, help avoid over-application, and reduce the risk of runoff and pollution. This supports sustainable agriculture while reducing costs and minimizing nutrient pollution.

Map for zinc. (Photo: CIMMYT)

“There are many other benefits,” said Ortiz Monasterio. “From improved irrigation management, to informed crop decisions, to things like climate resilience because more fertile soils are better able to cope with the challenges of climate variation.”