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Tag: breeding

ZARI promotes climate-smart agriculture to strengthen research excellence, innovation, and sustainability

Written by dmedina on . Posted in News.

The Zambia Agricultural Research Institute (ZARI) has undergone a significant transformation, fueled by a strategic subgrant from the Bill & Melinda Gates Foundation through the Africa Dryland Crop Improvement Network (ADCIN). Established in August 2023 and convened by CIMMYT through its Dryland Crops Program (DCP), ADCIN is a collaborative network aimed at uniting over 200 scientists from more than 17 countries across sub-Saharan Africa. Its mission is to create a dynamic and sustainable network to develop and deliver improved varieties of dryland crops in the region. By leveraging the collective expertise of its multidisciplinary members, ADCIN strives to accelerate the access of enhanced crop varieties to smallholder farmers.

This support has led to the modernization of ZARI’s research facilities, improved irrigation systems, and enhanced data management capabilities, positioning the institute as a leader in climate-smart crop research. Key advances include speed breeding and controlled drought research, which have led to higher crop yields and better adaptation to climate challenges. These improvements have not only strengthened Zambia’s agricultural research capacity but also fostered regional collaboration and knowledge sharing, benefiting farmers, scientists, and institutions across Southern Africa. The institute’s improved infrastructure, including expanded water storage and solar power, has ensured uninterrupted research, even during power outages. As a model for other NARES institutions, ZARI’s transformation highlights the critical role of strategic investment in agricultural research to address the growing challenges of climate change and food security across Africa.

We caught up with Dr. Loyd Mbulwe, the Ag. Chief Agriculture Research Officer at ZARI, to get more insight into the upgrade.

Q: What were some of the challenges ZARI faced before the upgrades?

A: ZARI faced several research-related challenges that hampered its potential for innovation. These included limited access to essential research equipment, inadequate funding for critical projects, and insufficient capacity for data management and analysis. Collaboration and knowledge sharing with regional and international partners were also limited.

In terms of infrastructure, ZARI struggled with outdated laboratory facilities, inefficient greenhouse and irrigation systems, and limited storage space for seeds and plant materials. The institution’s ICT infrastructure was inadequate to support modern agricultural research needs. Operational efficiency was hampered by manual data collection, inefficient research protocols, and inadequate standard operating procedures.

Q: How has the upgrade helped ZARI overcome these challenges, and how has it improved the quality and quantity of research coming out of ZARI?

A: Recent upgrades at ZARI have significantly improved its research capabilities. New equipment and increased funding have supported larger projects, while improved data management systems have streamlined data handling and fostered greater collaboration with regional and international partners. The addition of a modern greenhouse and upgraded irrigation systems has improved water management and allowed for more controlled experiments. Expanded seed storage capacity now ensures the secure preservation of critical plant material for future research.

Automated data collection systems have reduced errors and increased efficiency, while standardized research procedures have improved the quality and reproducibility of results. Improved research documentation and targeted staff training programs have further enhanced research skills, enabling the team to produce more impactful results.

The newly constructed greenhouse facility enhances crop breeding and genetics research, enabling efficient off-season studies.  (Photo: ZARI/Zambia)
Q: How has ZARI’s research capacity improved with the upgraded facilities and new equipment?

A: ZARI has undergone significant upgrades to improve its research capacity. The new greenhouse facility has improved crop breeding and genetics research, allowing for more efficient off-season research. Speed breeding, a technique that accelerates crop generation turnover by two to five times through controlled environmental conditions, has been a game changer. The greenhouse also enables controlled drought research, providing insights into the development of climate-resilient crops. The ZAMGRO project has increased ZARI’s water storage capacity from 45 m² to 3.6 million m², enabling year-round farming and improved water management. The subgrant also enabled the installation of solar power, addressing the electricity challenges caused by recent droughts. The move to Starlink internet connectivity has also improved ZARI’s online capabilities, providing reliable, uninterrupted internet access, even in remote research sites.

An aerial view of the installed solar panels, that has resolved electricity challenges and mitigating power outages. (Photo: ZARI/Zambia)
Q: Looking ahead, what are ZARI’s future plans? Are there any further upgrades or expansions planned for the future?

A: ZARI’s future plans focus on increasing its research impact through strategic partnerships and innovation. The institute aims to establish a center of excellence for climate-smart agriculture and develop a biotechnology laboratory to advance genetic improvement and crop resilience. Expanding greenhouse and irrigation systems and improving digital infrastructure for data management are also priorities. ZARI also plans to strengthen collaborations with international research institutions and pursue public-private partnerships to transfer technology from research to practical applications. In addition, ZARI is committed to human resource development through targeted training, fellowships, and mentorship programs to nurture future researchers.

Q: What steps is ZARI taking to ensure the long-term sustainability of the upgraded facilities and research programs?

A: ZARI has implemented a comprehensive plan to ensure the long-term sustainability of its upgraded facilities and research programs. Key areas include maintenance of facilities, continuation of research programs, capacity building, partnerships, and knowledge sharing. ZARI has secured funding from partners and donors, diversified its income streams, and developed sustainable research funding models. Staff training, mentoring programs, and collaboration with international experts are key to ensuring that the research team stays abreast of new technologies. Strategic partnerships with private sector companies, joint research initiatives, and technology transfer agreements have further strengthened ZARI’s research capabilities. Regular impact assessments and collaborations with universities, research institutes, and government agencies further strengthen ZARI’s research capabilities and ensure that programs remain relevant and impactful.

An aerial view of the water storage system during installation. This has increased the capacity to support year-round farming and improved water management. (Photo: ZARI/Zambia)
Q: In what ways can this facility upgrade serve as a model or inspiration for other NARES facilities in the region? Are there any best practices that ZARI would recommend for similar projects?

A: The ZARI facility upgrade serves as a model for other NARES institutions in several significant ways. First, it highlights the importance of strategic partnerships, demonstrating how collaboration with regional and international organizations can lead to meaningful progress. Second, it emphasizes capacity building, with a focus on investing in staff training and development to improve institutional performance.

There are also several inspirational aspects to ZARI’s transformation. It demonstrates the transformative impact that research modernization can have on NARES breeding programs and shows the potential for improving agricultural research capacity. In addition, the upgrade is highly regionally relevant, addressing pressing regional challenges.

Finally, ZARI’s best practices provide valuable lessons for other institutions. The irrigation upgrade is an outstanding example, tailored to address the unique challenges posed by climate change in the region.

Unboxing the Starlink hardware: Transitioning to Starlink ensures reliable and uninterrupted internet access, even in remote research sites. (Photo: ZARI/Zambia)
Q: What was ADCIN’s role in facilitating this strategic investment, and how does it fit into the broader vision of strengthening NARES institutions across Africa?

A: ADCIN plays a key role in supporting the development and modernization of NARES institutions across Africa. Its contributions can be seen in three key areas. First, ADCIN provides technical assistance by offering expertise in research infrastructure development. Second, it provides financial support by mobilizing the resources needed to upgrade facilities. Third, ADCIN provides strategic guidance, ensuring that investments are aligned with regional research priorities and agendas.

This support fits into the broader vision of strengthening NARES institutions across the continent. ADCIN’s efforts focus on improving research capacity through upgrading facilities and equipment, fostering collaboration by promoting regional and international partnerships, and improving research quality through stronger research management and governance. As a result of ADCIN’s support, NARES institutions such as ZARI have seen significant improvements. Research output and impact have increased, regional collaboration has been strengthened, and institutions now have better access to international funding. By supporting ZARI’s strategic investments, ADCIN reaffirms its commitment to strengthening NARES institutions and promoting excellence in agricultural research across Africa.

Wheat breeding strategies for increased climate resilience

Written by dmedina on . Posted in News.

Wheat breeding strategies for increased climate resilience

With the challenges of climate change already affecting plant breeding, especially warmer days and warmer nights, the time to future proof the world’s food supply is now. In order to make the best-informed changes, scientists at CIMMYT ran simulations mimicking five scenarios that might play out over the next 70+ years.

The researchers used 3,652 breeding line records from six global nurseries administered by the International Wheat Improvement Network, which is coordinated by CIMMYT, and involves hundreds of partners and testing sites worldwide. Researchers ran the data through five different climate change scenarios, ranging from stable to severe.

Along with colleagues from Henan Agricultural University, Zhengzhou, China, ICARDA, and the Chinese Academy of Agricultural Sciences, CIMMYT scientists published their research in Nature Climate Change.

The results showed that less than one-third of wheat varieties adapted well to the warming the planet has already seen in the last 10 years. As temperatures increased in the simulation, researchers found a clear connection between rising temperatures and lower stability for a variety. As the global wheat-growing area becomes warmer and experiences more frequent heatwaves, breeding programs have to look beyond just yield optimization.

“Stability is key for breeding programs and farmers,” said co-lead author Matthew Reynolds, CIMMYT distinguished scientist and head of wheat physiology. “Knowing that a specific variety works well in a specific environment and produces an expected amount of yield allows farmers better plan their crop futures.”

“We performed the analysis from different perspectives, so that climate effects and appropriate adjustment suggestions for current breeding models can be considered from climate change, gene selection and/or gene–environment interaction perspectives,” said co-lead author Wei Xiong, CIMMYT Senior Scientist and Agricultural System Modeler.

The paradox of breeding elite lines

Local and regional breeding programs, as well as targeted breeding by CIMMYT, contribute to gene pools that overlap for many key agronomic traits, which limit genetic diversity.

“It is an unintended consequence,” said Reynolds. “As conventional breeding focuses on crossing the best and elite material, such focus can actually reduce genetic diversity.”

This ‘paradox’ shows the need to increase genetic variability and environmental diversification in breeding programs that are developing higher-yielding climate-resilient cultivars. Breeding programs also need to target traits associated with improved adaptation to increased temperatures and tolerance to heatwaves, which requires multidisciplinary integration.

Looking to the past for answers

Over the past 10,000 years, the climate has been unusually stable, meaning modern, domesticated bread wheat has not been exposed to wide swings in temperature that are forecast for the next 100 years. Wild wheat relatives, like Triticeae, have had millions of years of experience in weathering changing climates.

CIMMYT has a pre-breeding program that examines wild wheat races and more exotic sources for climate resilience traits. When such traits are identified genetically, new breeding techniques such as gene editing can be employed and breeding models refined.

To activate these new techniques, several barriers need to be overcome, including more sharing of germplasm between countries and breeding teams, the use of faster breeding cycles where appropriate and improved understanding of genes that improve heat tolerance without a yield penalty.

With reduced climate resilience and slow cultivar development, the need to increase genetic variability for climate adaptation is urgent, particularly in developing countries, where warming rate is unprecedented, and breeding cycles tend to be longer than in developed countries.

“Faced with more climate variability, breeders need to revisit their breeding strategies to integrate genetic diversity that confers climate resilience without penalties to productivity,” said Reynolds.

Innovation hubs in western Honduras, cornerstones for agricultural sustainability

Written by Julian Bañuelos-Uribe on . Posted in News.

Visit to the hub located at Elmer’s plot in Lentago, Belén Gualcho Ocotepeque, Honduras. (Photo: Erardo Díaz)

We are paving the way for significant agricultural change in the community of Lentago, Belén Gualcho, Ocotepeque. By means of the AgriLAC Resiliente initiative, we have taken firm steps towards more sustainable and resilient agrifood systems in Honduras through continuation efforts at the agricultural innovation hub.

“Fertilization is one of the main issues identified through plot diagnosis and the participation of several producers from three areas (Lentago, El Aguacatillo and La Mohaga),” says Jesús Erardo Díaz Gómez. He is a technician participating in the project and provided Elmer Valeriano with technical support during the installation of the hub on his plot, where sustainable practices are currently being implemented and compared with conventional local practices.

Traditionally, fertilization occurs 15 to 22 days after planting. “The innovation hub seeks to improve this practice by evaluating fertilization during planting in order to ensure adequate nutrient availability maize plants,” says Erardo, who is part of the InnovaHub West Honduras technical team, which coordinates local organization and stakeholder AgriLAC Resiliente efforts, promoting innovation and sustainability in the Honduran agricultural sector.

InnovaHub Occidente is not just impacting fertilization methods. Erardo states that the seed selection processes for future crops also needs to be reexamined. Currently, seeds are selected once they “tapizcan” (harvest) the maize, taking it out of the field. However, this has its problems. “With the innovation hub, we aim to start this process in the field, carefully selecting the healthiest plants most suited to the needs of local producers,” he explains.

Hubs like the one in Lentago help disseminate knowledge about sustainable practices. The CIMMYT and ODECO technical team has played a pivotal role resolving questions and orienting farmers about sustainable maize management.

Of course, the success of efforts like this one requires commitment and active participation from farmers like Elmer Valeriano. Elmer is a proactive farmer open to new techniques. He is an inspirational model showing how collaboration between technicians and farmers drive the shift towards more sustainable and efficient practices, like the installation of a rain gauge that promises to yield vital data for informed decision making in the hub.

Though seemingly simple, the rain gauge provides a way to better understand crop irrigation requirements and adjust agricultural practices accordingly. “The results will allow us to compare the amount of water received with actual crop requirements, providing a reliable foundation for making decisions,” says Erardo, noting Elmer’s commitment to collecting and recording the data from the rain gauge.

Elmer reads the rain gauge. (Photo: Erardo Díaz)

The work by InnovaHub Occidente de Honduras is not isolated. It is a part of a broader initiative: AgriLAC Resiliente. This CGIAR driven effort aims to transform agrifood systems in Latin America and the Caribbean by increasing resilience and competitiveness. The InnovaHubs in Honduras, in collaboration with organizations such as the Alliance of Bioversity International and CIAT and CIMMYT, are paving the way towards a more prosperous and sustainable future for agriculture in the region.

Ultimately, success for these initiatives will depend on continued collaboration among all stakeholders: farmers, technicians, organizations, and local communities. More resilient agrifood systems that not only feed present generations, but also protect and restore land for future generations, are possible as long as we continue to focus on innovation and sustainability.

The original piece was published in Spanish. 

Revised market segmentation for spring wheat—achieving alignment between ICARDA and CIMMYT

Written by dmedina on . Posted in In the media.

CIMMYT, in collaboration with ICARDA and the CGIAR Initiative on Market Intelligence, has revised the market segmentation for spring wheat to align breeding efforts using a unified “crop view” approach. This initiative resolves duplication challenges, provides objective crop prioritization, and aligns Target Product Profiles (TPPs) to meet the needs of farmers, consumers, and processors. By establishing a consistent application of eight market segmentation criteria, the effort standardizes the process and lays a foundation for future discussions on market segment prioritization and TPP alignment, ensuring all relevant market requirements are prioritized in breeding programs.

Read the full story.

Cultivating healthier communities with provitamin A maize varieties

Written by Julian Bañuelos-Uribe on . Posted in Publications.

In Murehwa District, situated in Zimbabwe’s grain basket in the eastern part of the country, vitamin A deficiency is prevalent in almost all households, regardless of their wealth, reveals a study striving to quantify the nutritional yields of provitamin A maize across a diverse range of smallholder farms in Zimbabwe and to understand the potential role of improved agronomy in increasing nutritional yields. Published in the Journal of Nutrition, the study is part of a collaborative project between CIMMYT and Rothamsted Research, funded by the UK Global Challenges Research Fund, administered by the Biotechnology and Biological Sciences Research Council.

The study revealed that vitamin A deficiency is most prevalent in the wet seasons when the number of people within a household is higher. Using a range of realistic provitamin A concentration levels, modelling showed that the consumption of provitamin A maize could ensure that almost three-quarters of households reach 50% of their vitamin A requirement.

“This study highlights how provitamin A maize could make a real difference in vitamin A intake of smallholder farmers in rural areas of Zimbabwe,” said Frédéric Baudron, the lead author of this study. “And the impact could be even higher as greater gains are made through breeding and supported by better agronomy, a key determinant of nutrient concentration in the grain produced.”

Thirty households participated in the study, quantifying the composition of their diet across the main agricultural (wet) season and off (dry) season. A market study of locally available food was also conducted at the same time. In Murehwa District, almost 80% of the population is engaged in small-scale agriculture as their primary livelihood and stunting rates have increased over the past decade in this district, in sharp contrast to the rest of Zimbabwe.

Though maize is a dietary staple widely consumed in various forms in Zimbabwe, vitamin A deficiency exerts a heavy toll on people’s health, particularly in rural communities where its impact is most keenly felt. The consequences, ranging from preventable blindness in children to heightened maternal mortality rates and reduced immune function, emphasize the urgency of sustainable interventions.

Preparation of “sadza” a local staple widely consumed in Zimbabwe. (Credit: Jill Cairns/Alan Cairns)

The first provitamin A maize variety was released in Zimbabwe over a decade ago. Subsequent breeding efforts, aiming to develop varieties capable of providing 50% of the estimated average requirement of vitamin A, have focused on increasing the provitamin A concentration in maize and yields obtained under a range of stresses that farmers frequently encounter. To date, 26 provitamin A varieties have been released in Southern Africa. However, several key research questions remained unanswered. For instance, how prevalent is vitamin A deficiency within vulnerable populations and what is the cost of an affordable diet providing enough vitamin A? Furthermore, can the nutritional concentration of provitamin A maize grown by smallholder farmers help significantly decrease vitamin A deficiency for the majority of rural households?

The nutritional concentration of biofortified crops is related to the environment they are grown in. Biofortified maize primarily targets resource-poor farmers, holding potential in addressing nutritional gaps. However, existing research on the potential health outcomes of the consumption of provitamin A has largely been centered on maize grown in controlled environments, such as on experimental research stations or commercial farms.

The CIMMYT-led study concludes that the consumption of provitamin A maize alone would not fully address vitamin A deficiency in the short-term, calling for additional interventions such as diet diversification, industrial fortification, and supplementation. Diet diversification is one viable option highlighted by the study: modelling showed most households could obtain a diet adequate in vitamin A from food produced on their farms or available in local markets at a cost that does not exceed the current cost of their diets.

In Murehwa District, the CIMMYT-led study estimated the daily costs of current diets at USD 1.43 in the wet season and USD 0.96 in the dry season. By comparison, optimization models suggest that diets adequate in vitamin A could be achieved at daily costs of USD 0.97 and USD 0.79 in the wet and dry seasons, respectively. Another study conducted in 2023 showed that almost half of the farms in the district had knowledge of PVA maize and its benefits but did not grow it, primarily due to a limited availability of seed.

New High-Yield Corn Variety Boosts Agricultural Productivity in Peru

Written by dmedina on . Posted in In the media.

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.

Read the full story.

Visiting Chinese scholar devoted to agricultural research in Mexico

Written by dmedina on . Posted in In the media.

CIMMYT stands out for its role in agricultural innovation, demonstrated through the dedicated research of visiting Chinese scholar Wang Hui. Her tenure at CIMMYT underscores the center’s pivotal role in driving agricultural advancements through international partnerships, significantly contributing to global food security and scientific development.

Read the full story.

Chewing over the future of global food security

Written by mcallejas on . Posted in News.

CIMMYT Director General, Bram Govaerts, praised China’s recent efforts to curb its reliance on food imports and increase funding for technology-driven breeding techniques, including gene editing. Govaerts suggested such measures have managed to shield China from the unfolding global food crisis that is caused by a mix of factors such as regional conflicts, climate change and rising protectionism.

Read the full article.

Harnessing new high-resolution satellite imagery to plant breeding

Written by Julian Bañuelos-Uribe on . Posted in Publications.

In plant breeding, efforts to increase the rate of genetic gains and enhance crop resilience to the effects of climate change are often limited by the inaccessibility and costs of phenotyping methods. The recent rapid development of sensors, image-processing technology and data analysis has provided new opportunities for multiple scales phenotyping methods and systems. Among these, satellite imagery may represent one of the best ways to remotely monitor trials and nurseries planted in multiple locations, while standardizing protocols and reducing costs.

This is because relevant data collected as part of crop phenotyping can be generated from satellite images. For instance, the sensors onboard the SkySat satellite constellation of Planet Labs have four spectral bands—blue, green, red, and infrared—which can be used to calculate the normalized difference vegetation index (NDVI), which is a measure of vegetation and its greenness, and various canopy traits like ground cover, leaf area index and chlorosis. It can also be used to monitor plot establishment and phenological parameters.

High-resolution RGB orthomosaic of wheat experiments, assessing the effect of plot size and spacing in the spectral signature, collected from SkySat satellite images. (Photo: Gilberto Thompson)

The use of satellite-based phenotyping in breeding trials has typically been restricted by low resolution, high cost and long intervals between fly-overs. However, the advent of a new generation of high-resolution satellites—such as the SkySat constellation—now offers multispectral images at a 0.5m resolution with close to daily acquisition attempts on any place on Earth. This could be a game changer in terms of the scale at which yield trials can be conducted, enabling more precise variety placement and thereby increasing genetic diversity across farmer’s fields and reducing the probability of disease epidemics. It could also revolutionize the capacity for research in realistic field conditions, since traits can be measured throughout the cycle in a highly standardized way, over multiple sites at low cost. For example, an image which covers 25 km2 can monitor an entire research station at a cost of about US$300.

To test the suitability of this technology, a team of researchers from CIMMYT set out to evaluate the reliability of SkySat NDVI estimates for maize and wheat breeding plots of different sizes and spacing, as well as testing its capacity for detecting seasonal changes and genotypic differences.

Both their initial findings, recently published in Frontiers in Plant Science, and more recently acquired data, show that the SkySat satellites can be used to monitor plots commonly used in wheat and maize nurseries. While wheat yield plots usually are 1.2m wide, maize plots tend to consist of at least two rows, resulting in a width of 1.5m. Plot length ranges from 2-4m. The authors also discuss on other factors to be considered when extracting and interpreting satellite data from yield trials, such as plot spacing.

Through the successful collection of six satellite images in Central Mexico during the rainy season and parallel monitoring of a maize trial in Zimbabwe, the researchers demonstrate the flexibility of this tool. Beyond the improvement of spatial resolution, the researchers suggest that the next challenge will be the development and fine-tuning of operational procedures that ensure high quality, standardized data, allowing them to harness the benefits of the modern breeding triangle, which calls for the integration of phenomics, enviromics and genomics, to accelerate breeding gains.

Read the full study: Satellite imagery for high-throughput phenotyping in breeding plots

This research was supported by the Foundation for Food and Agriculture Research, the CGIAR Research Program on Maize, the CGIAR Research Program on Wheat, and the One CGIAR Initiatives on Digital Innovation, F2R-CWANA, and Accelerated Breeding.

CIMMYT releases 32 new elite maize lines

Written by Julian Bañuelos-Uribe on . Posted in News.

Maize ears of the newly released set of CIMMYT maize lines. (Photo: CIMMYT)

CIMMYT is pleased to announce the release of a set of 32 new CIMMYT maize lines (CMLs). These maize lines have been developed by CIMMYT’s Global Maize Program by a multi-disciplinary team of scientists in sub-Saharan Africa, Latin America, and Asia. The lines have diverse trait combinations and are suitable for the tropical/subtropical maize production environments targeted by CIMMYT and partner institutions.

CMLs are freely available to both public and private sector breeders worldwide under the standard material transfer agreement (SMTA).

CIMMYT seeks to develop improved maize inbred lines for different product profiles, with superior yield performance, multiple stress tolerance, and enhanced nutritional quality. CMLs are released after intensive evaluation in hybrid combinations under various abiotic and biotic stresses, besides optimum (non-stress) conditions in the target population of environments. Suitability as either female (seed) or male (pollen) parent is also evaluated. As done in the last announcement of CMLs in 2021, to increase the utilization of the CMLs in the maize breeding programs of the partner institutions, all the new CMLs are tested for their heterotic behavior and assigned to specific heterotic groups of CIMMYT: A and B.

The release of a CML does not guarantee high combining ability or per se performance in all the environments; rather, it indicates that the line is promising or useful as a parent for pedigree breeding or as a potential parent of hybrid combinations for specific mega-environments. The description of the lines includes heterotic group classification, along with information on their specific strengths and their general combining ability with some of the widely used CMLs or CIMMYT coded lines under different environments.

More information:

Summary of the characteristics: CIMMYT maize lines CML616A to CML647A (PDF)

Pedigree and characterization data of all the CMLs released to date, including the latest set (CIMMYT Research Data repository).

Seed for these new set of CMLs will be available from November 1, 2023.  A limited quantity of seed of the CMLs can be obtained by sending a request to the CIMMYT germplasm bank via this link: https://staging.cimmyt.org/resources/seed-request/ or contact, a.chassaigne@cgiar.org.

Please contact for any further details regarding the released CMLs: 

Dr B.M. Prasanna, Global Maize Program Director, CIMMYT & OneCGIAR Maize Breeding Lead (b.m.prasanna@cgiar.org)

Participation Agreement for Supply of Materials-CAIGE Project

Written by mcallejas on . Posted in Uncategorized.

The CAIGE Project seeks to offer the University of Sydney and Australian grain breeders access to provider sites, materials, and data at times to be agreed by the parties. Offer support to the recipient and Australian grain breeders to choose materials from CIMMYT and enter into supply orders.

The project aims to align with the Sustainable Development Goals: Contributing to SDG 2 – Zero Hunger.

  • Every alternate year, a set of elite spring wheat lines is shared with the CAIGE program in Australia.
  • Joint evaluation of CIMMYT & Australian lines across Australia, October 2022 (N=312 lines).

Data provided

  • Grain yield under full irrigation and drought
  • TKW under full irrigation and drought
  • Quality traits (protein, sedimentation volume etc) under full irrigation
  • Disease traits: Leaf and Yellow rust, and soil borne disease
  • Stem rust (Debre Zeit – Ethiopia and Njoro –Kenya

2022/23: Additional set of new cohorts of lines sent to Australia for quarantine and seed increase process.

CAIGE Australia team will visit CIMMYT Obregon March 2024

CIMMYT-Australia Scientists field evaluation, October 2022

Direct release of CIMMYT wheat in Australia

Commercial cultivation of Borlaug 100 wheat in Australia (commercialized by Rebel seeds)

Accelerated Varietal Improvement and Seed Delivery of Legumes and Dryland Cereals in Africa (AVISA)

Written by mcallejas on . Posted in Uncategorized.

The Accelerated Varietal Improvement and Seed Delivery of Legumes and Dryland Cereals in Africa (AVISA) project increased demand-driven, gender equitable and timely access to quality seeds and inputs for small-scale producers by strengthening links between seed producers, farmers and grain aggregators, particularly women and young farmers. Partners included national agricultural research and extension systems (NARES), the Syngenta Foundation for Sustainable Agriculture (SFSA), the Center for Behavior Change Communication (CBCC) and the Tanzania Seed Traders Association (TASTA).

The project, which involved 188 NARES scientists from nine countries in East and Southern Africa (ESA) and West and Central Africa (WCA), tested different impact pathways to improve the scalability of dryland crop innovations. They identified 58 regional market segments for crops such as sorghum, pearl millet, finger millet, groundnut, chickpea and pigeonpea, of which 28 were prioritized for breeding pipelines. Target product profiles were consolidated and priority traits were addressed through a crop health/pathology network. Breeding programs were implemented through shared pipelines, regional trials were conducted and 2,461 farmers participated in tricots.

Efforts included the formation of a cowpea WCA working group, the identification of 26 common bean market segments in East Africa, and the implementation of awareness and demand generation activities using a variety of promotional methods. Data-driven decisions were prioritized, resulting in the creation of breeding informatics teams, quality assurance/control pipelines, and digitization templates.

The project also established governance structures and steering committees for the two target regions in sub-Saharan Africa, as well as operational committees and elected representatives to ensure the functioning and sustainability of the CGIAR-NARES dryland crops network.

In addition, the project targets the Sustainable Development Goals: SDG 2 – Zero Hunger; SDG 13 – Climate Action; SGD 17 – Partnerships for the Goals.

Reports

AVISA 2023 Annual Report

An Example of International Cooperation: China and CIMMYT

Written by mcallejas on . Posted in In the media.

Awais Rasheed has established a high-throughput KASP molecular breeding platform and made outstanding contributions to promoting China-Pakistan cooperation. He has discovered and validated 90 KASP markers available for wheat breeding, accounting for 60 percent of similar markers internationally, which are widely used in China and 15 other countries.

Read the full story here.

CGIAR Initiative: Breeding Resources

Written by Sarah McLaughlin on . Posted in Uncategorized.

Crop breeding has the potential to significantly contribute to addressing the global challenges of poverty, malnutrition, hunger, gender inequality, environmental degradation and climate change. Rapid population growth, climate change and market crises in low-income and middle-income countries mean that crop breeding must be far more agile and professional than ever before. Data-driven, modernized breeding with tools and technologies such as genomic selection, quantitative genetics, high-throughput phenotyping and bioinformatics, are needed to accelerate and advance improvement in varieties.  

Across the CGIAR-NARES (National Agricultural Research and Extension Systems) crop breeding networks, there is huge opportunity to reach the full potential to improve the lives of farmers and consumers: to share innovations to their full potential; reduce costs associated with services such as bioinformatics; de-fragment disparate data and incompatible technologies; apply consistent standards; and improve access to tools, technologies and shared services.

This Initiative aims to improve the genetic, economic, social and environmental performance of breeding programs across the CGIAR-NARES breeding network.

This objective will be achieved through:

  • Undertaking strategic modernization so that breeding schemes are designed using the most up-to-date methods, namely: quantitative genetics and computer simulation, including modeling of adoption and benefits across the breeding network, and budget forecasting for management of the portfolio and operational improvements. 
  • Delivering cost-effective shared services through coordinating services such as genotyping and data management, leading to efficiency and greater bargaining power in purchasing or contracting equipment, software and services, ultimately enabling the generation and analysis of high-quality and consistent data across the breeding network. 
  • Implementing performance management of consistent, connected operations through a dedicated performance management team supporting breeding programs and data management teams in describing, harmonizing and adopting standard operating protocols, workflow charts and quality controls across the networks. 
  • Making smarter use of data, enabling CGIAR-NARES networks to share standardized data, creating larger and more powerful datasets that can be readily analyzed and interpreted. 
  • Promoting innovation and research exchange through developing and implementing change management plans, and supporting region-specific capacity building to increase global adoption of modernized breeding tools, technologies and shared services across the network.

This Initiative will work with breeding programs serving countries in Sub-Saharan Africa and South Asia, along with Asia and Latin America. High-priority countries for the Initiative include Ghana, Kenya, Nigeria, Senegal, Tanzania, Uganda, Zimbabwe and Zambia in Africa, and Bangladesh and India in South Asia.

Proposed 3-year outcomes include:

  1. Varieties are developed 30% faster for 70% of targeted breeding programs. 
  2. Shared services reduce costs by 25% in a majority of target programs, making modernized breeding more accessible across the global CGIAR-NARES networks. 
  3. At least 70% of targeted breeding programs make data-driven decisions using genomic, phenotypic and environmental data at more than one major decision point. 
  4. At least a 70% improvement of Initiative’s targeted breeding programs in at least 50% of impact area tracking indicators as a result of CGIAR-NARES leadership. 
  5. Increased capacity in at least 15 NARES institutions, demonstrated by increased access to tools, technologies and shared services (of more than one type) more than once a year. 
  6. A least 70% of the Initiative’s targeted continuous breeding programs increase or add at least one target to their modernization plan. 
  7. Standardized protocols shared in a common system. 
  8. Harmonized operations enabling consistent data generation. 
  9. Adoption of quality management system within facilities. 
  10. Establishment of Breeding Pipeline Improvement Monitoring System to support informative performance monitoring that reduces the complexity of breeding activities to the core metrics material for decision-making, as aligned to shared goals. 
  11. Establishment of performance monitoring system to track implementation of standardized processes and quality of operations along with modernization progress and the impacts of the resulting breeding program. 

CGIAR Initiative: Accelerated Breeding

Written by Sarah McLaughlin on . Posted in Uncategorized.

Resource-poor farmers in low-income and middle-income countries will hugely benefit from improved crop varieties that perform better in terms of nutritional quality, income generation, water and nutrient use, stability of yields under climate change, and the needs of both women and men as farmers and as consumers.  

However, many smallholder farmers still grow old varieties, in part because they derive inadequate benefits from recent breeding efforts. To trigger timely adoption, new varieties must be widely available and affordable to farmers, and offer a step-change in performance through higher rates of genetic gain. A faster pace of varietal turnover is critical – to enable farmers to adapt and advance rapidly as climatic and market conditions change. 

Breeding programs also need a greater focus on developing farmer- and consumer- preferred varieties adapted to distinct production environments, markets and end uses. This can be facilitated by smarter design of breeding programs; stronger partnerships between CGIAR, National Agricultural Research and Extension Systems (NARES) and small and medium enterprises (SMEs); and strengthened organizational capacity.

This Initiative aims to develop better-performing, farmer-preferred crop varieties and to decrease the average age of varieties in farmers’ fields, providing real-time adaptation to climate change, evolving markets and production systems. 

The objective will be achieved through:

  • Re-focusing breeding teams and objectives on farmers’ needs, in particular the needs of women, through achievable product profiles and breeding pipelines targeting prioritized regions and market segments. 
  • Reorganizing breeding teams to drive efficiency gains through the coordinated engagement of specialists and processes using a common organizational framework, stage gates, key performance indicators and handover criteria. 
  • Transforming towards inclusive, impactful CGIAR-NARES-SME breeding networks with empowered partners, along with customized capacity building, standardized key performance indicators, and by dividing labor and resources across partners according to comparative advantage and aligned with national priorities. 
  • Discovering optimum traits and deployments through agile, demand-driven and effective trait discovery and deployment pipelines, and development of elite donor lines with novel and highly valuable traits. 
  • Accelerating population improvement and variety identification through optimizing breeding pipelines (trailing, parent selection, cycle time, use of Breeding Resources tools and services, etc.), with the goal of assuring all programs deliver market-demanded varieties that deliver greater rates of genetic gain per dollar invested. 

Engagement

This Initiative will work with breeding programs serving countries in Sub-Saharan Africa, and South Asia, along with Asia and Latin America. Priority countries for the Initiative include Ghana, Kenya, Nigeria, Senegal, Tanzania, Uganda, Zambia and Zimbabwe in Africa, and Bangladesh and India in South Asia. 

Outcomes

Proposed 3-year outcomes include:

  1. At least 75% of breeding pipelines are oriented towards specific market segments, enabling greater focus on farmers’ needs, drivers of adoption, distinct impact areas and the strategic allocation of resources. 
  2. At least 70% of breeding pipelines use a revised organizational framework that provides operational clarity and effectiveness for specialized teams pursuing breeding outputs. 
  3. At least 80% of the breeding networks have implemented documented steps toward stronger partnership models where NARES and SMEs have increased breeding capacity, and make greater scientific, operational and decision-making contributions to the breeding process. 
  4. At least 50% of breeding pipelines are supported by a dedicated trait discovery and deployment program that delivers high-impact traits in the form of elite parental lines. 
  5. At least 70% of breeding pipelines have increased the rate of genetic gain in the form of farmer-preferred varieties, with at least 50% providing significantly improved varieties delivered to seed system recipients.