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Recent activities and accomplishments of the Agricultural Innovation Project (AIP) for Pakistan

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The Agricultural Innovation Project (AIP) for Pakistan, led by CIMMYT and funded by USAID, has accomplished a great deal since its inception in March 2013. Among this year’s most notable AIP achievements by partner institutions were numerous training sessions and workshops, important vaccine developments, progress in baseline surveys and advances in seed improvement and distribution.

In May, 25 stakeholders involved in dairy production received training on the seven rapid assessment (RA) tools developed and modified by the International Livestock Research Institute (IRLI). Another 25 stakeholders involved in small ruminant production were given training on the small ruminant value chain rapid assessment (SRVC RA) tools by scientists from the International Center for Agricultural Research in the Dry Areas (ICARDA). On 4 June, a wheat seed value chain workshop organized by CIMMYT in collaboration with the Cereal Crops Research Institute (CCRI) and the Pakistan Agricultural Research Council (PARC) was held at CCRI in Nowshera, Khyber Pakhtunkhwa Province (KPP).

Nearly 50 actors in the wheat seed value chain participated in the workshop, in order to analyze gaps and identify opportunities in the KPP wheat seed system. A “training of trainers” was organized by the International Rice Research Institute (IRRI) on developing and validating a local rice crop check system at Engro Eximp, Muridke, Sheikhupura for seven field staff of the private sector on 24 June.


The World Vegetable Center held a series of customized training workshops with its partners in order to identify gaps, exchange experiences and to further streamline the Center’s activities among public and private partners. Advances have also been made in improved maize seed under the AIP maize component, which evaluated the performance of about 220 recently introduced maize varieties against locally available checks in spring 2014. Preliminary results from the harvested sites show the good selection potential of introduced maize varieties, which consisted of early to intermediate maturity, climate-resilient and bio-fortified white and yellow kernel hybrids and open pollinated varieties.

Best or comparable varieties identified will be further tested to fulfill variety release procedures. With the help of ILRI, the production of the Peste des Petits Ruminants (PPR) vaccine in Pakistan will soon be improved. The version of the vaccine currently produced in Pakistan is thermo-stable at 35˚C, while the version of the vaccine produced by IRLI is thermo-stable at 45˚C and is therefore more resistant to damage and able to be kept at a wider variety of temperatures.

Dr. Jeff Mariner, a former ILRI employee, visited Pakistan in June and conducted a technical audit of the production process in the two laboratories that produce the PPR vaccine. An action plan that includes training and production of a first batch of vaccine based on ILRI’s vaccine composition was created based on this audit, and will be implemented in August in order to help Pakistan create a more heat-resistant variety of the PPR vaccine.

AIP staff members have also worked this year to address the issue of quality fodder for livestock in Pakistan by promoting the growth of spineless cactus on range-land. AIP Livestock, in collaboration with the Rangeland Research Institute (RRI) of the National Agricultural Research Council (NARC), held a farmer’s field day at NARC on 15 May to train farmers in the advantages and methodology of growing spineless cactus. Forty farmers participated, and many have since planted spineless cactus on their lands. IRRI, in collaboration with Engro Exemp, distributed 600 kilograms (kg) of certified, high-yielding Basmati-515 rice seed to 30 farmers in the Punjab region to scale up the adoption of this variety. Basmati-515 has good quality attributes and a comparatively short growing duration, and is an excellent supplement to super basmati, which has lost its yield potential and is also prone to damage by insects and diseases.

One hundred kg of high-yielding, salt-tolerant seed of low phytate rice variety NIAB IR-9 was also distributed to farmers in Usta Muhammad in Balochistan. In addition, IRRI is working to promote mechanized dry rice seeding in Pakistan; a method which uses significantly less water than rice cultivated using the conventional planting method and is much easier to harvest. IRRI scientists, with the help of local farm machinery manufacturer Greenland Engineering, have identified a proper seed drill for direct dry seeding, which they are popularizing through the creation of public and private partnerships.

In addition, AIP reports that baseline surveys for wheat and conservation agriculture as well as vegetables and mung bean value chains are in progress in Pakistan’s four provinces. A maize baseline survey will be launched in August, and will interview more than 500 maize growers. The CIMMYT socio-economics team is also preparing to initiate durum wheat value chain studies in Pakistan, which will target producers, millers, food processors, seed companies, dealers, consumers and restaurants. A total of US $82,829 in funding was awarded to 14 research and extension projects, including: three projects related to grape and mango processing from PMAS Arid Agricultural University, Rawalpindi; seven projects on citrus from a research group at Citrus Research International; and four projects focusing on mangoes from faculty at the Institute of Horticulture and Institute of Food Science and Technology at the University of Faisalabad.

UC-Davis and the AIP Perennial Horticultural Project in-country coordinator will conduct the first review of these funded projects in September. Looking to the future, AIP partners chaired by UC-Davis met in Islamabad in June and created a working group for vocational training, which collaboratively planned cross-institute vocational training activities. The top priorities are to implement a short course on proposal writing that will enable the collaborators to prepare highquality proposals for upcoming competitive grant submissions on AIP call, as well as statistics courses that cater to the specific needs of trials and breeders.

Wheat is not a “rich man’s crop”

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There is wide-spread misperception that wheat is mainly produced in rich countries, exported to developing countries and then consumed by those societies’ wealthiest. In fact, for hundreds of millions of poor people their main staple is not maize, rice or cassava – they grow and eat wheat.

Wheat provides around one-fifth of all calories and protein for people globally. More food products are made from wheat than from any other cereal. In developing countries, wheat feeds around 1.2 billion people who live on less than US$ 2 a day. For every three poor rice consumers, there are two poor wheat consumers.

The global wheat trade is bigger than all other staples combined. Of the 150 million tons of wheat exported annually, 125 million tons go to developing countries, where nearly all wheat is consumed as food. Half of the wheat traded globally is exported to Africa and western Asia. Sixty million tons (40 percent) are imported by countries in North Africa and Central and West Asia. Sub-Saharan Africa, which is not considered a traditional wheat-eating region, buys 15 million tons (10 percent of the total).

In Sub-Saharan Africa, demand for wheat is growing faster than for any other commodity. Main drivers include population growth (need for more food), urbanization (wheat is a convenient food for migrating males) and the demand for wheat products by the increasing female work force. Female workers prefer wheat products because of they are fast and easy to prepare, freeing time the women otherwise would spend on traditional food processing and preparation.

Though trade statistics indicate developing countries depend on wheat imported from developed countries, of the 700 million tons wheat harvested globally, around 60 percent of that tonnage is produced and around 70 percent is consumed in developing countries. China, the world’s biggest producer, harvests twice as much wheat as the United States.

In North Africa and Central and West Asia, wheat is more critical for food security than in any other region worldwide, since it provides 35 to 50 percent of all calories and protein. Increases in wheat and bread prices have and will continue to lead to social unrest.

So is wheat a rich man’s crop? These statistics prove otherwise. With increasing income, diets change; they become more diverse and shift to wheat and eventually meat products. But in spite of progress in reducing poverty, challenges remain. The number of people living on less than US$ 1.25 a day declined from 1.9 billion in 1990 to 1.2 billion in 2010, mainly due to a reduction in East Asia. Less progress was made in South Asia and Sub-Saharan Africa, where today as many people live in extreme poverty as in 1980. If the absolute number of people living with an income of less than US$ 2 a day is considered, the progress is much smaller – 2.4 billion in 2010 vs. 2.59 billion in 1981.

Mahatma Gandhi best described what wheat means for these people: “There are people in the world so hungry, that God cannot appear to them except in the form of bread.” To end this unacceptable situation, increased wheat production is vital.

In the next 35 years, production of wheat needs to increase by at least 60 percent to meet the increased demand. In other words, the global average yield will need to increase from 3 metric tons per hectare (mt/ha) to 5 mt/ha, in spite of global warming, eroded soils, land scarcity and competition for fertile land and water from higher-valued crops. Considering current production constraints and market realities, the world’s primary wheat-exporting countries are unlikely to provide the extra wheat needed to feed the 2050 global population of 9.6 billion.

Wheat productivity must first increase in developing countries, where yield gaps continue to be unacceptably high. Through increased adoption of improved wheat varieties, better agronomic practices and effective post-harvest storage, developing countries could develop sustainable food systems, become less dependent on imports and stay more resilient against food price increases. These huge challenges can be met, provided investments in breeding and agronomy increase significantly and quickly. Policy-makers must recognize that increasing investments in agriculture is not a problem – it is the basis and solution to improve the livelihoods of the poor.

 

Heat stress-resilient maize hybrids for Asian farmers

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The Heat Tolerant Maize for Asia (HTMA) project, supported by the United States Agency for International Development (USAID) under the Feed the Future (FTF) initiative, is a public-private alliance that targets resource-poor people of South Asia who face weather extremes and climate-change effects. HTMA aims to create stable income and food security for resource-poor maize farmers in South Asia through development and deployment of heat-resilient maize hybrids.

The project connects several public sector agricultural research institutions in South Asia, such as the Bangladesh Agricultural Research Institute; the Maize & Millets Research Institute, Pakistan; National Maize Research Program, Nepal; and Bhutan Maize Program. Also involved in the project are two state agriculture universities from India – Bihar Agriculture University, Sabor and University of Agriculture Sciences (UAS), Raichur – as well as seed companies in the region including DuPont Pioneer, Vibha Agritech, Kaveri Seeds and Ajeet Seeds and international institutions including Purdue University and CIMMYT.

The “2nd Annual Progress Review and Planning Meeting for the HTMA Project” was held 22-23 July at UAS, Raichur in Karnataka, India. The meeting was attended by scientists and representatives from the collaborating institutions in South Asia, Purdue University and CIMMYT. Dr. Nora Lapitan represented USAID at the meeting. To take advantage of the presence of renowned scientists at this newly established agricultural university, the inaugural session of the meeting was organized as a special seminar on “Global initiatives on climate resilient crops.”

Dr. B.V. Patil, director of education at the university, organized the seminar for UAS staff and students. In his welcome speech Dr. Patil highlighted the importance of the HTMA public-private alliance, especially for addressing such complex issues as developing and deploying heat stress-resilient maize. Dr. BM Prasanna, director of the CIMMYT Global Maize Program, lectured on “Adapting Maize to the Changing Climate,” talking about the importance of climate change effects and CIMMYT initiatives on different continents in the development and deployment of stress-resilient maize hybrids.

This was followed by another highprofile lecture on “Climate-Resilient Crops: A Key Strategy for Feed the Future,” which was delivered by Lapitan. She spoke about the priorities of the FTF initiative, including efforts to reduce poverty and malnutrition in children in target countries through accelerated inclusive agricultural growth and a high-quality diet. The inaugural session was followed by a series of HTMA annual review and planning technical sessions. In the first, Dr. P.H. Zaidi, HTMA project leader and CIMMYT senior maize physiologist, presented updates on the project’s execution and the progress achieved at the end of the second year. The project has met agreed milestones, and is even ahead on some fronts.

This was followed by detailed progress reports on objectives given by each collaborating partner. Professor Mitch Tuinstra of Purdue University presented on membrane lipid profiling in relation to heat stress, as well as identifying quantitative trait loci for heat stress tolerance and component traits by joint linkage analysis. The leads from each of the public and private sector partners presented the results of the HTMA trials conducted at their locations, and also shared a list of top-ranking, best-bet heat-tolerant maize hybrids to take forward for large-scale testing and deployment. During the project’s first two years, each partner identified promising and unique maize hybrids suitable for their target environment. In molecular breeding, Zaidi presented the results of the association mapping panel, and Dr. Raman Babu, CIMMYT molecular maize breeder, presented the progress made on genotyping and association analysis. Dr. M.T. Vinayan, CIMMYT maize stress specialist for South Asia, presented a progress report on genomic selection for heat stress tolerance.

Nora Lapitan of USAID addressing the audience in HTMA seminar at UAS Raichur. Photo: UAS, Raichur photographer

Dr. K. Seetharaman, CIMMYT special project scientist in abiotic stress breeding and Dr. A.R. Sadananda, CIMMYT maize seed system specialist , presented jointly on the HTMA-product pipeline, including the promising heat stress-resilient hybrids ready for deployment, and a series of new hybrids ready for testing across locations in target environments. Dr. Christian Boeber, CIMMYT socio-economist, talked about progress in HTMA product targeting, pricing and adoption, summarizing the ongoing work on crop-modelling, reviewed work on the IMPACT model component, presented the survey tool and reviewed study sites in heat stress-prone ecologies of South Asia. Zaidi and Tuinstra presented the progress in project capacity building, including nine Ph.D. student fellowships. three workshops/training courses including in-country courses on “Precision phenotyping for heat stress tolerance” in Nepal and Pakistan, and a course on “Statistical analysis and genomic selection.” Project progress was critically reviewed by the project steering committee (PSC) headed by Prasanna, who expressed high satisfaction on its overall development. Speaking for USAID, Lapitan said: “I am highly impressed with the progress in the HTMA project. Within a period of two years there is a first wave of heat-tolerant hybrids ready for large-scale testing and deployment. This is one of the 26 projects in our climate-resilient cereals portfolio, but this project successfully demonstrated excellent balance between up-stream and down-stream research. We have made impressive progress, and are rather ahead on some milestones. I consider it a model project.”

Other PSC members also expressed their satisfaction, and agreed that HTMA has made tremendous progress in products for heat stress ecologies in the partners’ target environments. After discussing the progress in detail, project partners discussed the work plan and research activities for the third year. A parallel group discussion on objectives helped finalize the workplans and activities for each partner during the project’s third year.

HTMA-Project Steering Committee meeting.

Finally, the PSC met and discussed the overall progress of the project in detail. In addition to Prasanna chairing the PSC, members include Dr. Mohammda Munir, chief scientific officer, Pakistan Agricultural Research Council; Dr. Yagna Gajadhar Khadka, director, crops and horticulture, Nepal Agricultural Research Council; Dr. Khalid Sultan, research director, Bangladesh Agricultural Research Institute; Dr. B.V. Patil, director of education at UAS; Tuinstra; Dr. N.P. Sarma, Kaveri Seeds; and Zaidi as member secretary.

Overall, the PSC members expressed their satisfaction with ongoing activities and the progress being made by HTMA, particularly the close collaboration with partner institutions. “I sincerely hope that the same momentum is maintained for rest of the project, which is certainly going to have a strong impact on the maize farming community in stressprone agro-ecologies of South Asia,” said Munir.

The meeting was also attended by special guests, including Drs. Navin Hada and Danielle Knueppel from USAID in Nepal, and Dr. Mahendra Prasad Khanal and Mr. Dilaram Bhandari from the Agricultural Ministry of Nepal. They stated their appreciation for the opportunity to participate in the meeting for the project model and noted HTMA’s fast-track progress. Khanal said, “We need to have a similar project for maize research and development in Nepal, since we are also pushing for hybrid varieties, and we should use a similar public-private partnership model for the product development and deployment.”

CIMMYT, Limagrain and Seed Co Limited teams discuss partnership for tackling maize lethal necrosis

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Research managers and scientists from CIMMYT, Limagrain and Seed Co Limited held a discussion at CIMMYT-Nairobi on 4 July to forge a partnership to effectively tackle the maize lethal necrosis (MLN) disease in Africa.

Scientists from CIMMYT’s Global Maize Program, led by BM Prasanna, and representatives of the two companies, including Thierry Rosin (Limagrain lead for global corn research), Michel Debrand (chief executive officer, Limagrain-Africa), Emmanuel Aubry (head of corn research, Limagrain-South America) and Ephrame Havazvidi (research manager, Seed Co Limited), had detailed discussions on opportunities for collaborative research on MLN, as well as training and capacity building of African partners.

Photo: Florence Sipalla/CIMMYT

The proposed partnership seeks to fast-track the breeding and release of MLN-tolerant hybrids adapted to Sub-Saharan Africa (SSA) through molecular marker-assisted breeding. “Seed Co is already an important partner of CIMMYT in Africa. Limagrain has been supporting CIMMYT’s research work with maize doubled haploids at CIMMYT in Mexico, and disease resistance in Asia,” said Prasanna, adding that through this proposed partnership all parties would bring various strengths to the effort of finding effective solutions to MLN.

MLN has resulted in significant yield losses to smallholder farmers in East Africa. Therefore, it is important to identify and develop germplasm with MLN tolerance to replace the susceptible varieties in SSA as quickly as possible. “CIMMYT’s recent work on identification of trait donors for MLN tolerance, coupled with the establishment of the MLN screening facility at Naivasha, serve as an important foundation for this partnership to develop improved maize varieties for Sub-Saharan Africa with MLN tolerance and other adaptive traits,” said Prasanna.

The visitors from Limagrain and Seed Co also toured the MLN Screening Facility at Naivasha, where germplasm from public and private sector partners is being screened. “It was a very good eye-opener on the MLN disease,” said Havazvidi, who described the MLN research for development efforts of CIMMYT as “well-thought-out,” especially with respect to the investigation of screening protocols and identification of sources of resistance to the disease. “I was impressed with the size of the screening and the professionalism in developing and managing the work at the MLN screening facility,” Rosin said.

“I learned a lot about MLN which was new to me,” stated Aubry. Debrand commented that, “the research collaboration with CIMMYT will enhance the impact of Limagrain and Seed Co in Africa, especially with reference to maizebased food security.”

Sustainable intensification (GCAP)

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Go back to Conservation Agriculture

The primary purpose of the CIMMYT Global Conservation Agriculture Program (GCAP) is to co-develop sustainable intensification options for and with smallholder farmers in maize- and wheat-based farming systems in Latin America, Africa and Asia. Doing so contributes to CGIAR intermediate development outcomes on food security and poverty reduction. GCAP initially focused on conservation agriculture (CA) principles and high-quality, site-specific field agronomy research in a wide range of agro-ecosystems. Over the past few years, GCAP broadened its research portfolio in close collaboration with the CIMMYT Socio-Economics Program (SEP) to more holistically address sustainable intensification pathways and tackle adoption and adoptability of technical innovations.

In short, sustainable intensification of agriculture seeks to increase farming enterprises’ productivity in regard to land, water, labor and input productivity of farming enterprises in a socially equitable manner while preserving the natural resource base and the environment. This is easier said than done as the sustainable intensification paradigm requires understanding of the complex interactions (synergies and trade-offs) between bio-physical, environmental and socio-economic/market/policy factors at different scales/levels (field, farm, landscape, regions) in order to develop viable options in changing rural environments.

Not being ‘lost in, but dealing with complexity’ is GCAP staff members’ primary concern in order to achieve impact at scale and propose site- and farm-specific integrated adoptable solutions. This requires the use of systems research approaches and the development and use of conceptual frameworks. An example of this is the partnership with Wageningen University funded by the MAIZE and WHEAT CRPs.

Reaching impact at scale also requires strategic partnerships with a wide range of stakeholders – from advanced research institutions to government and private extension agencies, non-governmental organizations (NGOs) and the private sector. GCAP’s flagship projects in South Asia (CSISA), Africa (SIMLESA) and Mexico (MasAgro/TTF) were all designed specifically to use agricultural research for development (AR4D) to intensify farming systems. At the same time, these projects implement innovative approaches with effective methodological use of gender and innovation. A specific program to backstop gender and innovation in GCAP projects is led by the Royal Institute of the Tropics (KIT) of the Netherlands and funded by the MAIZE and WHEAT CRPs.

GCAP operates on the principles that technical innovations and scientific progress have great potential to help smallholder farmers when properly put in context. Therefore, a large part of the GCAP research portfolio is still focused on technical innovations and on the following themes:

  • Conservation agriculture and its contribution to sustainable intensification (i.e. the Nebraska Declaration).
  • Small-scale mechanization and labor saving technologies (i.e. the FACASI project).
  • Decision support tools (DSTs) for site-specific nutrient/water management and precision agriculture/remote sensing for smallholders farmers.
  • Effective use of information and communication technologies.

For more information, please contact: Bruno Gerard (b.gerard@cgiar.org)

Strategic research theme leaders for sustainable intensification:

In East and Southern Africa: Peter Craufurd (p.craufurd@cgiar.org)
In South Asia: Andrew McDonald (a.mcdonald@cgiar.org)
In Latin America: Bram Govaerts (b.govaerts@cgiar.org)

 

Genetic Resources and Bioinformatics

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Genetic resources and bioinformatics are the responsibility of the Genetic Resources Program (GRP). It contributes to CIMMYT’s overall mission of increasing crop productivity to improve food security and improve livelihoods by storing, analyzing and disseminating the world’s largest collection of maize and wheat genetic resources, which are contained in the Wellhausen-Andersen Genetic Resources Center. The Center is one of only three ISO-certified seed banks in the world and the only one in North America. In its maize and wheat gene banks, seeds are held in trust for humanity under the framework of the International Treaty on Plant Genetic Resources for Food and Agriculture. Moreover, CIMMYT seed is made freely available to researchers and national agriculture institutions around the globe.

GRP scientists and staff work to provide healthy, viable seed and reliable information from the maize and wheat genetic resources collections and are responsible for more than 175,000 accessions. Their work enhances the use of maize and wheat genetic resources through research and technology, excellence in data stewardship and the creation of tools and methods that enable CIMMYT and its partners to readily use the available information.

The GRP consists of various units that work in tandem to achieve CIMMYT’S goals:

The Seed Health Laboratory staff members work on the safe exchange of wheat and maize seed around the world and are responsible for thousands of exchanges of maize and wheat samples annually.

The Biometrics and Statistics Unit provides service, research and training for CIMMYT and its partners, including methodology-model solutions, statistical analyses and experiment designs. A data stewardship approach strives for responsible stewardship and provides open access to CIMMYT’s seed data and the knowledge derived from it. Through this approach data standards, documentation, curation processes and timelines are established to coordinate the receipt, storage, manipulation and quality control of field and molecular data. It also enables accurate data documentation and storage throughout the analysis pipeline, versatile institutional databases and repositories, interfaces, output and informatic tools that are used by scientists and research assistants, reporting back the user requirements to CIMMYT’s software engineers in order to achieve continuous improvement of these tools.

CIMMYT recognizes that sustainably meeting the growing global demand for food may require the responsible use all of the available technologies, including genetically modified (GM) varieties of maize and wheat. Applying the practice of “sovereignty and safety first,” each nation will determine when and how GM crops will be used in their territory and this will require a legal and regulatory framework to be in place before any work can be done in this area (see CIMMYT’s guiding principles). CIMMYT is a member of “Excellence Through Stewardship,” which “promotes the universal adoption of stewardship programs and quality management systems for the responsible use and management of biotechnology-derived plant products.”

The Seeds of Discovery (SeeD) initiative systematically explores and mobilizes genetic variation in CIMMYT’s and other gene bank collections into maize and wheat breeding programs to increase productivity resistance to biotic and abiotic stresses such as heat, drought and disease.

The GRP’s activities can be summarized as:

  • Conservation, characterization, distribution and use of genetic resources.
  • Safe distribution of seed.
  • Stewardship and ensuring open-access to CIMMYT’s data and derived information.
  • Creation of quality, open-source software.
  • Development and validation of new tools and methods for gene mining and crop improvement.
  • Capacity building in all of these areas.

 

 

IWIN nursery data summary

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iwis-tm

Data summary tables

IWIN on DataVerse

The International Wheat Information System (IWIS), curated by CIMMYT, contains data gathered from 1976 to the present, from multiple providers situated in countries throughout the world. International Wheat Improvement Network cooperators and partners have provided the genotypic and phenotypic data contained in IWIS.

Access to all phenotypic trait data summary tables, collected on germplasm contained in nurseries distributed by IWIN from 1998 – present, is available below. Access to data on other nurseries is available upon request. As new data is received and entered into IWIS, these phenotypic data summary tables will be updated on an approximately bi-month basis until “live” web-accessibility is available.

Data summary tables

Disclaimer
The data included herein are provided “as is.” CIMMYT makes no representation regarding the authenticity, suitability, accuracy, or completeness of any data contained herein. CIMMYT EXPRESSLY DISCLAIMS ANY AND ALL WARRANTIES, INCLUDING WITHOUT LIMITATION, ANY IMPLIED WARRANTIES OR MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. In no event shall CIMMYT be liable for any actual, indirect, incidental, consequential, special, or exemplary damages arising from the use and/or reliance on such data.

Partnership on maize lethal necrosis in Africa makes significant progress

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Partners of the Maize Lethal Necrosis (MLN) project in Africa, funded by the Bill & Melinda Gates Foundation and Syngenta Foundation for Sustainable Agriculture (SFSA), came together to review and discuss the progress and next steps for the project at a workshop on 14-15 May.

“The primary goal of this project is to identify MLN-tolerant germplasm, including inbred lines and pre-commercial hybrids, for potential deployment of MLN-tolerant varieties (with other relevant adaptive traits) through partners in Sub-Saharan Africa. The project also seeks to gain information regarding the genetics of resistance to the disease, create awareness and build capacity for more effective MLN management.

Group photograph taken at the MLN Screening Facility, Naivasha, Kenya. Photo: Florence Sipalla/CIMMYT

“As the project matures, we will be screening additional promising germplasm coming out of the MLN screening facility at Naivasha and from national agricultural research institute (NARI) partners at satellite testing centers in Kenya, Tanzania and Uganda under high natural disease pressure. This will help to validate the performance of the germplasm under MLN in important agro-ecologies,” said CIMMYT Global Maize Program Director and MLN-Africa project leader, BM Prasanna.

Mike Robinson, chief scientific advisor at SFSA and representatives of several seed companies and NARIs in Kenya, Tanzania and Uganda participated in the MLN Field Day at Naivasha on 14 May. The companies included East African Seed, Kenya Seed Company, Meru Agro, Monsanto, DuPont Pioneer and Seed Co Limited. “We hope to submit several germplasm entries for trials at the MLN screening facility in the next planting season,” said Francis Ndambuki, a maize breeder with Kenya Seed Company.

Less than a year after its opening, the MLN screening facility is now fully functional, evaluating materials from several partner organizations, including the International Institute for Tropical Agriculture, NARIs and seed companies. The partners/ visitors had an opportunity to see several trials taking place at the facility, as well as promising MLN-tolerant germplasm. Scientists involved in this project are working intensively – in collaboration with national and international institutions to develop and validate virus inoculation and germplasm screening protocols. They are also testing a large array of germplasm for responses against MLN under artificial inoculation, developing diagnostic techniques and building the capacity of national partners in MLN diagnostics and management.

The CIMMYT seed systems team is working on scaling-up the identified MLN-tolerant germplasm and distributing it to interested public and private partners in Africa. The progress made on the project’s diverse fronts was presented in detail, and the next steps were discussed during the project meeting held in Nairobi on 15 May. “We are pleased that CIMMYT teamed with KARI to address this important issue for Africa,” said Joseph Mureithi, KARI deputy director. Mureithi continued, “The MLN screening facility at Naivasha is a model of partnership between CGIAR centers, NARIs and the private sector,” adding that the results of the trials at the facility would have far-reaching impact. “Stresses such as drought and poor soil fertility could potentially compound the expression of the MLN disease,” said KARI virologist Dr. Anne Wangai, a key partner in this project. “This is a great opportunity to demonstrate the confluence of technologies – breeding, pathology and entomology,” said Robinson, urging the project partners to further strengthen the scientific edge and demonstrate how the research being undertaken on the disease can quickly result in products that benefit African farmers affected by the disease.

“Policy advocacy is key,” said Wilfred Mwangi, CIMMYT’s regional representative for Africa. He emphasized the need to fast-track registration and commercialization of the MLN-tolerant hybrids, especially in the MLN-affected countries. The Kenya Plant Health Inspectorate Service (KEPHIS) was commended for its commitment and support in fast-tracking the release of promising MLN-tolerant hybrids. “There is fast progress on the MLN research and the first wave of improved materials is coming now,” said Robinson, adding that he is looking forward to seeing more materials in the future. He emphasized the importance of coordination, policy clarity, communication and international synergies on MLN research and development in Africa.

IWIN field book download facility

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iwin

Field book download

CIMMYT International Wheat Improvement Network (IWIN) international nurseries are sent to cooperators with unique, paper field books for each nursery set (or occurrence). Today, many cooperators also prefer to receive field books in electronic formats. This web page enables recipients of IWIN international nurseries to download these unique recipient-specific field books in Excel™ format of Microsoft Office, version 95.

Please do not change the unique file name(s) of download field books if you wish to return data to IWIN using these electronic files. Data should be sent to Efren Rodríguez (e.rodriguez@cgiar.org), or mailed to:

Efren Rodríguez
Seed Inspection and Distribution Unit
CIMMYT, Int.
Apdo. Postal 6-641
06600 Mexico, D.F.
MEXICO

Several columns (e.g. Cross Name, Selection History, Origin, Plot) in the downloaded field book worksheets are “data protected” to prevent data change. This protection is essential if the files will be used to return to CIMMYT cooperator-collected phenotypic data. If you wish to extract data from these protected columns for manipulation in a spreadsheet, or import into a separate database, use the Edit-Copy-Paste routine in Excel.

Yield trials are sent using uniquely randomized second replications. The first replication of all yield trials is uniform, in entry order, for all sets (or occurrences). The second replication, however, is uniquely randomized per occurrence. It is therefore crucial that sets of seed and the accompanying fieldbooks are not interchanged, because each set has a specific 2nd replication randomization layout and, therefore, a specific fieldbook.

Each individual set of seed for a trial is given an “occurrence” or set number. Occurrence number refers to the number used to identify the seed set assigned or distributed to each cooperator and links to each specific randomization used. Thus if a cooperator sows more than one set at the same location, these sets will have the same location code, but a different occurrence number. Assure that the occurrence on the fieldbook matches the number on the seed envelopes. In case of a lost fieldbook, IWIN will generate a new one (on paper and electronic form) giving the same set or occurrence number that appears on the nursery seed packets.

Barley fieldbooks in IWIS were included with the cooperation of the ICARDA/CIMMYT Barley Improvement Program 

 

CIMMYT and CIBIOGEM hold symposium on transgenics and society

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CIMMYT, CIBIOGEM and the North Carolina State University (NCSU) transgenics and society group joined together at CIMMYT headquarters on 24 July for the symposium “Transgenics and Society: Towards a constructive dialogue that contributes to policies and regulatory frameworks.” The event was organized to highlight the importance of scientific and moral considerations surrounding individuals’ and hence society’s perspectives about transgenic crops and other emerging technologies.

Secretary for Information and Research Support of CIBIOGEM Dr. Laura Tovar Castillo, welcomed participants on behalf of Dr. Sol Ortiz García, Executive Secretary of CIBIOGEM, and highlighted the importance of this symposium and of achieving constructive dialogue about transgenic technologies. Nearly 1 billion people are suffering from hunger and poverty worldwide, according to the Food and Agriculture Organization (FAO) of the United Nations.

Photo: CIMMYT

Kevin Pixley, director of the CIMMYT Genetics Resources Program, opened the event with a quote from Megan Clark, CEO of Australia’s Commonwealth Scientific and Industrial Research Organization (CSIRO): “In the next 50 years we will need to produce as much food as has been consumed over our entire human history.”

Climate change, depleted natural resources and overpopulation are just a few of the problems contributing to worldwide food insecurity. Pixley noted that this requires us to make a difference worldwide. “How are we going to help these people survive?” asked CIMMYT director general Tom Lumpkin in his welcome to participants. “CIMMYT is in favor of the technology of genetically modified organisms (GMOs). Though I do say that with words of caution, because we do want to support the developing world with access to this technology, but it is possible to make a bad GMO. I’ve traveled all around the world and seen lax handling of GMOs.”

The discussion was separated into two sessions. CIMMYT staff can view the presentations on InSide CIMMYT. The first session was led by Fred Gould, NCSU professor of entomology and transgenics. Gould’s presentation was titled “The Past, Present and Future of Genetic Engineering Technologies,” and discussed the past marketing of genetically engineered products, new technologies and the possibilities of many new GM technologies. Jennifer Kuzma, co-director of the Genetic Engineering and Society Program at NCSU, finished the first session with a discussion on the governance of genetically engineered organisms and how they are regulated in different countries. “We need to find a middle approach to incorporate values and science in the governance of genetically engineered organisms,” said Kuzma in a wrapup of her presentation.

The second half of the symposium presented the perspective of professionals who have deep ties in Mexican agriculture and also are concerned about the personal and moral issues that influence perceptions about GMOs. Presenters included: Concepción Rodríguez Maciel, associate researcher and professor at the Colegio de Postgraduados; Javier Becerril, professor of economics at the Universidad Autonoma de Yucatán; and Carolina Camacho, principal researcher in the CIMMYT Socioeconomics Program. The theme that ran through these presentations was the need for transgenic crops in Mexico compared with the difficulty of fully explaining the benefits and concerns of transgenic crops to small-scale farmers. Rodríguez Maciel said: “As a country, we have spent way too much time discussing biotechnology issues. It’s time to integrate all the different types of agriculture to face the challenges that climate change will bring. We do need to remember that we are talking to normal human beings and we need to speak their language.”

Jason Delborne, associate professor of science, policy and society at NCSU, rounded out the discussion with his presentation on how to conduct a productive and informative dialogue on transgenic research. He has developed a five-step process that is designed to facilitate a formal discussion regarding transgenic research and ease the general public into a conversation about transgenics that leads to productive action. Building on the foundations of this symposium, CIMMYT hopes to contribute to discussions in Mexico and elsewhere that generate better understanding of the scientific and personal perspectives that societies must acknowledge and address in developing their policies about transgenics (and next generations of technologies).

As highlighted by Jason Delborne, the most important step is often asking and addressing the right question, which in many cases during this symposium participants learned was not actually about transgenics. Instead, the right questions might be about conserving biodiversity, enhancing the ecological sustainability of agricultural practices, preserving the right to save grain for planting next crops, offering technologies that are affordable to resource-poor farmers or about how humankind will produce as much food in the next 50 years as has been consumed over the entire history of humanity.

Beachell-Borlaug scholar dreams of giving back to developing countries

Written by Jennifer Johnson on . Posted in Features.

Silvano Ocheya is no stranger to the challenges developing countries face in improving agricultural production.

A native of Kenya, Ocheya’s interest in agricultural science started at an early age, growing up on a small farm that his mother ran by herself after his father’s death. “I saw how people back home are struggling, and their lack of knowledge, and thought if we can impact here, we will have an effect on a great number of families, and that is how the country can develop. We can’t think of industrialization until we have enough to feed our families,” said Ocheya.

Now, thanks to his excellent training and education in agricultural science and plant breeding as well as internships and research completed at CIMMYT, Ocheya is gaining the tools he will need to realize his dream of giving back. Ocheya received an undergraduate degree at the University of Nairobi, followed by an internship at CIMMYT-Kenya where he researched maize under his mentors, Dr. Dan Makumbi and Dr. Alpha Diallo. This research would eventually form the backbone of the thesis for his M.Sc. in genetics and plant breeding at the same university. Ocheya is currently pursuing his Ph.D. at Texas A&M University and is a member of Monsanto’s Beachell-Borlaug International Scholars Program, working with CIMMYT to research drought tolerance in wheat and resistance to wheat streak mosaic virus.

Photo: Smit Dhakal

After earning his degree he hopes to utilize the skills he has gained to help improve agriculture in a developing country, perhaps his native Kenya. “That’s where I feel I am most relevant. I’ll make more impact if I apply the knowledge I’ve learned in a developing country, to make a difference in the lives of farmers and their families.” For Ocheya, the biggest challenges to agricultural production in Kenya are drought and disease, made even worse by climate change. These challenges inspire him to work to develop drought-resistant seed varieties that also give farmers high yields.

Ocheya also considers lack of information to be a setback for farmers in developing countries, especially for women. “We need to empower women by giving them information. There is a great deal of information out there but it is not accessible, including information like the right seed or amount of fertilizer to buy. Unless we empower them with that information, I think it will be very difficult to make a breakthrough in agricultural productivity,” said Ocheya. He cited the influx of mobile technology in developing countries as a potential platform to build agriculture-based apps that can be translated into local languages, providing a possible solution to this information gap. When asked about his plans for the future,

Ocheya mentioned that in addition to continuing his research he would also like to train young people using the knowledge he has gained. “If you look at the success of Norman Borlaug, for example, he trained thousands of scientists, and that’s how his impact was felt across the developing world. While he wasn’t able to do it himself (in Africa), he had people he could help and he trained them, and I think that’s the approach I will take.”

When rural farmers are given a voice: successful farmers share their experience with sustainable intensification

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When traveling from Chimoio to Tete along one of the main roads in central Mozambique, one inevitably passes through Malomue, a small rural village in Báruè District. Since 2008, conservation agriculture (CA) technologies and improved drought-tolerant maize varieties have been promoted to farmers through various donor-funded projects, including a USAID-funded Feed the Future initiative.

In the past, farmers in the area would cultivate their land, clear the surface of all protective cover and burn the residue from the previous cropping season. The main food security crop in the area is maize, and due to lack of access to improved seed, lowyielding landraces were often planted. The introduction of improved agriculture technologies developed and tested by the Platform of Agriculture Research and Innovation (PARTI) and the Collaborative Research Support Program (CRSP) of the Sustainable Agriculture and Natural Resource Management Lab (SANREM) at Virginia Polytechnic Institute and State University (Virginia Tech) implemented in collaboration with the University of Tennessee, have brought significant change to Malomue. Farmers have been exposed to improved seed, fertilizers, improved weed management practices and more sustainable planting techniques based on conservation agriculture principles and practices.

Josè Leuane Dicane, a rural farmer from the community with approximately 15 hectares of cultivated land, said, “The first lesson I learned is that no fire should enter my plots, and I have managed to avoid burning grass from my neighbors.” Dicane also appreciates the reduced labor required when chemical weed control options and direct seeding techniques are used, as well as the increased moisture retention and fertility increases when legume crops are rotated and crop residues are kept on the soil surface. Improved drought-tolerant maize varieties, developed by CIMMYT and extended through Mozambican private seed companies, have further increased the yields on the fields of farmers such as Dicane. Dicane and his large family have become food self-sufficient. He has planted a garden where he produces higher value horticulture crops under small-scale irrigation, and has become an emerging commercial farmer by successfully selling his produce at a profit in the nearby town of Catandica.

The project has identified him as one of the most visionary and successful farmers in central Mozambique, worthy of sharing his experiences with others in the world. With support from USAID, Dicane and his wife were invited to go to the United States to attend a meeting of SANREM/CRSP. On 16 May, Dicane and his wife Judisse boarded an airplane on their way to the U.S. Neither had ever flown, stayed in a hotel or seen the world outside of Mozambique. This was the experience of a lifetime for them. During the SANREM/CRSP meeting on 20 May, they shared their new farming expertise with other participants and farmers. They spoke as if they had presented to an audience many times. Their very impressive report on the lives of rural farmers from Mozambique made a difference to many of the participants. The farmers from Malomue have been given a voice and the opportunity to describe the gradual changes in their lives. The changes might be small, but viewed through another lens, they are also groundbreaking.

CCAFS study finds limited potential of no-till agriculture for climate change mitigation

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By Clare Stirling/CCAFS

A study funded by the Climate Change, Agriculture and Food Security (CCAFS) CRP involving three CIMMYT staff and an international team of scientists has just been published in the journal Nature Climate Change.

The authors of “Limited Potential of No- Till Agriculture for Climate Change Mitigation” conclude that claims relating to no-till agriculture’s role in slowing climate change may be overstated. No-till and reduced tillage are methods of establishing crops with minimum soil disturbance, in contrast to conventional tillage involving plowing or other cultivation practices.

No-till agriculture can deliver benefits in many, though not all, situations; these benefits include improved soil quality and retention of water in soil for use by crops. Therefore the technologies have a clear advantage in dry regions of the world. No-till usually leads to an increase in the concentration of organic matter near the soil surface. This is often interpreted as an absolute accumulation or “locking up” of carbon in soil, termed carbon sequestration; this has led to no-till being promoted as a form of climate change mitigation. This claim was recently restated in the 2013 Emissions Gap Report of the United Nations Environmental Programme (UNEP).

Contrast between maize grown in rotation with wheat, with zero tillage on the flat, and retention of all residues (left), with maize grown without rotation, with conventional tillage and removal of all residues (right), on long-term conservation agriculture (CA) trial plot D5 at CIMMYT’s headquarters, El Batán, Mexico. Photo: CIMMYT
Contrast between maize grown in rotation with wheat, with zero tillage on the flat, and retention of all residues (left), with maize grown without rotation, with conventional tillage and removal of all residues (right), on long-term conservation agriculture (CA) trial plot D5 at CIMMYT’s headquarters, El Batán, Mexico. Photo: CIMMYT

The review found that there was sometimes a genuine, but small, net accumulation of organic carbon in soil under no-till conditions compared with conventional tillage. However, much of the observed effects result from a redistribution of organic carbon with depth – extra organic carbon near the surface but less carbon in deeper soil. In addition, the soil sampling methods normally used tend to exaggerate the effect. Consequently the climate change mitigation achievable from converting to no-till agriculture is likely to be overstated. The authors of the new paper conclude that no-till agriculture has a role to play as one of the strategies contributing to global food security and the protection of soils, and thus to climate change adaptation (through building agricultural systems that are more resilient to climate and weather variability).

In regions where no-till or reduced tillage is agriculturally appropriate it should be promoted on these grounds, but not on the basis of equivocal evidence for climate change mitigation. Climate change mitigation is a small, but useful, additional benefit, not the key policy driver for its adoption. The review also states that those who promote no-till as a means of combating climate change frequently refer to the potential amount of additional carbon that may be stored, or sequestered, in soil. However, in the UNEP report and elsewhere, the barriers to adoption of no-till tend to be ignored.

The authors argue that there are numerous social, practical and infrastructural factors that can make its adoption difficult for farmers, particularly smallholder and resource-poor farmers in developing countries. These issues are being addressed by CIMMYT and others but progress in overcoming the barriers is often slow. Thus, even where there is a real potential for mitigating climate change, it is often difficult to achieve in practice.

Clare Stirling, CIMMYT-CCAFS Project Leader, said, “Overstating the climate change mitigation benefits of no-till is serious because it gives a falsely optimistic message of the potential to reduce climate change through altered agricultural practices.” She added, “Given that the climate change mitigation achievable through adoption of no-till is likely to be far less than claimed, there is even more pressure to decrease greenhouse gas emissions from other agricultural areas. In regard to wheat and maize – the two staple crops CIMMYT focuses on – improved nitrogen management is the key to low-carbon development.”

Precision farming down under at the National Centre for Engineering in Agriculture

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In late June, while the great majority of the conservation agriculture community converged on Winnipeg, Canada, in the Northern Hemisphere, Dr. Francelino Rodrigues, a CIMMYT post-doctoral fellow in precision agriculture in the Biometric and Statistics Unit of the Genetic Resources Program, and Dr. Jack McHugh, a CIMMYT cropping systems agronomist in the Global Conservation Agriculture Program, ventured into the much colder Southern Hemisphere to take part in the Digital Rural Futures Conference at the University of Southern Queensland (USQ) in Toowoomba, Queensland, Australia.

Although the conference itself held considerable incentive to visit Australia, it was the National Centre for Engineering in Agriculture (NCEA) at USQ that was of greater interest, because of the possibilities for future collaborations in precision farming research and development (R&D). The NCEA was established in 1994 and specializes in engineering research relevant to the agribusiness sector and the natural resource base it utilizes. The center promotes research through extension, training and commercialization. Having worked at NCEA prior to CIMMYT, McHugh thought there were benefits in closer collaboration between CIMMYT and NCEA to take advantage of the precision agriculture R&D being conducted there.

Prior to the conference, Rodrigues and McHugh presented their work from Mexico and China, respectively, to NCEA staff. The discussion highlighted the complementary nature of the two organizations in the areas of precision agriculture, field monitoring, smart technologies and remote sensing. A tour of the NCEA ‘smart farms’ was the highlight of the conference for McHugh, who was able to see that much of his earlier work had been developed into significant applied instrumentation.

Rodrigues commented on the versitile multi-proximal sensor platform developed by McHugh at the NCEA: “The platform [on a motorbike] allows simultaneously on-the-go measurements of apparent soil electro-conductivity and the normalized difference vegetation index (NDVI), which gives a tremendous advantage compared with stop-and-go measurements. It’s something we started to do with a wood sled in the past year at CIMMYT’s experiment station in Obregón, but the motorbike would definitely create a new opportunity for fast and efficient measurements during crop growth.”

According to the NCEA, the farming system of the future will have robotic sensing systems and decision support tools that interface seamlessly with commercial on-farm operations to optimize resource usage. The NCEA is working on components of this, but much of what the CIMMYT researchers saw could be applied immediately to current farming systems and already includes considerable integration. Some of the systems displayed were controlled remotely by tablets and interfaced on large screen monitors that displayed real-time feedback of sensors, machinery and field activities including the following: smart weed spot sprayers that are able to differentiate crops from weeds based on reflectance and leaf shape; aerial vehicles with multispectral and thermal sensors; and irrigation monitoring for water scheduling.

Smart weed spot sprayer working with reflectance and leaf shapes to differentiate crops from weeds.

Other sensors on display included NDVI sensor platforms, automated cone penetrometers, sensor-equipped bee traps and automated adaptive control of furrow irrigation systems. Of particular note was the augmented reality (AR) for real-time interactivity with on-farm devices and information. AR automatically filters information from online sources based on the user’s current location and viewing perspective, using the camera in a tablet or smartphone. AR markers in the ‘real-world’ (e.g., weather stations, pumps, field sensors, crops and more) can be discovered and online information can be retrieved. The data is merged into the device’s real-world observation, and the user can interact with the content to control and configure machinery. The next step is to build collaboration between both institutes. McHugh and Rodrigues are looking forward to the identification and application of the NCEA technology through future research exchanges and project development.

Gupta Is new Director General of Borlaug Institute for South Asia

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Hari S. Gupta was selected as the second Director General (DG) of the Borlaug Institute for South Asia (BISA) in India and assumed his new position on August 7th. BISA, named to honor Dr. Norman E. Borlaug (1914-2009), world-renowned agricultural scientist and 1970 Nobel Peace Prize Laureate, is helping to meet food security and sustainable productivity growth in both irrigated and rain-fed production areas by adapting wheat and maize systems to the emerging challenges of climate change, natural resource scarcity and market demands. While working at CIMMYT and its predecessor organization, Borlaug’s development of high-yielding, dwarf varieties of wheat helped trigger the Green Revolution in the 1960s. BISA was established in 2011 to catalyze agricultural research for development (AR4D) in South Asia and is a non-profit international agricultural research institute founded by the Indian Council of Agricultural Research (ICAR) and CIMMYT, and managed by the latter.

According to Thomas A. Lumpkin, CIMMYT Director General, who also served concurrently as the first DG of BISA, “The challenge today is to increase yields of staple crops in South Asia despite the fact that climate change, population growth, dietary changes and natural resource degradation all pose enormous challenges to agriculture.” BISA was created to “address the challenges head on,” added Lumpkin. Providing food and nutritional security is “a daunting task” and the region needs “a dedicated, world-class effort focused entirely on these problems.” Lumpkin stated, “To lead BISA’s work on those problems, Dr. Gupta was chosen from a field of very qualified candidates. We anticipate that he will be a very strong DG for BISA and will lead it into its next phase.”

Photo: Courtesy of Indian Agricultural Research Institute

Prior to joining BISA, Gupta served for almost five and one-half years as Director and Vice Chancellor of the Indian Agricultural Research Institute (IARI), one of the largest agricultural research institutes in Asia. With 10 centers spread across India, IARI is the flagship research institute of ICAR and is known globally as the institution that was instrumental in spreading the Green Revolution across India. During the Green Revolution, Borlaug and regional scientists, policymakers and farmers in South Asia took India and Pakistan from near-famine in 1965-1966 to food self-sufficiency. Dr. Borlaug’s work in AR4D is credited with saving 1 billion people from hunger and malnutrition, and many were in South Asia. However, Borlaug correctly predicted that the Green Revolution boost in food production could not last, and was only a reprieve for humanity to adapt more sustainable systems and policies for managing population growth and use of natural resources.

Describing the goals he will focus on as DG of BISA, Gupta stated, “In order to usher a second Green Revolution in South Asia, improving crop productivity in conjunction with efficient use of natural resources – especially of soil and water – will be my top priority. In addition, reducing the vulnerability of South Asian agriculture to climate change will be addressed with an emphasis on reducing greenhouse gas emissions.” Climate change, ever-increasing population, persistent poverty, chronic malnutrition and declining annual crop yield gains are retarding human development across South Asia.

Despite notable progress over the past several decades, South Asia is still home to more than 300 million undernourished people (35 percent of the global total). Food price spikes exacerbate these issues and make the lives of South Asia’s poorest even more difficult. Because of these issues, Gupta said, “Increasing the system productivity per unit area and time with conservation of natural resources is BISA’s guiding principle. Development of technology for rain-fed areas will receive priority whereas sustaining the gains made in irrigated areas will help in meeting the region’s short-term needs for food and feed.” He continued, stating, “In order to make agriculture more efficient in South Asia, mechanization – particularly using renewable sources of energy in farm operations – will be pursued vigorously. My experience at IARI will help me to work with others to implement the programs rapidly and efficiently.” Prior to joining IARI, Gupta worked for a number of agricultural research organizations, including serving as: director, Vivekanand Institute of Hill Agriculture, or VPKAS (2000-09); principal scientist and head of the Division of Plant Breeding, ICAR Research Complex for NEH Region (1989-99); senior scientist, ICAR Research Complex for NEH Region (1983-89); and scientist, Central Potato Research Institute (1978-83). Gupta earned his M.Sc. in genetics at GB Pant University of Agriculture & Technology in Pant Nagar, India. He earned his Ph.D. at the Indian Institute of Technology, Kharagpur, West Bengal.

Among the highlights of his post-doctoral research are: Rockefeller Foundation Career Fellow in 2003 and 2006 at Washington State University (WSU) on the genetic engineering of rice for increasing starch biosynthesis; visiting scientist at WSU, working on the induction of early flowering in crop plants in 1993-94; and Commonwealth Scholar in the Department of Life Science at the University of Nottingham (UK) on plant regeneration from protoplast and protoplast-mediated genetic manipulation in rice in 1987-88. Among the honors and recognition that Gupta has received during his career are: President, Indian Society of Genetics and Plant Breeding (2011-13); Sardar Patel Outstanding Institution Award to IARI during his tenure (2011); ICAR’s Team Award for Outstanding Multidisciplinary Research (2010, 2008 and 1997); Dr. AS Cheema Award for Outstanding Contribution to Indian Agriculture (2010); Outstanding Institution Award to VPKAS (2008 and 2001) during his tenure as director; ICAR “Hari Om Ashram” Trust Award (2007); NRDC’s Meritorious Invention award (2006); ICAR National Professor (2006); Dr. Rajendra Prasad Award for Best Book in Crop Sciences (2004); and Rockefeller Foundation Career Fellowship (2000). Gupta belongs to numerous professional societies, including: Indian Society of Genetics and Plant Breeding; Fellow, National Academy of Agricultural Sciences; Fellow, Indian Society of Genetics and Plant Breeding; Fellow, Indian Society of Agricultural Biochemists; founding member, Society for Plant Biochemistry and Biotechnology; and life member of the Indian Societies of the Biological Chemists, Genetics and Plant Breeding, Hill Agriculture and Seed Science.

About BISA

BISA is developing a state-of-theart agricultural research platform, technology transfer centers and training facilities. BISA’s focus is on holistic, interdisciplinary and collaborative approaches to breeding, conservation agriculture and socioeconomics for wheat- and maizebased cropping and food systems. BISA’s facilities and formal institutional partnerships can create a world-class research infrastructure and lead to strategic collaborations among regional and international scientists, as well as public and private stakeholders across the region’s agricultural value chains.

The Institute closely coordinates and synergizes with CIMMYT and other international centers such as the International Rice Research Institute and the International Crops Research Institute for the Semi-Arid Tropics, with national institutions such as ICAR, the Pakistan Agriculture Research Council and the Nepal Agriculture Research Council and the private sector within the region. BISA currently has three sites in India – Ludhiana in Punjab State, Pusa in Bihar State and Jabalpur in Madhya Pradesh State. Each of the states contains varied agro-ecological zones allowing BISA and its partners to test a variety of maize and wheat cultivars suited to the equally varied environments of South Asia. BISA also has site commitments from Nepal and Pakistan and is in discussion with Afghanistan and Bangladesh for sites in those countries. Through BISA, CIMMYT and several national agricultural research systems (NARS) have taken a key step towards sustainable food and nutritional security.

CIMMYT has a long, successful history of partnerships in South Asia, playing an important role with regional partners in catalyzing the Green Revolution. The NARS have demonstrated their commitment to regional food and nutritional security, and recognized the contribution that BISA, an independent, non-profit organization with broad international backing, can make to strengthen existing efforts in the region. BISA’s role in strengthening South Asia’s food and nutritional security focuses on leveraging and accelerating efforts rather than duplicating or competing with existing institutions. BISA fills the most critical gap in present efforts in South Asia – an impartial coordinating platform for discovery and sharing information and technologies.

BISA’s primary focus is to strengthen capability-sharing through the collaborative execution of AR4D projects. This increase in resource productivity should increase food and nutritional security, environmental protection and economic development. BISA is also strengthening the links between national and international efforts, building capacity in the region’s scientific community and introducing the best seed, agricultural technologies and information to improve the productivity and profitability of the region’s smallholder farmers and agricultural value chains.