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Second Class of National Science and Technology Award to Fan Xingming and his team

The prestigious Second Class of National Science and Technology Awards was presented to the “Tropical and subtropical high-quality, highyield germplasm: innovation research and application” maize project led by Fan Xingming, a CIMMYT partner from the Institute of Food Crops (IFC) at the Yunnan Academy of Agricultural Sciences (YAAS), on 18 January 2013 in Beijing, China.

The project, coordinated by the national maize innovation team, has achieved great results in tropical and subtropical maize germplasm improvement, combining ability analysis and heterosis classification, establishing new methods to classify heterotic groups, and developing and registering 25 high-yielding maize hybrids, including Yunrui 8, Yunrui 1, and Yunyou 19. This has helped to resolve the long-lasting problem with the lack of tropical and subtropical superior maize hybrids in China. The hybrids have been planted on a cumulative area of 11 million hectares in the provinces of Yunnan, Guangxi, and Guizhou in southwestern China, and contributed to the provision of resources for poor farmers in the mountainous areas and among minority groups.

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Ravi Singh receives 2012 China Tianshan Award from Xinjiang Province of China

Ravi-Singh1Ravi Singh, distinguished scientist and head of Bread Wheat Improvement and Rust Research, Global Wheat Program, received the 2012 China Tianshan Award for his contributions to the economic and social progress of the Xinjiang Uygur Autonomous Region of China. The highest award given to foreign experts by the Government of Xinjiang Province was presented by Huang Wei, Executive Vice- Governor of the Province, on 27 September 2012 during a ceremony at Urumqi attended by over 150 officials and guests.

Singh is the second CIMMYT scientist to have received the award. Sanjaya Rajaram, former CIMMYT wheat director, received the Tianshan Award in 2005. This is a reflection of the significant contributions to wheat production in the province achieved through the use of CIMMYT germplasm. More than 20 CIMMYT-derived spring wheat varieties have been released in the province directly after introduction or by being used as parents since the 1970s. The main breeding priorities for the new varieties are increased yield potential with early maturity, short stature, rust resistance, and good end-use quality. The wheat production area covers about one million hectares in the province, 40 % of which is used for spring wheat. Spring wheat is sown in March, which enables drip irrigation systems to be used widely to mitigate the negative effects of limited water resources, as water becomes available from the melting snow in the mountains. The most recent CIMMYT-derived variety is Kambara, known as “Xinchun 23” in China (released in northwestern Mexico as “Tacupeto F2001”). High yielding, early-maturing wheat lines developed in recent years in Mexico and shared with two academies in the province offer further possibilities of increasing yield as they fit into the crop rotation.

Nepal team receives the 1st BGRI Gene Stewardship Award

Nepal-TeamThe first-ever Borlaug Global Rust Initiative (BGRI) Gene Stewardship Award was awarded to the Nepal wheat team for their performance in promoting durable wheat varieties and enhancing food security. The award was handed to the Nepal team at the BGRI Technical Workshop in Beijing, China, held during 1-4 September 2012. It was announced at a special ceremony by Ronnie Coffman (BGRI vice chair) and presented by Jeanie Borlaug Laube (BGRI chair).

The Stewardship Award recognizes a researcher or team of researchers serving a national breeding program or other nationally based institution. Award recipients demonstrate excellence in the development, multiplication, and/or release of rust resistant wheat varieties through appropriate means that encourage diversity and complexity of resistance, promote the durability of the materials, and help implement BGRI’s goal of responsible gene deployment and stewardship.

The Nepal team, led by Madan Raj Bhatta and consisting of Sarala Sharma, Dhruba Bahadur Thapa, Nutan Raj Gautam, and Deepak Bhandari, was nominated by Arun Joshi (CIMMYT senior wheat breeder). “The wheat research team of Nepal has contributed remarkably to bringing about the excellence in the development and release of rustresistant wheat varieties, seed multiplication of resistant varieties with diverse genetic backgrounds, disease surveillance, participatory research with farmers, and improvement of livelihoods of smallscale farmers to combat the problems of food security,” Joshi explained. “This shows what a small program can do to serve farmers and enhance productivity and sustainability.”

Currently, the wheat research team works to release Ug99 resistant varieties of wheat and disseminate the new varieties to resource poor farmers. The Ug99 resistant seed is expected to cover around 5.4% of the area under cultivation for wheat in Nepal by the end of the current cycle (2011-2012). The team has also increased awareness about resistant varieties and pre-release seed multiplication among farmers, seed industry, planners, and national agriculture system. The resistant high-yielding varieties have been developed through collaboration between NARC and international research centers: CIMMYT, the International Center for Agricultural Research in the Dry Areas (ICARDA), and BGRI. According to Madan Raj Bhatta (Nepal Agriculture Research Center, NARC), “the new technologies and wheat varieties introduced by the team have brought a significant increment in area and productivity of wheat during the last five years.” The wheat area increased from 0.7 mha to 0.8 mha, production from 1.4 metric tons to 1.7 metric tons, and productivity from 2.1 tons per hectare to 2.3 tons per hectare.

In addition to its work in Nepal, the wheat team has maintained strong international collaborations by actively working with internationally recognized institutions, such as CIMMYT, BGRI, Cornell University, University of Sydney, University of Minnesota, Indian Council of Agricultural Research, and Bangladesh Agriculture Research Institute. During the ceremony, NARC representatives praised the impressive performance of wheat varieties developed by the head of CIMMYT Global Wheat Breeding program Ravi Singh. Dil Bahadur Gurung (NARC executive director) expressed happiness with the wheat team’s achievements and highlighted its importance for Nepal.

11th International Gluten Workshop in Beijing

GlutenThe 11th International Gluten Workshop (IGW) jointly organized by the Chinese Academy of Agricultural Sciences (CAAS), Chinese Academy of Sciences (CAS), and CIMMYT, was held in Beijing, China, during 12-15 August 2012. 150 participants from 16 countries were welcomed by Xifeng Gong (deputy director general of the International Collaboration Department), Zhensheng Li (wheat geneticists and former vice president of CAS), Shumin Wang (deputy director of the Institute of Crop Science, CAAS), and Javier Peña on behalf of Thomas Lumpkin (CIMMYT director general).

The participants attended lectures and presentations on capturing discoveries from genomics, proteomics, and transcriptomics; biosynthesis, structure, and functional analysis of protein storage; improvement of end-use quality of wheat by genetic and alternative approaches; and starch and health attributes of wheat grain. Zhonghu He (CIMMYT distinguished scientist and liaison officer for China) gave a keynote presentation on wheat quality improvement, progress, and perspectives, and Javier Peña delivered an oral presentation on reliability of gluten-related smallscale- tests to estimated dough visco elasticity and bread loaf volume. The participants also met with Xu Liu, the vice president of CAAS. Besides lectures and presentations, the workshop included a visit to the wheat research lab at CAAS and CAS and discussed the application of new science in gluten study and wheat quality research in China. This research has achieved a significant progress, largely as a result of the long-term collaboration between CAAS and CIMMYT. To expand the scope of the workshop and to attract more participants, the organizers plan to include wheat biotechnology as one of the major topics for the 13th IGW (International Gluten and Wheat Biotechnology Workshop), which will be held in 2015 in Perth, Australia.

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Scientists discuss major wheat disease at a symposium in China

To discuss fusarium head blight (FHB, or scab), a major wheat disease, over 130 delegates from East Asia, Europe, and North and South America attended the 4th International Symposium on FHB in Nanjing, China, during 23-26 August 2012. The symposium was organized by Nanjing Agricultural University and Jiangsu Academy of Agricultural Sciences, CIMMYT’s long-time collaborators, and provided an opportunity to discuss recent research and explore further opportunities for cooperation.

CIMMYT was represented by Etienne Duveiller, BISA director of research for South Asia/associate director, global wheat program (GWP) and member of the international organizing committee; Xinyao He, Adjunct Postdoc in the GWP; and Young-Keun Cheong, CIMMYT Adjunct Scientist. Duveiller presented on wheat breeding for better resistance to FHB and reduction of mycotoxin contamination, and He discussed the characterization of new sources of resistance in his poster presentation.

Although considerable progress has been achieved in recent years regarding germplasm development and understanding of the genetics and genomics of scab resistance, FHB continues to be a major wheat disease requiring further research, as it not only reduces grain yield and quality but also raises concerns about food safety due to mycotoxin contamination.

The meeting also provided an opportunity for Duveiller to acknowledge the significant progress achieved in the last decade and the collaboration between CIMMYT and Chinese scientists in development and improvement of scab resistance germplasm. The 5th International FHB Symposium will be held in Brazil in 2016.

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Yunnan Academy of Agricultural Sciences explores collaboration and partnership in Southern Africa

CIMMYT-Southern Africa in Harare, Zimbabwe, hosted a delegation from the Yunnan Academy of Agricultural Sciences (YAAS), China, on 20 July 2012. The delegation was led by He Xingze, Chief and Chairman of Board of Trustees, who was accompanied by long-time CIMMYT collaborator Fan Xingming, director general of the Institute of Food Crops of YAAS. The delegation explored opportunities to strengthen and support maize breeding capacity in Southern Africa.

Fan acknowledged the long-standing collaboration between CIMMYT and the Chinese agricultural research institutions, as well as CIMMYT’s range of collaborative research activities and presence in China. Mulugetta Mekuria, Isaiah Nyagumbo, Jill Cairns, and Cosmos Magorokosho presented highlights of CIMMYT-Southern Africa research activities and partnership modalities. Progress and achievements of the Drought Tolerant Maize in Africa (DTMA), NSIMA (New Seed Initiative for Maize in Southern Africa), Improved Maize for African Soils (IMAS), Sustainable Intensification of Maize-Legume Cropping Systems in Eastern and Southern Africa (SIMLESA), and Conservation Agriculture (CA) projects were discussed, and the delegation visited the station facilities and met the support staff. They had the opportunity to meet Danisile Hikwa, principal director of Department of Research and Specialist Services of Zimbabwe. They are traveling to South Africa to visit the University of Natal and ARCGrain Crops Institute of South Africa.

The delegation expressed their intention to visit the region again for a substantive technical discussion with CIMMYT and its partners.

They wished to thank the senior CIMMYT management for arranging and facilitating their visit and for the hospitality accorded to them in Harare.

CIMMYT-Hyderabad welcomes a Limagrain delegation

A group of 14 Limagrain representatives visited the CIMMYT-Asia maize program in Hyderabad, India, on 18 July 2012. Limagrain is an international agricultural co-operative group specialized in field seeds, vegetable seeds and cereal products. Led by Daniel Cheron, CEO of Groupe Limagrain, the delegation included Georges Freyssinet (CEO of Genective), Valerie Mazza (corporate scientific director), Sophie Boulinguez (scientific project manager), Elisabeth Chanliaud (research coordinator), Christiane Duchene (seed regulation & IP manager), Mimia Ghania Taleb (biotechnology project manager), Frank Coutand (patent department manager), Jean-Paul Guinebretiere (research manager), Arnaud Messager (scientific director of Vegetable Seeds Division), Pascual Pérez (head of Trait Discovery), Philippe Bertaux (research director of Limagrain Asia), Suhas Nimbalkar (head of R&D Support Services, Bisco Bio Sciences), and Vinod K. Yadav (breeding coordinator of Bisco Bio Sciences). The team was received by P.H. Zaidi, Senior Maize Physiologist of the CIMMYT-Asia Program, and CIMMYT maize program staff based in Hyderabad.

India-ZaidiAfter a formal introduction, Zaidi gave an overview of the research program and priorities of the CIMMYT-Asia maize program, and the ongoing collaborations with various public and private institutions in the region, including the International Maize Improvement Consortium (IMIC-Asia). He emphasized CIMMYT’s initiatives towards purposeful partnerships, which offer a big opportunity for pro-poor agricultural investment and innovations (such as IMIC-Asia and MAIZE), the global alliance for food security, and the livelihood of resource-poor in the developing world.

The Limagrain team discussed the ongoing research programs at CIMMYT-Hyderabad and expressed particular interest in research on abiotic stresses, especially on drought and heat stress, and major diseases, including foliar diseases and stalk rots. Cheron mentioned the existing collaboration with CIMMYT, including research on double haploids in Mexico and within IMIC-Asia. In the future, he hopes to further strengthen the partnership, especially in Asia, starting in India and China. The group also visited CIMMYT’s root phenotyping facility at the ICRISAT campus and appreciated its significance for precision phenotyping for molecular breeding projects. At the end of the visit, Cheron suggested that the Limagrain-India team further explore avenues of mutual interest to build an even stronger partnership with the CIMMYT-Asia maize program.

CIMMYT-CAAS-Seed industry interface on rapid-cycle maize breeding

To strengthen the modern technology-driven maize breeding in China, “CIMMYT-CAAS-Seed Industry Interface on Rapid-cycle Maize Breeding” was held on June 9, 2012 in CIMMYT-CAAS Joint International Research Center based in Beijing. Co-sponsored by CIMMYT, the Chinese Academy of Agricultural Sciences (CAAS), and the Generation Challenge Programme (GCP), the workshop was attended by 52 scientists and managers from 23 seed companies and public sector institutions in China. Their aim was to establish a dynamic interface between the CIMMYT-CAAS maize team and the seed industry to begin rapid-cycle, genomic selection-based maize breeding, under an initiative titled “Eight + One”—that is, eight seed companies plus the CAAS institute of crop sciences—as an industry/institution collaboration platform for commercial maize breeding.

Senior managers addressing participants included David Bergvinson, senior program officer of the Bill & Melinda Gates Foundation; GCP director Jean-Marcel Ribaut; Shumin Wang, deputy director, CAAS-ICS; and from CIMMYT, Gary Atlin, associate director of the CIMMYT global maize program, and Kevin Pixley, director of the genetic resources program.

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Scientists presented on CIMMYT work in genomic selection (concept and CIMMYT activities, Xuecai Zhang), double haploid approaches in maize breeding (Daniel Jeffers), marker-assisted selection in maize breeding (Yunbi Xu), modeling and simulation in plant breeding (Jiankang Wang), bioinformatics and computing needs for genomic selection (Gary Atlin), and our breeding pipeline and examples from lowland tropical maize breeding (Xuecai Zhang). BGI-Shenzhen’s Gengyun Zhang described the company’s genotyping platforms and service. A group discussion addressed rapid-cycle maize breeding through industry-institution collaboration, such as the molecular breeding network in China, coordinated genotyping and phenotyping, use of temperate and tropical DH inducers, environmental data collection, and standardization of maize trials.

Participants also attended an “Open Day for Chinese Breeders,” a concurrent session of the 3rd Annual Meeting of Integrated Breeding Platform Project organized by GCP and CAAS, were introduced to IB FieldBook and IBP Analysis Tools. “(This workshop) came at a right time and brought us right information and knowledge for accelerating maize commercial breeding,” said Zanyong Sun, Vice president of Beijing Denong Seed Co. The workshop’s chief organizer, maize molecular breeder Yunbi Xu, sees it as an important first step for industry institution initiatives. “We’ll establish a common genotyping and MAS platform to serve the Chinese maize breeding community,” he said.

China-CIMMYT impact: celebrating 30 years of collaborations

CIMMYT director general Tom Lumpkin, Global Wheat Program director Hans Braun, and Global Maize Program director B M Prasanna visited the Chinese Academy of Agricultural Science (CAAS) during 16-18 May 2012. As part of the visit, CAAS President Li Jiayang highlighted CIMMYT’s contributions to Chinese agricultural development and named CIMMYT as a CAAS strategic partner for international collaboration. An agreement was also signed between CAAS and CIMMYT to further promote collaboration on applied biotechnology in crop improvement. A workshop was held on 18 May 2012 to celebrate the 30-year China-CIMMYT collaboration. There were more than 60 participants, including Ren Wang, CAAS vice president, deputy director general Liu Zhiming from the Ministry of Science and Technology, and division director Yinglan Zhang from the National Natural Science Foundation of China. Lumpkin described CIMMYT’s new development and collaboration role with China, followed by presentations from CIMMYT liaison officer Zhonghu He and five partners from CAAS and from the provinces of Sichuan, Yunnan, Shandong, and Ningxia.

MOAAs indicated in Ren Wang’s speech, CIMMYT has the largest investment in China among CGIAR centers. Five collaborative research programs led by CIMMYT scientists stationed in China have been established at CAAS, Yunnan and Sichuan. This has created a new model for CGIAR-China collaboration and increased CIMMYT’s impact in China. CIMMYT is also the first international center to establish collaborative projects with the National Natural Science Foundation of China.

CIMMYT wheat germplasm has contributed significantly to wheat production in China. More than 90,000 wheat accessions were introduced to China and 14,000 genotypes were stored in national and provincial genebanks, accounting for around 55% of introduced wheat germplasm in China. More than 260 improved varieties were released from CIMMYT germplasm, and the accumulated planting area for these varieties has reached 45 million hectares.

More than 1,000 tropical inbred lines and populations from CIMMYT were introduced to China. CIMMYT germplasm has played a significant role in subtropical maize breeding in Yunnan, Guangxi, Guizhou, and Sichuan provinces. CIMMYT tropical maize germplasm has also been used as a donor for breeding temperate maize in northern China, as occurred in the two leading temperate hybrids Nongda 108 and Zhengdan 958.

CIMMYT-China collaborations have also had an impact on the application of molecular technology. Forty functional markers were developed, validated, and used in various wheat breeding programs, and three advanced lines developed from molecular markers are expected to be released in the next few years. These markers have been widely used to characterize Chinese and CIMMYT germplasm. A novel method for mapping quantitative trait genes, the ICIM, was developed and used in many countries. Breeding simulation tools are used to optimize the complicated breeding strategies. Nine training courses have been held in China, Mexico, IRRI, and Australia to promote new tools and methods. QTL analysis through joint linkage-LD mapping was developed and used to understand molecular mechanisms for drought tolerance. The genes related to the biosynthesis of proV A have been cloned and used to develop functional markers for molecular breeding. Chip-based and sequencing-based genotyping techniques have been used for genetic diversity analysis, haplotype map construction, and association mapping in maize. More than 400 papers have been published in peer-reviewed journals, including several papers in high-impact journals such as Genetics (2007), PNAS (2010), and Nature Genetics (2010, 2012).

CHINA-CIMMYT-30years-collaboration-seminarBed planting has produced significant impact in the provinces of Gansu, Ningxia, Sichuan, Shandong, and Henan, bringing among other benefits a 30% reduction in input use. Bed planting is particularly advantageous at saving water. Conservation agriculture techniques combined with new winter wheat varieties have been broadly extended in traditional spring wheat areas, allowing farmers to take advantage of climate change to increase yields and reduce input use.

CIMMYT trained scientists play a leading role in China. Over 800 Chinese scientists and administrators have visited CIMMYT and more than 200 scientists have participated in various training courses or visiting scientist programs and more than 60 postgraduates were trained. Among them, more than 60 serve at a research professor level or became presidents of provincial academies or directors of research institutes. As of 2012, more than 20 training courses and international conferences have been jointly organized, with more than 3,500 participants.

Preventing stripe rust in Sichuan, China

GarryFieldOne of the worst wheat diseases in China, stripe rust has appeared in yearly epidemics since 1950 and caused losses of more than 60 million tons. As China is among the world’s main producers of wheat, the CIMMYT China office in Chengdu, in collaboration with the Sichuan Academy of Agricultural Sciences (SAAS), organized a two-day workshop to address these issues.

On 23 April 2012, around 50 participants from Sichuan and neighboring provinces were joined at SAAS by representatives from the Sichuan Department of Science and Technology and the Foreign Expert Bureau of Sichuan Province. The purpose of the workshop, which included site visits, was to learn about breeding for durable resistance to stripe rust in wheat.

Following an introduction by SAAS vice president Liu Jianjun, the workshop began with several seminars on breeding and rust diseases. Professor Bob McIntosh from Sydney University, Australia, presented a seminar on host pathogen interactions and the current status of global rust
epidemics, followed by CIMMYT scientist Sybil Herrera who gave an update on her work with minor, durable resistance genes, marker development and their application in breeding programs. CIMMYT wheat breeder Garry Rosewarne outlined some of the work on quantitative trait locus (QTL) analysis and breeding strategies at SAAS. Ennian Yang from SAAS closed with an account of CIMMYT SAAS collaborations, outlining the early shuttle breeding between China and Mexico and related outcomes.

The rest of the workshop was dedicated to field visits, with two sites visited on the first day. At Xindu farm, the main SAAS breeding site, the participants saw demonstrations of the selected bulk methodology. At the Guanghan site there were several elite yield trials as well as seed multiplication blocks of the latest, high-yielding releases from another Sichuan based breeder, Dr Wuyun Yang. During discussions, Dr Tang, a local agronomist, also explained conservation agriculture techniques developed in collaboration with CIMMYT’s consultant Ken Sayre. In traditional Chinese fashion, the evening was spent at a banquet at the “One Duck” restaurant, with everyone enjoying excellent food and wine, and catching up with old friends.

The second day of the workshop involved a visit to the field station of the Neijiang Academy of Agricultural Sciences, hosted by their president Huang Yuecheng. Based in a mountainous region near Chengdu, there were interesting demonstrations of intercropping with high-yielding wheat and specially designed equipment for cultivation and sowing on small, hilly plots. The main purpose of this field visit however was to see the academy’s own variety, Neimai 836, which has high yield potential and good resistance to powdery mildew (Pm21) as well as stem rust resistance against Ug99.

Zhonghu He becomes a CIMMYT Distinguished Scientist

During his visit to the Chinese Academy of Agricultural Sciences (CAAS) in China, Director General Thomas Lumpkin took the opportunity to make a very special announcement – the promotion of Zhonghu He to CIMMYT Distinguished Scientist. He now joins an illustrious group of past and present CIMMYT Distinguished Scientists: Mujeeb Kazi, Sanjaya Rajaram, Surinder K. Vasal, Ravi Singh, Jose Crossa, and Hugo Córdova.

He first joined CIMMYT as a post-doctoral scientist from 1990-92, before coming back to lead the China office when it first opened in 1997. In the subsequent 15 years He used his connections with CAAS to successfully establish a CIMMYT-CAAS wheat improvement program that is now highly recognized in China and worldwide for its significant achievements in varietal development, quality testing technology, molecular marker development and application, and training. In addition, He has authored 219 refereed journal articles in the last eight years alone, including publications in Crop Science, Euphytica, Journal of Cereal Science, and Journal of Theoretical and Applied Genetics.

Upon receiving the news of his promotion, He said: “Becoming a Distinguished Scientist was beyond my dreams ten years ago. It is a great honor, not only for me but also for my program and my fellow scientists and support staff. I am very grateful for the support and encouragement received from our colleagues at CIMMYT and CAAS, and thanks also to our collaborators in China and worldwide.”

Congratulations He and good luck in your new appointment.

Looking to the future with CAAS and China

the-chinese-academy1Whilst Director General Thomas Lumpkin is in China meeting with the ex- and current Presidents of the Chinese Academy of Agricultural Sciences (CAAS) in Beijing, a delegation of six CAAS representatives took the opportunity to come to El Batán to discuss collaborations between CIMMYT and China and opportunities for future projects. Li Jinxiang, Vice President, Ye Zhihua, Director General of the Institute of Quality Standard and Testing Technology for Agro-Products, Chen Wanquan, Director Generation of the Institute of Plant Protection, Li Sijing, Vice President of the Graduate School, Niu Liping, Deputy Director General of the Logistic Service Center, and Wang Jing, Project Officer of the Department of International Cooperation of CAAS visited CIMMYT while in Mexico for the G20 meetings.

Director of Research and Partnerships, Marianne Bänziger, presented on behalf of Lumpkin, highlighting that CIMMYT “benefits from a very strong contribution from China, not only in terms of partnerships, but also from Chinese students”. Seven students from China completing their PhD research at CIMMYT were also on hand to welcome the visitors and discuss their work.

In recent years, China’s largest crop has switched from rice to maize. Last year, 192 million tons of maize was harvested, but despite this record yield, China still needed to import 2 million tons of maize from the US alone. This deficit is partially due to increasing levels of meat consumption in China; per capita consumption of pork is expected to reach 38kg this year and a bad harvest could result in food shortages and price hikes worldwide. For this reason maize yields are a high priority for CIMMYT and maize breeder Félix San Vicente presented CIMMYT’s Global Maize Program to the visitors.

China is also the world’s largest producer of wheat (producing 17% of total yield), though the 2011 harvest was heavily affected by drought. Etienne Duveiller, Associate Director of the Global Wheat Program, presented CIMMYT’s recent developments and discussed a particular area of interest, the Wheat Yield Consortium, with the delegation. Marianne Bänziger reiterated “I think the WYC is one of the most incredible examples of international cooperation with 32 institutions working together to develop a strategy to raise wheat yields and meet the challenges ahead. We want to put wheat yields on track in order to sustain future generations”.

Globally, three countries produced half of the world’s grain last year –China, India, and the US. With 75 percent of the world’s spring wheat varieties and 50 percent of the developing world’s maize varieties coming from CIMMYT, partnerships with these key grain producing countries are a high priority. As stated by Marianne Banziger, “CIMMYT would like to strengthen our partnership with China and be prepared to address the future. No group can do it alone.”

Don’t put all your eggs in one basket: Bangladesh tries maize cropping for feed

CIMMYT E-News, vol 6 no. 2, February 2009

feb02Demand for maize has popped up across Asia, but much of the grain is enjoyed by poultry, not people. In Bangladesh, maize is a fairly new crop, yet demand in this country already mirrors that of neighboring nations like China and India. A recent CIMMYT report explores these emerging trends and the efforts to incorporate sustainable and economically viable maize cropping systems into a traditionally rice-based country.

“Simply put, people have more money,” says Olaf Erenstein, a CIMMYT agricultural economist. “Asia’s population growth has slowed and incomes have increased. This means dietary demands and expectations are changing as well.”

With extra money in their pockets, many people across Asia are starting to desire something with a bit more bite. In the past 40 years, increased prosperity and a related meat demand have sent two-thirds of global maize production toward animal feed instead of direct consumption. Currently, 62% of maize in Asia is used to feed livestock while only 22% goes straight to the dinner plate. This is not surprising, as total meat consumption in the seven major Asian maize-producing countries1 rose 280% between 1980 and 2000. Poultry, particularly, plays a large role. During the same time period, poultry production rose 7% each year in Asia, compared to a 5% global average.

The bare-bones reason for this shift is that it takes more grain to produce meat than would be used if people ate the product directly. Grain-to-meat conversion ratios for pork are on the order of 4:1. Chicken is more efficient, requiring only 2 kilograms of grain feed for a kilogram of growth. Either way, when people substitute meat for grain, grain production must increase to meet the demand.

From a farmer’s perspective, this is not a bad thing, and what is occurring now in Bangladesh illustrates how farmers can benefit, according to a recently published CIMMYT study. With a 15%-per-year increase in Bangladesh’s poultry sector since 1991, the feed demand has opened a new market for maize. And since the country’s current average per person poultry consumption is at less than 2 kg a year—compared to almost 4 kg in Pakistan, 14 kg in Thailand, and 33 kg in Malaysia—the maize and poultry industries have plenty of room to spread their wings.

What came first: The chicken or the seed?

The poultry industry in Bangladesh employs five million people, with millions of additional households relying on poultry production for income generation and nutrition. “Only in the past 10 to 15 years, as many people got a bit richer, especially in urban centers, did the market for poultry products, and therefore the profitability of maize, take off in Bangladesh,” says Stephen Waddington, who worked as regional agronomist in the center’s Bangladesh office during 2005-07 and is a co-author of the CIMMYT study.

“Many maize growers keep chickens, feed grain to them, and sell the poultry and eggs; more value is added than by just selling maize grain,” he says. “Most Bangladeshis have no history of using maize as human food, although roasting cobs, popcorn, and mixing maize flour with wheat in chapattis are all increasing.” Waddington adds that maize could grow in dinnertime popularity, as the price of wheat flour has increased and the price of maize grain remains almost 40% lower than that for wheat.

Worldwide, more maize is produced than any other cereal. In Asia, it is third, after rice and wheat. But due to the increasing demand for feed, maize production in Asia has almost quadrupled since 1960, primarily through improved yields, rather than area expansion. Future rapid population growth and maize demand will lead to maize being grown in place of other crops, the intensification of existing maize lands, the commercialization of maize-based production systems, and the expansion of maize cultivation into lands not currently farmed. The International Food Policy Research Institute estimates that Asia will account for 60% of global maize demand by 2020.

Maize in Bangladesh is mainly a high-input crop, grown with hybrid seed, large amounts of fertilizer, and irrigation. While a successful maize crop requires high inputs, it also provides several advantages. “Maize is more than two times as economical in terms of yield per unit of land as wheat or Boro rice,” says Yusuf Ali.”Maize also requires less water than Boro rice and has fewer pest and disease problems than Boro rice or wheat.” The maize area in Bangladesh is increasing around 20% per year.

Maize-rice cropping challenges

“The high potential productivity of maize in Bangladesh has yet to be fully realized,” says Yusuf Ali, a principal scientific officer with the On-Farm Research Division (OFRD) of the Bangladesh Agricultural Research Institute (BARI) and first author of the CIMMYT study. Bangladesh has a subtropical climate and fertile alluvial soils, both ideal for maize. From only a few thousand hectares in the 1980s, by 2007-08 its maize area had expanded to at least 221,000 hectares, he said.

Maize in Bangladesh is cropped during the dry winter season, which lasts from November to April. The other two crops commonly grown during winter are high-yielding irrigated rice (known in Asia as “Boro,” differentiating it from the flooded paddy rice common throughout the region) and wheat. Adding another crop into the mix and thereby increasing cropping diversity is beneficial for farmers, offering them more options.

Rice, the traditional staple cereal crop in Bangladesh, is grown throughout the country year round, often with two to three crops per year on the same land. So as the new crop on the block, maize must be merged with existing cropping patterns, the most common of which is winter maize sown after the harvest of paddy rice. And since rice is the key to food security in Bangladesh, farmers prefer to grow longer-season T. aman rice that provides higher yields than earlier-maturing varieties. This delays the sowing of maize until the second or third week of December. Low temperatures at that time slow maize germination and growth, and can decrease yields more than 20%. In addition, the later-resulting harvest can be hindered by early monsoon rains, which increase ear rot and the threat of waterlogging.

Another problem with maize-rice cropping systems is that the two crops require distinct soil environments. Maize needs loamy soils of good tilth and aeration, whereas rice needs puddled wet clay soils with high water-holding capacity. Puddling for rice obliterates the soil structure, and heavy tillage is required to rebuild the soil for maize. This is often difficult due to a lack of proper equipment, time, or irrigation. Moreover, excessive tillage for maize can deplete soils of nutrients and organic matter. Thus, as maize moves into rice-based cropping systems, agronomists need to develop sustainable cropping patterns, tillage management options, and integrated plant nutrient systems.

Support and supplies vital for success

“For a new crop like hybrid maize to flourish, there needs to be a flow of information and technology to and among farmers,” Waddington says.

In collaboration with the Bangladesh Agricultural Research Institute (BARI), the Department of Agricultural Extension (DAE), and various non-governmental organizations, CIMMYT provided hands-on training for maize production and distributed hybrid seed (which tends to be higher-yielding and more uniform, but must be purchased and planted each year to experience full benefits) to over 11,000 farm families across 35 districts in Bangladesh from 2000-06. A CIMMYT report showed that farmers who received the training were more likely to plant their maize at the best times and also irrigated more frequently and adopted optimal cropping patterns and fertilizer use, resulting in higher yields and better livelihoods.

“This training is vital, since the country is full of tiny, intensively-managed farms. Maize tends to be grown by the somewhat better resourced farmers, but these are still small-scale, even by regional standards,” says Waddingon, adding that farm families were eager to improve their maize-cropping knowledge and their fields.

Other efforts include BARI’s development and release of seven maize hybrids largely based on germplasm from CIMMYT. Two of the hybrids consistently produce comparable grain yields to those of commercial hybrids. The Institute is also working on short duration T. aman rice varieties that have yields and quality comparable to traditional varieties and could thus allow timelier planting of maize.

Power tillers seed the future

Another important advancement is the power-tiller-operated seeder (PTOS) created by the Wheat Research Center (WRC) of BARI. Originally for wheat, the machine has been modified and used to plant maize. Additional PTOSs need to be built, tested, and marketed. Another promising piece of equipment in the works is a power-tiller-operated bed former. Because making and destroying soil beds between every rice/maize rotation is not practical or efficient, the WRC-BARI/CIMMYT farm machinery program is working on a tiller that simultaneously creates a raised bed, sows seed, and fertilizes. This is vital since the turnaround time between rice and maize crops is limited. Like the PTOS, further testing and promotion are needed.

Though much work is still required to incorporate maize fully and sustainably into Bangladesh’s cropping systems, it has already spread across the country quicker than anticipated. Even so, scientists believe future production will fall short of demand. This gap provides farmers an additional crop option, and plants maize in a good position for future growth in Bangladesh.

For more information: Enamul Haque, program manager, CIMMYT-Bangladesh office (e.haque@cgiar.org).

1 China, India, Indonesia, Nepal, the Philippines, Thailand, and Vietnam were identified in a CIMMYT study as Asian countries with more than 100 K hectares sown with maize. At the time of the study, Bangladesh did not meet this maize area requirement and therefore is not included in this statistic.

What will Yunnan farmers do when the rain stops?

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Farmers in Yunnan Province are increasingly reacting to climate change by using maize seed for drought conditions developed by CIMMYT in collaboration with the Yunnan Academy of Agricultural Sciences.

Forming part of southwest China’s rugged terrain, the Yunnan Province mountain chains create spectacular vistas in every direction. Unfortunately, the scenic landscapes also make life tough for farmers. Only 5% of the province is cultivated land. Still, agriculture is a pillar of the provincial economy, and maize is the most commonly grown crop.

Faced with a mean elevation of over 2,000 meters and average slopes as steep as 19 degrees, Yunnan farmers have adapted by growing maize on the hills and mountains. This so-called “down-slope cultivation” has fed Yunnan for generations, but it has drawbacks, like increased erosion. Yunnan is one of the areas in China most seriously affected by erosion.

Missing the monsoon?
Besides their tremendous ability to adapt, farmers have one other ally in the continual struggle to grow maize in this unlikely environment: the monsoon. Yunnan Province has a subtropical climate and an average annual rainfall of more than a meter—very generous for maize—and most of which normally falls during the growing season, May to October.

But today’s farmers in Yunnan have a new concern: what happens when the monsoon fails to appear? It’s not a hypothetical question. In 2010, severe weather in southwest China resulted in the region’s worst drought in a century. In the months prior, large swaths of Yunnan hadn’t received adequate rainfall. Then the rainy season ended early, temperatures rose, and drought set in, ultimately affecting more than 60 million people and destroying billions of dollars worth of crops. In 2011, drought re-occurred in eastern Yunnan, affecting a large area of maize.

Now farmers are left wondering if these phenomena are flukes or part of a larger trend. In fact, climate change models suggest the fluctuations in rainfall will continue and increase in intensity. Yunnan’s maize farmers may no longer be able to count on the monsoon.

Better maize: Part of the answer
The solution, put simply, is to change. And helping farmers to change from the only thing they’ve ever known takes patient expertise. Some of that has come from a team led by Dr. Fan Xingming, Director General, Institute of Food Crops, Yunnan Academy of Agricultural Sciences (YAAS), in partnership with CIMMYT.

Drawing on sources from CIMMYT’s maize and wheat seed bank—which conserves 27,000 unique collections of maize seed—Fan and his group have developed 22 hybrids, several of which possess improved performance under drought and multiple disease resistance. Because they produce consistently higher yields and better incomes for Yunnan farmers, the hybrids have been a hit. Today they cover approximately 200,000 hectares—15% of Yunnan’s annual maize area—and have increased farmers’ incomes by approximately USD 200 million between 2000 to 2010. One of those developed, Yunrui 47, is drought tolerant and performed well in 2011 in severely droughted areas in Yunnan, including Zhaotong, Wenshan, Xuanwei, and Huize.

Some are more resistant to insect infestation and rot than older maize varieties. Because of this, their grain can be stored longer. Instead of selling their harvest in January when prices are low, farmers can keep it until June, when prices are better. The hybrid Yunrui 88 is high-yielding and resistant to several of the region’s most damaging maize diseases, according to Dan Jeffers, a CIMMYT maize breeder based in Kunming. “Yunrui 88 has been highly resistant to maize dwarf mosaic, resistant to leaf blights, and shows intermediate resistance to ear rot,” he says. “In addition, it yields an average of around 9 tons per hectare of grain.”

Another of the hybrids, Yunrui 8, is an example of quality protein maize, a high-lysine and high-oil hybrid that is more nutritious for humans and farm animals, as well as being highly resistant to ear rots. Yunrui 8 has been recommended by the Ministry of Agriculture of China as the leading national variety in 2010. It is the most popular hybrid in Yunnan, with a cumulative coverage of 0.5 million hectares in the province.

Farmers have testified to the nutritional quality of the hybrid grain. Huan Yuanmin and her husband grew Yunrui 8 on 4.6 hectares for 3 years. Utilizing the profits from their surplus harvests, they bought 200 pigs and fed them hybrid maize grain. “We noticed that with the hybrid maize, our animals grew faster and were more robust,” says Huan. “The sows gave more milk, so suckling pigs could be weaned three-to-five days ahead of the normal of 28 days.” This in turn raised the family’s profits. “Even the skin and hair of the pigs became shinier,” she added.

International partnerships bring benefits for farmers
Staff of YAAS began collaborating with CIMMYT in 1976. Over the decades, that relationship was strengthened by the personal visits of CIMMYT regional maize staff and the late Nobel Peace Prize Laureate and wheat breeder, Dr. Norman Borlaug. According to Fan, CIMMYT germplasm was the basis for Yunnan’s strong maize production and breeding program. “CIMMYT experts have helped Yunnan in many ways, including training and sharing expertise,” he said. “I really appreciate this and sincerely hope we can continue cooperating, progressing in maize breeding, and developing more hybrids that will allow farmers to contribute to the food security of people in less developed areas.”

For more information: Dan Jeffers, maize breeder (d.jeffers@cgiar.org)


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Plowing through poverty

CIMMYT E-News, vol 6 no. 4, June 2009

As part of the global work to test and disseminate conservation agriculture, CIMMYT and partners have introduced and promoted new agricultural machinery in Bangladesh, helping farmers to improve their crop yields, food security, and livelihoods.

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