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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 BatĂĄn 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 BĂ€nziger, 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 FĂ©lix 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 BĂ€nziger 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.”

Ganesan Srinivasan continues to harvest success

ganesanWe are delighted to hear that Ganesan Srinivasan has been appointed Dean of Agriculture and Natural Resources at Santa Rosa Junior College, California, USA.

Srinivasan joined CIMMYT in 1990 as a post-doctoral fellow. Over 15 years he headed the International Maize Testing Program, led the Highland Maize Program and later the Subtropical Maize Program, and, in 2000, became associate director of the Maize Program. He made important contributions in breeding improved, stress tolerant, and quality protein maize germplasm, and developed and released several CIMMYT Maize Lines (CMLs). In 2005 he left to become director of the University Agricultural Laboratory at California State University at Fresno, though he remains a member of CIMMYT’s extended family.

He takes up his new post on 31 May 2012. Congratulations Ganesan and we wish you every success!

CIMMYT’s Corporate Annual Report for 2010-11 is now available

Entitled Acute awareness, bold action to energize agriculture, the report provides compelling highlights of the center’s work to sustainably increase the productivity of maize and wheat systems, thereby ensuring global food security and reducing poverty. There is also good mention of expanded support and partnerships through initiatives like BISA, and the CGIAR research programs MAIZE and WHEAT.

Please share the link above with your partners, stakeholders, or anyone else who might be interested. Print copies are being distributed to all CIMMYT offices, and more are available on request or at the publications window in El BatĂĄn, Mexico. Staff are encouraged to continue to send to Corporate Communications reports and presentations in all forms regarding the work you do, the people you work with, and shared accomplishments.

Tsedeke Abate joins CIMMYT as DTMA Project Leader

Dr-Tsedeke-Abates-PhotoA citizen of Ethiopia, Tsedeke Abate joined CIMMYT Global Maize Program on 08 May 2012, and has taken over responsibilities from Wilfred Mwangi as the project leader of the Drought Tolerant Maize for Africa (DTMA) project. Abate will be based in Nairobi, Kenya. He obtained his BS and MS degrees in agriculture from the University of Florida, USA, and his PhD in biological sciences from Simon Fraser University, Vancouver, Canada.

Abate has a wide range of productive and successful experience in leadership and management of agricultural research and development. As project coordinator, during 2008-12 he led the Tropical Legumes II project jointly implemented by ICRISAT, CIAT and IITA in Africa and South Asia. Prior to this Abate was the director general of the Ethiopian Institute of Agricultural Research (EIAR). He is also well known for his passion for putting agricultural knowledge into practical use—scaling-up and scaling-out improved technologies to impact the lives and livelihoods of smallholder farmers.

CIMMYT participates in EU Day exhibition in Nairobi

EU-exhibitionAs part of European Union Day celebrations in Kenya, an exhibition to showcase research and development activities supported by the EU or its member states took place on 09 May 2012 at the International Centre of Insect Physiology and Ecology (ICIPE) in Nairobi. CIMMYT was among 12 exhibitors participating and featured the projects Drought Tolerant Maize for Africa (DTMA), Insect Resistant Maize for Africa (IRMA), Effective Grain Storage (EGS), Improved Maize for African Soils (IMAS), and Sustainable Intensification of Maize-Legume Cropping System for Food Security in Eastern and Southern Africa (SIMLESA). On display were cobs of CIMMYT and commercial maize hybrids harvested from drought stressed plots alongside cobs of the same hybrids from fully irrigated plots. Several CIMMYT publications were available for visitors.

Maize is a staple food in Kenya, so visitors to the stand were keen to know which varieties would thrive in their locales. Visitors also included people working in other agricultural research and development organizations, and the United States Agency for International Development (USAID) country director Erna Kerst. A component of the DTMA project focusing on heat stress is funded by USAID. CIMMYT was represented by Dan Makumbi, Titus Kosgei, and Florence Sipalla.

DTMA partners in West Africa gather for annual regional planning meeting

DTMA-W.-Africa-meetingThe Regional Planning Meeting for phase III of the Drought Tolerant Maize for Africa (DTMA) project was held in Kumasi, Ghana, during the week of 16-19 April 2012. The objectives of this meeting were to (i) review and document progress on DTMA project activities conducted in West Africa in 2011, (ii) present, critically review, and approve project proposals submitted for funding by partner countries Benin Republic, Ghana, Mali, and Nigeria under phase III, and develop work plans for the 2012 cropping season. The regional meetings have proved instrumental in planning and monitoring of DTMA project activities and building the requisite partnerships for successful implementation of the project.

The meeting was attended by 26 participants, representing research institutions, national agricultural research system (NARS) partners, NGOs, and seed companies. NARS scientists from the partner countries presented 20 progress reports and received feedback. All the presenters highlighted the importance of engaging partners from diverse disciplines in successfully implementing project activities in their respective countries. Discussion sessions were devoted to peer-review of the four partner countries’ 2012 work plans on complementary breeding, seed production, regional trials, national performance, and on-farm trials, demonstrations and promotional activities.

After this, national group meetings were held to revise the work plans taking into consideration the input provided, and these were then presented during plenary sessions. During the meeting, it was reported that a total of 38 new drought tolerant maize varieties have so far been released, including seven hybrids, with a total of 1,057 metric tons of seed produced. The DTMA project, which is jointly led by CIMMYT and the International Institute of Tropical Agriculture (IITA), makes annual awards to the best teams in each region to motivate scientists and foster healthy competition among partner countries. An award committee consisting of a representative from each of the participating countries and two independent members convened during the planning meeting, and assessed achievements and progress made in 2011. Ghana received the award for the best technology promotion team award in West Africa, while Nigeria received the best breeding team award. The runners-up were the Malian team for technology promotion and Benin Republic for breeding. Hans Adu-Dapaah, director of the Ghanaian Council for Scientific and Industrial Research’s Crops Research Institute (CSIR-CRI), presented the awards to the winning teams during the closing ceremony. IITA also presented CIMMYT’s Wilfred Mwangi with a plaque as a token of appreciation for his good leadership of the DTMA project in phases I and II.

Director General visits Nepal

LumpkinNepal-NARI-KHUMALTAR1CIMMYT director general Thomas Lumpkin visited Nepal during 01-03 May 2012. One of the main objectives of his visit was to discuss the Borlaug Institute for South Asia (BISA) launched last year in India, and the potential for Nepal to follow a similar model, with Nepal Agricultural Research Council (NARC) and CIMMYT scientists.

Lumpkin also had fruitful technical and administrative discussions with international and national CIMMYT staff based in Kathmandu. Together with several NARC directors—including Tek Bahadur Gurung (director of administration and interim executive director), B.N. Mahto (director of planning and coordination), and Neeranjan Adhikari (director of crops and horticulture)—he visited three potential sites at NARC’s Khumaltar research station, on the outskirts of Kathmandu, where the main Nepal BISA administrative building and research and training facilities could be located. From CIMMYT, the group also included Guillermo Ortiz Ferrara, country liaison officer (CLO) for Nepal, Nirmal Gadal and Dilli Bahadur K.C. of the Hill Maize Research Project (HMRP), and CIMMYT-Nepal office manager Surath Pradhan.

“CIMMYT is interested in expanding the crop improvement and crop management systems research and development activities being conducted in collaboration with the Ministry of Agriculture and Cooperatives, NARC, and all the other partners who have been associated with CIMMYT in Nepal for more than 40 years,” said Lumpkin. “We look forward to a Nepal BISA that can enable CIMMYT and its partners to deliver greater impact toward the food security in the country.” On behalf of NARC, Tek Bahadur Gurung expressed NARC’s interest and unconditional support to make the Nepal BISA a reality. NARC management, the CIMMYT CLO, and other senior CIMMYT staff based in Nepal will soon meet to develop a strategy and start the process of designing and implementing BISA Nepal.

On the second day of his visit, Lumpkin was invited to deliver a lecture at the Nepal Agricultural Research Institute (NARI) on “Food security in South Asia: Opportunities and challenges for agro-eco-scientists”. More than 50 scientists from NARC and NARI attended the lecture, which generated a lot of interest and a lively discussion. Lumpkin was also asked to inaugurate a sports event at Khumaltar organized by NARC, making the first serve in a volleyball tournament. Colleagues observed: “Not a bad serve for a person who travels more than 200 days a year!”

Bangladesh seed summit

IMG_2549Food security is highlighted as one of the main priorities for Bangladesh in the country’s Investment Plan, and a sustainable seed supply constitutes a pivotal component of food security. With this in mind, a maize and wheat “seed summit” was jointly organized by the Ministry of Agriculture (MoA) and CIMMYT at the Hotel Lake Castle in Dhaka on 26 April 2012.

The event was chaired by Anwar Faruque, additional secretary for the MoA, and Shirazul Islam, research director of the Bangladesh Agriculture Research Institute (BARI). There were about 30 participants representing the MoA, the Bangladesh Agricultural Research Council (BARC), the Bangladesh Agricultural Development Corporation (BADC), several seed companies, CIMMYT, the International Rice Research Institute (IRRI), and the United States Agency for International Development (USAID).

Aimed at developing a strategic roadmap for sustainable seed production, the meeting provided an opportunity for specialists from across the region to share their knowledge and experiences. Naseer Uddin Ahmed, chief seed technologist at MoA, and Md Nuruzzaman, director of seed and horticulture at BADC, talked about opportunities and challenges for sustainable seed production and dissemination in Bangladesh. CIMMYT consultant Stephen Waddington shared findings from the Seed Sector Scoping Study for South Asia.

Anwar Faruque stressed the need for the private sector and government to work jointly to ensure the availability of affordable, quality seed for resource-poor and marginal farmers. CIMMYT maize breeder Bindiganavile Vivek described that very approach being pursued under the International Maize Improvement Consortium (IMIC)-Asia, saying it was gaining popularity across Asia.

Participants expressed considerable interest, particularly at the possibility of accessing finished hybrids.

On behalf of the Bangladesh Rehabilitation Assistance Committee (BRAC), Sudhir Chandra Nath spoke alongside M.A. Razzaque, executive director of Lal Teer Seed Company, and B.I Siddidue of Siddiquis Seeds, on private seed production challenges and opportunities in Bangladesh and associated expectations from the public sector.

A “Roundtable Discussion for Roadmap Development” was led by CIMMYT agricultural economist Frederick Rossi, where many issues and follow-ups were identified, including ways to encourage private sector involvement. Much discussion was generated on how to increase the relevance of maize hybrids from BARI and therefore reduce dependency on importing hybrid seeds from elsewhere. Private company representatives expressed their interest in improving the diversity, efficiency, and sustainability of wheat and maize seed systems. The CIMMYT Bangladesh office will help to organize a series of follow-up meetings to reach a consensus on the fundamental features of a sustainable and functional seed system for Bangladesh.

Africa recruits research partners to secure its food

africa-story-pic1ACIAR’s Dr. John Dixon and Dr. Daniel Rodriguez of the Queensland Alliance for Agriculture and Food Innovation, with farmers from Melkassa, Ethiopia africastory-pic2A maize – legume farm in Tanzania africastory-pic3Government extension officer Frank Swai, Tanzania africastory-pic4Farmer and single mother of four Felista Mateo, Tanzania africastory-pic5CIMMYT’s Dr. Fred Kanampiu, Tanzania

By Judie-Lynn Rabar and
Dr. Gio Braidotti

East African farmers are spearheading a research drive to intensify crop production of their most important staple foods. The farmers’ experiments with conservation agriculture and variety selection are part of a broader, 5-country push to stave off a looming food and soil-health crisis.

Kilima Tembo is a secondary school in the Karatu district in Tanzania’s rural highlands. Here, near the Ngorongoro Crater and Tarangira National Park, agriculture is king and food security rests squarely on grains grown in the region’s maize–legume intercropping system.

So important is farming to the community that the school has an agriculture teacher and the school head, Ms Odilia Basso, has allowed the Selian Agricultural Research Institute (SARI) to use school grounds to run field trials as part of a 5-country initiative to overhaul the maize and legumes supply chain—from farm to market.

That means breaking with a long-standing cycle of lifting production simply by bringing more land under the plough. The ecological consequences of that approach are catching up with farmers and their environment, but agricultural science is providing more sustainable alternatives to improve food security.

The research-based strategy is called SIMLESA—sustainable intensification of maize–legume cropping systems for food security in eastern and southern Africa. Launched in March 2010, the project is supported by the Australian Government through ACIAR.

Ambitious aims

A major objective is to introduce conservation agriculture techniques and more resilient varieties to increase the productivity and resilience of this vital cropping system. SIMLESA is aiming not only to increase yields by 30% from the 2009 average but also to reduce, by the same factor, risk from yield variability between seasons.

The Kilima Tembo Secondary School will help achieve these goals. The school is hosting the so-called ‘Mother Trial’—a long-term SARI field trial of conservation agriculture. This farming practice involves conserving ground cover between harvests to preserve soil moisture and, over a number of years, radically improve soil health and fertility.

Unlike 11 other farmer-led field sites established by SARI (the so-called ‘Baby Trials’), the Mother Trial is managed directly by the institute’s scientists, landing the school’s students with front-row seats on research and development activities designed to sustain a farming revolution.

Mr. Bashir Makoko, an agronomist working on the SIMLESA project, says students have the opportunity to learn about the project and its significance to the community at an open day with scientists and extension workers from SARI.

The socioeconomist running the trial, Mr. Frank Mbando, is encouraging student participation. He has arranged for data to be collected in ways that allow students to interact with technical staff. “Direct involvement in the project will equip the students with the information they need as potential farmers,” he says.

Household and regional impacts

Supporting these activities are partnerships that link farmers with a suite of national resources—extension officers, research centres and agricultural ministries—and international research centres.

Coordinating these linkages is Dr. Mulugetta Mekuria, from the South African regional office of the International Maize and Wheat Improvement Center (CIMMYT). Also involved is the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT).

Dr. Mekuria says SIMLESA was designed to have impacts at both the household and regional level.

“The aim is to ensure food security through agricultural research, stronger economic institutions, partnerships, and capacity building,” he says. “We want to increase food security and incomes while driving economic development through improved productivity from more resilient and sustainable maize-based farming systems.”

To implement the program, Dr. Mekuria is using the ‘3-I Approach’, a research for development (R4D) strategy designed to enhance smallholder prosperity based on the principles of integration, innovation, and impact. “SIMLESA activities will focus on integrated cropping systems, the use of innovation platforms to test and promote promising practices, and ensuring positive and measurable impacts on food security, sustainability and farm household incomes.”

ACIAR is funding SIMLESA with $20 million in financial support. The centre has enlisted Australian expertise through Dr. Daniel Rodriguez, of the Queensland Alliance for Agriculture and Food Innovation, and Professor John Howieson from the Institute for Crop and Plant Sciences at Murdoch University in Perth.

Positive experience

Ms. Felista Mateo, a 37-year-old farmer from Kilima Tembo village is already benefitting from participating in SIMLESA.

A single mother of four, Ms. Mateo supports her family with produce from her land, mainly maize and pigeon pea. Any surpluses, though small, are stored in granaries and either used domestically or sold to middlemen.

Following advice from government extension officer Mr. Frank Swai, she achieved yield gains that her neighbours are now attempting to duplicate. As her harvest increases, she plans to build a larger granary to store her surplus and sell more grain as a cash crop.

Traditionally, farmers have had no way of tracking the market and the middlemen who buy their produce have exercised control over prices. However, Ms. Mateo owns a mobile phone and since the inception of SIMLESA and its support network, she can now call an extension officer and check market prices. The result is greater bargaining power for the villagers when the middlemen come calling.

Averting food insecurity

More than 200 million people living in extreme poverty in the partner countries stand to benefit from SIMLESA.

Currently, the region is barely self-sufficient in grain, importing 10% of its needs—one quarter in the form of emergency food aid.
Maize is the main staple and legumes —primarily groundnut, pigeon pea and chickpea— are an important source of protein. Instead of a more prosperous future, however, the region is facing growth in demand for maize and legumes in the next 10 years. It is that trend towards food insecurity that SIMLESA is attempting to avert.

But it is not just on-farm practices that are targeted for innovation. Urban grain prices have remained stubbornly high following the global food crisis of 2007–08. But higher prices for consumers have not translated into higher prices for farmers. This has weakened incentives for farmers to increase food crop production, a state of affairs that SIMLESA is attempting to change.

CIMMYT’s Dr. Fred Kanampiu says that the SIMLESA project is aiming to achieve a ‘whole-chain’ impact. “Despite the multiple efforts underway with the researchers, the final focus should not be lost,” he says. “It is the farmer who is to be the end beneficiary of the research. The farmers’ lives should be improved, their pockets well-lined and their families well catered for.”

Of all the crops produced by farmers such as Ms. Mateo, it is pigeon pea that has an important role to play as a cash crop. Farmers are fond of this legume because it yields two harvests a year and there is a good export market to India. Pigeon pea retails up to TZS150,000 (about US$100) per 100 kilogram bag. On average, one acre (0.405 hectares) of land yields 300–400 kg of pigeon pea. Typically, 95% of the crop is sold.

In Karatu district some 15% of farmers live on less than a dollar a day. Mr. Makoko says the major obstacles to lifting their profitability are high inputs costs, low produce prices, lack of markets, and prolonged drought. By introducing pigeon pea or similar crops, and integrating the ‘whole-chain’ approach, these obstacles can be reduced or overcome.

socioeconomist frank mbando tanzania
Socioeconomist Frank Mbando, Tanzania.
tuaeli mmbaga tanzania
Senior agronomist Tuaeli Mmbaga, Tanzania.

The way forward will include training farmers to provide them with further education on how to manage their land.”

–Tuaeli Mmbaga

Better varieties

While the main research thrust is on conservation agriculture, CIMMY T and ICRISAT are participating in accelerated breeding and performance trials that aim to introduce farmers to maize and legume varieties that yield well in good years and are resilient enough in the bad seasons to help reduce farmers’ risks.

Mr. Mbando is tracking impacts associated with the new varieties and says the farmers’ response to the studies has been positive.

“They suggested that breeders take into account farmers’ criteria when making selections, so a participatory approach will be used to evaluate varieties,” he says. “So far, farmers have indicated early maturity, pest and disease tolerance, high yields and marketability as the preferred traits. Variety registration and production will then also be stepped up to make the seed available in sufficient quantities.”

Partnership approach

Mbulu district, located about 50 kilometres from Karatu, is the next community targeted for SIMLESA activities in Tanzania, to start after the current crop has been harvested. At the SIMLESA inception meeting, farmers agreed to leave post-harvest residue on the ground in preparation for the trials. Field activities in the Eastern Zone districts of Gairo and Mvomero are expected to begin in the next growing season.

Ms. Tuaeli Mmbaga, the senior agronomist on this project, says that with support from extension officers, farmers will assess the technology both pre-harvest and post-harvest.

“The way forward will include training farmers to provide them with further education on how to manage their land,” she says. “This will include an Innovation Learning Platform in partnership with farm produce stockists, community leaders, and other stakeholders to ensure that more people become involved with the project.”

Crop modeling scientist Dr. Daniel Rodriguez, who leads the Queensland component of ACIAR’s SIMLESA program, is convinced that research to reduce food shortages in eastern and southern Africa could have many benefits for farmers, including in his native Queensland.

“Our scientists will be working to improve the resilience and profitability of African farms, providing access to better seeds and fertilisers to raise the productivity of local maize–legume farming systems,” Dr. Rodriguez says. “Together we may be able to help solve one of the greatest challenges for the developed world—eliminating hunger and poverty in Africa—while at the same time boosting legume production here in Australia.”

Building agricultural research capacity

ACIAR’s Dr. John Dixon says the emphasis of Australia’s direct involvement is on building capacity within the African agricultural research system.

“Conservation agriculture amounts to a substantial shift in farming practices for the region,” Dr. Dixon says. “But it stands to provide so many advantages—not just greater water-use efficiency and soil health but also opportunities to break disease cycles and improve livestock nutrition.”

These are long-term efforts that need to be adapted to many agro-climatically diverse locations, Dr. Dixon says. “So it is vital that the African agricultural research system is built up so that it can take lead responsibility for implementing innovation into the future.”


 

Maize farmers and seed businesses changing with the times in Malawi

In Malawi, farmers who have in the past few years witnessed crop failure due to poor rains are switching to two new drought tolerant maize varieties, and seed companies are changing their business models to keep up.

jun01“The climate is changing, rainfall is decreasing and the weather is now dictating which varieties farmers grow and in turn which varieties seed companies produce,” says Dellings Phiri, general manager of Seed Co. Malawi, a leading southern African seed company.

He refers to two new drought tolerant maize varieties–ZM 309 and ZM 523–developed specifically for Malawi’s drought-prone areas with infertile soils by CIMMYT, Malawi’s Ministry of Agriculture and Food Security, and the Chitedze Research Station, through the Drought Tolerant maize for Africa (DTMA) project. The research was supported by the Bill & Melinda Gates Foundation, and the Howard G. Buffett Foundation. The varieties were officially launched in March 2009.

“In Malawi, each adult eats 300 kilos of maize annually, and ZM 309 and ZM 523 will give farmers a boost in safeguarding their maize harvests from the increasing threat of drought,” says Wilfred Mwangi, associate director of CIMMYT’s Global Maize Program and leader of the DTMA project.

First introduced by local extension agents to farmers in the drought-prone Balaka area through farmer-managed demonstration plots, these varieties have rapidly become popular among farmers, who have been impressed by their superior performance and accepted them. Compared to other popular commercially marketed varieties, farmers have found ZM 309 and ZM 523 to have higher yields, mature earlier, offer better resistance to common maize leafy diseases, and be better for pounding into flour. Locally, ZM 309 is known as Msunga banja, Chichewa for “that which takes care of or feeds the family,” while ZM 523 is Mwayi, which means “fortunate.”

Malawi supports for food security
In March 2009, farmers recommended ZM 309 for inclusion in Malawi’s Agricultural Input Subsidy Program, introduced in 2004 and credited with improving the country’s agricultural productivity and food security. Targeting smallholder farmers with access to land and other production resources, the program involves distribution of coupons for subsidized improved maize seed and fertilizer–one for a 100-kilogram bag of fertilizer and another for either 3 kilograms of standard seed or 2 kilograms of hybrid seed. In September 2009, Malawi’s President Dr. Bingu wa Mutharika endorsed ZM 309 saying, “ZM 309 will give Malawi farmers an advantage because it is high-yielding and drought tolerant. We welcome this research because it will help Malawi cope with climate change and improve food security.” The inclusion of ZM 309 in the subsidy program has seen the variety grown in six of the most drought-prone districts in Malawi, contributing to improved food security of thousands of farm families.

No more hungry months
One such family is that of Bamusi Stambuli, 63. Together with his wife Sagulani, they have they have 7 children and 5 grandchildren. In April 2010, Stambuli harvested nearly 1.8 tons of ZM 309 from his 0.6-hectare plot. “I will now be able to feed my family for a whole year,” says Stambuli proudly.

This year Stambuli will save at least USD 330 that he would have spent to purchase maize for his family. Farmers who grew ZM 309 obtained yields of 3.0 to 3.5 tons per hectare–twice those for the popular local varieties, Kanjelenjele and Kagolo.

In an area where locals rely on farming, fishing, basket-making, sale of firewood, and general trading, Stambuli’s success with ZM 309 is drawing many peers to his farm to buy ZM 309 seed.

Business as (un)usual
ZM 309 and ZM 523 are open pollinated varieties (OPVs), meaning farmers can save seed from one season and plant it for up to three subsequent seasons without punitive losses in yields or other desirable traits. Ordinarily, OPVs are not as attractive to commercial seed companies as hybrids, because with hybrids farmers have to buy and sow fresh seed every season or risk decreased performance of their crops. With ZM 309 and ZM 523 this is not the case. Seed Co. is changing its business model and investing in producing adequate amounts of both varieties to meet increased demand from farmers.

“We hope that from seeing the performance of ZM 309, farmers will be encouraged to start buying certified maize seed to boost production,” says Phiri.

A World Tour: Program Director Profile

March, 2005

kpixleyNow that all of CIMMYT’s new program directors have been officially installed, it is time to get acquainted with them, as well as their ideas and plans for the programs. This month we feature Rodomiro Ortiz, director of the Intensive Agro-Ecosystems Program.

What would it take for an accomplished scientist to move to Mexico? For Rodomiro Ortiz, director of the Intensive Agro-Ecosystems Program, all took was a new strategy for CIMMYT. In the new plan he saw a change and a challenge, and he knew that the Intensive Agro-Ecosystems Program could empower research to improve lives. “Science can really impact development—this program interests me because of the relevance it has on livelihoods.” Ortiz comes to CIMMYT, his fourth CGIAR Center, with much experience and a strong tradition for sharing science. “We want to encourage local production in ways that create wealth and reduce risk for farmers and both the rural and urban poor,” he says.

A source of food and income security for rural and urban households in Asia, North Africa, and Latin America, intensive agricultural systems feature large areas of maize and wheat, often accompanied by a combination of other crops. “A large number of the world’s poor live in densely populated, rural areas where their crops sustain local communities and neighboring cities, but they face many problems,” says Ortiz. Production limitations include unsustainable exploitation of water and soils, inefficient use of chemical inputs, and emerging or worsening disease and pest problems. Looking to the future, he says, “While continuing our success in wheat breeding, we want to enhance our maize research and pursue the science behind conservation agriculture.”

Balancing productivity with healthy cropping systems in key areas is a priority for this program. “Enhanced and sustained productivity will help improve human health and rural household food security, and natural resource management is an integral part of this goal,” recognizes Ortiz. With technology such as zero tillage and retained residues, systems can be both productive and ecologically sound. “Together with the Rice-Wheat Consortium, we’ve shared conservation agriculture with over 250,000 farmers in the Indo-Gangetic Plains who now are saving water and decreasing fuel use, all of this while increasing their yields,” he says. Ortiz would like to mirror this momentum in the Mediterranean littoral (coastal region), the Yellow River Basin, and northwestern Mexico, other focus areas for the program.

A Peruvian national, Ortiz holds a PhD from the University of Wisconsin in plant breeding and genetics and received his BSc and MSc degrees from UNALM (Universidad Nacional Agraria La Molina, Peru). Having worked abroad in the USA, Nigeria, Denmark, India, and most recently in Uganda as director of Research-for-Development at IITA, he carries knowledge of 15 different food crops, maize and wheat included. This background has given him vast experience in cropping systems and management. Ortiz, with hundreds of publications to his name, loves intellectual discourse and discovering how old problems can be solved using innovative approaches. “This new strategic plan continues in CIMMYT’s tradition to excel serving the resource poor,” Ortiz says.

Quality Analysis for Wheat

CIMMYT E-News, vol 2 no. 9, September 2005

quality1CIMMYT’s wheat quality lab expands and upgrades to meet growing demand of wheat for diverse food uses.

If you live in the Middle East or North Africa, you probably eat couscous. Chapati, a type of flat bread, accompanies meals in India. Many have noodles with meals in China. As varied as these foods are, they all come from wheat but require different characteristics to be considered of “good quality”—so that the wheat will mill and bake well for the desired preparation. CIMMYT works to provide farmers worldwide with wheat that will be valued in their area and has recently expanded capacity to meet growing demand, which for developing countries is nearing 300 million tons of wheat per year.

“To make a wheat variety good for both the farmer and the eater, you need to consider yield, disease resistance, and quality,” says Roberto J. Peña, Head of Grain Quality at CIMMYT. Peña works with breeders at CIMMYT and national programs all over the world to test wheat quality. Traits such as yield and disease resistance are obvious at harvest, but examining quality traits such as starch content and elasticity require complex and time-consuming tests. These difficult tasks have become easier with a new laboratory and upgraded technologies.

To reduce the time it takes to screen for quality traits, CIMMYT has equipped a quality laboratory in Ciudad Obregon in northwestern Mexico, in addition to the lab at headquarters. Now thousands of wheat lines can be screened for quality immediately after being harvested in Obregon. CIMMYT wheat breeders can see the results before they plant the next round of wheat lines. Looking at desirable quality traits much earlier in the breeding process will save time, money, and plot size as it will be easier for breeders to plant only wheat with high quality and all of the other traits they are looking for.

Peña intends to make more use of techniques like near infrared spectroscopy (NIR) analysis and marker-assisted selection (MAS) to enhance the efficiency of quality testing. “By screening thousands of lines quite simply, we are able to have a clear vision of what wheat lines aren’t going to be useful—we’re implementing modern technologies for improving end-use and nutritional quality,” he says.

Near infrared spectroscopy can be used to evaluate grain texture, starch, protein, elasticity, and mineral content. By looking into these attributes it is possible to determine whether the environment or crop management influenced the quality—all of this without the effort of milling the wheat into flour, making dough, and finally baking it. When the tests are complete, the same grain can be planted and the breeder knows what to expect.

By using MAS data from CIMMYT’s molecular biology lab, Peña and his team can take a glimpse at a particular wheat line’s DNA to determine if particular genes are present or absent. They can also see what genes have a more relevant role in defining quality, as well as tell if wheat carries high or low levels of protein. For example, if wheat has high levels of protein, it will be more elastic. In the future, they hope to start testing for the presence of specific genes associated with milling efficiency and starch properties.

By continuing to select for quality, CIMMYT hopes to enable farmers to grow wheat for quality food, whether it be couscous, chapati, or sliced bread.

For further information, contact Roberto J. Peña (j.pena@cgiar.org).

New Tools Match Wheat Varieties to Growing Environments

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April, 2004

Wheat is grown in about 70 countries, in environments that extend from the Arctic Circle to near the Equator, from sea level to elevations of 4,000 meters, and under very dry and very wet conditions. Wheat researchers may not know that their local growing environment shares key limitations with environments in other parts of the world. They may not know that another scientist, half a world away, is trying to solve the same problem.

A wide-ranging project between CIMMYT and Australian organizations is helping wheat researchers obtain and share information to develop better varieties more efficiently. The project’s tools for analyzing and sharing information will enable many more researchers to work together on common problems.

CIMMYT is working with the University of Queensland (UQ) and Australia’s Commonwealth Scientific and Industrial Research Organization (CSIRO) to characterize growing environments and understand how different wheat lines grow there. (Wheat lines can be thought of as experimental, unfinished varieties.) Researchers are creating information tools—including mapping systems, wheat breeding simulation programs, and environmental simulations—that wheat researchers can use to develop more appropriate wheat varieties and production practices for a set of target environments. The project is supported by Australia’s Grains Research and Development Corporation (GRDC).

One reason that CIMMYT and the Australian organizations can benefit considerably from each other’s research tools and partnerships is that Australian wheat growing environments resemble some important wheat-producing environments in developing countries.

Testing the Ground

Part of the information that powers the project comes from the International Adaptation Trial (IAT), which consists of seed of 80 spring wheat lines of bread wheat and durum wheat. Cooperators who receive the trial plant the seed according to specific instructions, collect data from planting to harvest, and return the data to CIMMYT. CIMMYT breeders Wolfgang Pfeiffer, Richard Trethowan, Maarten van Ginkel, and Tom Payne identified cooperator sites, emphasizing sites with low rainfall and susceptibility to drought. They worked with Australian breeders to choose the CIMMYT and Australian lines that were included in the trial.

The IAT contains broadly and specifically adapted lines. Information on the performance of broadly adapted lines indicates their stability across a range of environments and in the presence of various environmental stresses, including diseases, pests, and soil problems. Individual environmental stresses are identified through specifically bred lines called probe genotypes, which have comparative responses that reflect the presence or absence of a specific trait.

In the IAT, most of the comparative pairs have highly similar genetic backgrounds, except for the trait of interest. For example, the Australian lines Gatcher and Gatcher GS50A help detect root lesion nematode. Gatcher is vulnerable to the nematode, but Gatcher GS50A is not. In the presence of the nematode, Gatcher GS50A yields better than Gatcher—more than half a ton better. In the absence of the nematode, both lines yield about the same.

Simulating the Growing Environment

The project also uses extensive sets of weather, climate, and geographical data. Along with the information from the IAT, these data are used to model how wheat lines with particular characteristics are likely to perform in key locations around the world. Running a crop simulation module that works in all types of environments is difficult, says UQ postdoctoral fellow, Ky Mathews. Researchers need good data that cover long periods. Mathews has been using daily weather data, supplied by the US National Oceanic and Atmospheric Administration, from 1973 to the present for 20,000 locations. These data are supplemented with information from cooperators. She is also using an FAO soil map to identify the most likely soil types in different regions.

From the modeling and IAT results, researchers around the world gain a more detailed understanding of target environments. They can investigate stresses at a location based on the IAT probe lines, find data on other wheat-producing locations that have similar stress responses, and evaluate weather patterns and soil information that might indicate a line’s vulnerability or exceptional resistance to a stress. This information will help breeders to make more informed choices about the lines they request from each other, the crosses they make, the genes and traits they use, and ultimately which lines they release as varieties to farmers.

It will also help them to solve shared problems. Preliminary results indicate that root lesion nematode is found at IAT sites in Ecuador, Bangladesh, India, and Mexico. Breeders can see from project maps that they experience the same challenges. “Before, we could never map the nematode sites around the world,” says Mathews. “That had never been done.”

Many Products

The project has several outputs, such as a global prediction model for flowering that defines global planting dates, a database of weather and soil data, a tool that extracts phenotypic data over the Internet from CIMMYT’s large database, and data summary tools. One tool, called QU-Cim, simulates CIMMYT’s bread wheat breeding program.

“The IAT also provides an ‘adaptation filter’ that increases the usefulness of data that CIMMYT and its partners have collected for decades in wheat breeding environments all over the world,” says CSIRO crop adaptation scientist Scott Chapman. For example, the breeders who discover a Boron problem can use CIMMYT’s historical data to identify locations where CIMMYT lines have performed well despite the presence of Boron and use these lines to develop tolerant varieties.

Mathews thinks it is important that cooperators get the project results so they can see the bigger picture. “I would like the breeders around the world to be able to have the tools to interrogate locations around the world to make better decisions about their breeding programs,” she says.

Despite the challenges, CIMMYT wheat researchers believe that the project has demonstrated tremendous potential for adding value to local and global wheat breeding research. CIMMYT is seeking funds to extend this work to more of the world’s important wheat-producing environments.

QU-Cim: Improving the local relevance of CIMMYT’s global wheat breeding programCIMMYT’s wheat breeding program has more than five decades of accumulated breeding data and has been highly successful. That makes it an excellent testing ground for QU-Cim, a tool that simulates wheat breeding processes and outcomes.

QU-Cim is a module of QU-GENE, a simulation platform developed at the University of Queensland by Mark Cooper and Dean Podlich.

QU-GENE can integrate enormous amounts of genetics-based data from widely different sources, produce realistic scenarios that help breeders compare potential outcomes without expensive field trials, and determine the best way to achieve the results they want. Only the approaches that are most likely to succeed will be used in the field.

Together with UQ programmers, CIMMYT Associate Scientist Jiankang Wang wrote the QU-Cim module and worked with CIMMYT researchers to parameterize it for CIMMYT’s breeding program.

Starting with the genetic characteristics of wheat breeding lines, QU-GENE can simulate the performance of their descendents in a given field environment over many breeding cycles. The resulting information should help breeders devise the crosses that will deliver desirable traits, even traits determined by the interaction of many genes. QU-GENE can also reduce breeding costs by reducing the number of crosses breeders make to reach a particular goal, identifying the best breeding method to use, or determining the most cost-effective, efficient time to use it.

A copy of QuCim 1.1 can be obtained by contacting either Jiankang Wang or Maarten van Ginkel.

Traditional Farmers in Kazakhstan Evaluate New Technologies and Varieties

September, 2004
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The introduction, testing, and promotion of bed planting technologies in Kazakhstan is one aspect of a project between CIMMYT and the German Agency for Technical Cooperation. Partners also aim to create a regional network in Central Asia and to identify, multiply, and promote high-yielding and disease-resistant wheat varieties that will increase productivity and profitability in farmers’ fields.

At first, some traditional farmers told farmer Alexander Merzlikin he was wasting his time experimenting with planting on raised soil beds. New technologies might seem risky to poor farmers who are afraid of losing yields. Merzlikin, who began farming in 1996 to feed his family, bites off the end of a green wheat stalk he is holding, chews it, and spits it out. These cautious farmers have short-term goals, he says, while he is looking to the future and to a sustainable harvest.

“They’re afraid to takes risks,” says Merzlikin, a former driver with light blue eyes, a sunburned face, and gray buzz-cut hair who lives near Almaty, Kazakhstan. He is wearing a yellow and red baseball cap and a blue striped polo shirt with sweatpants. “When land is the only source of income, you have to be sure.” He wants to show cautious farmers that planting with CIMMYT is fruitful, he says.

Merzlikin is excited about the results he has seen after growing wheat on permanent beds for three years. Making fewer passes with machinery in the field saves him almost 50% in fuel, he says. Also, his yields increased from about 2 tons per hectare to almost 4 tons per hectare in 2003. With bed planting, farmers might plant about half as many seeds as they would with conventional planting. In 2002, the project bought five bed planters from Turkey, and five more are being engineered and manufactured in Almaty. Merzlikin says the bed planting furrows allow for even water distribution, help prevent lodging, and make the usually difficult and labor-intensive process of water channeling unnecessary.

Increasing Productivity and Profitability

Merzlikin’s experience with beds is just one aspect of the project “Regional Network for Wheat Variety Promotion and Seed Production,” a collaboration between CIMMYT and the German Agency for Technical Cooperation (GTZ). Participants are aiming for a regional network in Central Asia to identify, multiply, and promote high-yielding and disease-resistant wheat varieties. As part of this, they have encouraged communication and collaboration in variety testing among breeders. At institutes in Central Asia, CIMMYT provided training for researchers and breeders, along with courses on agronomy and farm management. Farmers, agronomists, and administrators also attended field days where they learned about new varieties and soon-to-be available technologies. In 2003, 250 participants from 22 countries attended the first Central Asian Wheat Conference, which helped establish and strengthen links between scientists in the region and around the world. Also, the 40 scientists from Central Asia who have had training in wheat breeding and agronomy at CIMMYT’s headquarters in Mexico since 2000 currently contribute to the development and adoption of new varieties and technologies in their home countries.

Promoting Varieties and Seed

In collaboration with regional research institutions, project partners supported the testing of 5,750 experimental varieties between 2002 and 2003. Of those, they selected 790 that are tolerant to lodging and resistant to stem rust, which is the most common disease in the region. A small number of those varieties have already been released for farmer use.

One of the project’s objectives was to strengthen regional institutions that work on wheat breeding, research, and seed production. The partners helped establish private seed companies and supported the creation of a company that provides consulting services to farmers, sells seed, tests and promotes technologies, and submits varieties for official testing. Working with the project and bed planting technologies, this company supported five small-scale farmers in 2003 and 10 farmers in 2004, and it will support 15 farmers in 2005.

Driving a Road Far from Poverty

Economist Toni Rogger, who is funded by the German Development Agency and GTZ to work on the project’s poverty alleviation component, would like to get an overall picture about the constraints farmers in the region are facing and provide information to combat these problems. He also hopes that farmers see the benefits of new technologies and would like them to become more aware of all the components of farming, from A to Z, from soil to sales.

Merzlikin, who has an education in mechanics, epitomizes awareness. He found out that bed planting could be a cost-saving option while attending a CIMMYT-organized course that taught farmers how to calculate production costs. He and two partners combined each of their four hectares with land rented from other people to farm a total of 200 hectares. Even some cautious farmers have asked Merzlikin to help them introduce bed planting on their land, he says. For example, one poor farmer who needed a crop that would be easy to grow independently wanted to grow wheat instead of tobacco. Merzlikin helped him cultivate bed planting and says the resulting wheat looks good.

“To renovate a bicycle is an unnecessary job,” says the translator quizzically, uncertain if the expression the farmer used makes sense in English. Merzlikin thinks that because research and experiments have proven the success of certain farming methods, farmers do not need to reinvent the wheel to improve yields. He waves and chops his hands for emphasis as he talks. “I already knew when I was a driver that science was good and that scientists would help and give advice,” he says.

Metal silos lock out maize pests in Africa

Farmers in developing countries typically lose 20-30% of their crop due to poor grain storage facilities. Through a project with roots in Central America, African maize farmers are adopting metal silos to protect their families’ food supply and source of income.

june07Six mouths are a lot to feed so Pamela Akoth, a 39-year-old Kenyan farmer and mother to half a dozen children, doesn’t want any weevils or borers—two of the most common post-harvest pests—nibbling at her grain supply. Akoth grows maize on 0.7 hectares in Homa Bay, western Kenya. In the past, she stored her grain in a traditional granary: a structure built with mud, branches, and cow dung that allows free entry to the maize weevil and the larger grain borer, the two most damaging pests of stored maize in Africa. Infestation starts in the field and continues after harvest when grain is stored. Losses of 10-20% are reported three months after storage, and this goes up to more than 50% after six months.

On the advice of the Catholic Diocese of Homa Bay and with help from a subsidy program—the Agriculture and Environment Program (AEP) of the Diocese of Homa Bay helps needy farmers to acquire metal silos by providing interest-free loans—Akoth purchased a metal silo able to store 20 bags (1,800 kilograms) of maize; roughly what her land yields. Made of galvanized metal, the silo is airtight, so it keeps out insects and suffocates any that might have snuck in with the stored grain. “I am happy that since I started using the silo I don’t experience any loss of grain,” Akoth says. “I have enough to feed my family and even some left over that I can save and later sell, when there is a shortage in the market.”

Akoth is one of many farmers who has benefited from the Effective Grain Storage Project. Supported by the Swiss Agency for Development and Cooperation (SDC) and the generous unrestricted contributions CIMMYT receives, this effort aims to improve food security in sub-Saharan Africa through effective on-farm storage technologies, like metal silos. Participants are promoting the silos and training artisans who build and sell them. “The focus of the project is to ensure that farmers use only well-fabricated, high-quality metal silos,” says Fred Kanampiu, CIMMYT agronomist and former project head. “We are training artisans who will make and sell these silos.”

jun08Local manufactureres cash in on silo demand
The Effective Grain Storage Project has supported two artisan workshops in Homa Bay and Embu, with a total of 37 artisans trained. One of these is Eric Omulo Omondi, a 23-year-old metal worker based in Homa Bay. Along with 29 other artisans, he attended a free training workshop on metal silo construction in 2009. Since then, Omondi has made 15 metal silos and his average monthly income has tripled.

“I was lucky enough to have been selected by the diocese as one of the artisans to be professionally trained,” Omondi says. The training exercise was facilitated by CIMMYT, who contracted a skilled artisan from Central America. There and in South America and the Caribbean, the POSTCOSECHA program (also funded by SDC) had launched the use of metal silos for storing maize grain, significantly reducing post-harvest losses among more than 300,000 families.

To date, the current project is responsible for the construction of 146 silos across Kenya and Malawi. Two strong local partners, World Vision International in Malawi, and the Catholic Dioceses of Embu and Homa Bay in Kenya, host training sessions and promote metal silo use. In Malawi, metal silos have been used since 2007, initially supplied by a private company contracted by the government to distribute silos throughout the country. “Over the past few years, farmers have recorded high maize harvests, and now even request silos of a 7.5 ton capacity,” says Essau Phiri of World Vision-Malawi.

In Mchinji District, Central Malawi, artisan Douglas Kathakamba has benefited from the CIMMYT-World Vision collaboration. He launched his metal works business making ox-carts, door and window frames, and bicycle ambulances, but has found even greater profit since 2007 by building metal silos. As a result of silo income, he has set up a new workshop, sent his five children to school, and even covers the costs of university studies for two adopted children.

From sacks to sheet metal
Douglas is now an ardent supporter of the metal silo and receives many customers through referrals. He also educates rural farmers. In Kachilika Village of northern Malawi, he has recently worked with a farmers’ club that had never heard of metal silos. The 25 members store their grain communally and, after Douglas constructed and donated a silo to them, commissioned him to build four more. With the proceeds from increased grain sales, the members now pay for children’s schooling and purchase items such as clothing, domestic products, and farm inputs for the next season.

“Before the introduction of silos, we were using sacks and nkhokwe (the traditional granary), but we were not able to save much,” says Andrew Kasalika, the club chairman. “Now, we can say that our lives have changed.”

A particularly dedicated safe storage advocate in Kenya is Sister Barbara Okomo, a former Homa Bay teacher and current principal of St. Theresa’s Girls’ Secondary School in Kisumu, roughly a two hour drive from Homa Bay. Since she started working with the Diocese’s Agriculture and Environment Program (AEP), Okomo has had artisans fabricate 40 metal silos at her schools, which include 10 at her current school. The silos are made on-site to cut costs and make it easier for potential adopters.

jun09“I have used the silos for several years now, and I am convinced that this is the best method to store grain,” Sister Barbara says. “With other storage methods, we would lose up to 90% of our stored grain—now we lose nothing.” Schools have been early adopters of metal silos because many grow and store grain year-long to feed their students.

To save you need to spend
A challenge for African farm households is the initial costs of a silo. They are relatively cheap—in Homa Bay, a three-bag silo costs about USD 74 and a 20-bag silo USD 350—and with an effective lifetime of more than a decade, the silos more than pay for themselves, in terms of food security and surplus grain savings. But the average monthly cash income of a Homa Bay farmer ranges from USD 40 to 130. This means that family heads often have to choose between providing basic needs and investing in the silo. “Without support from the Diocese, I wouldn’t have been able to buy a silo,” says Akoth. Representatives of Equity Bank have met with stakeholders in Homa Bay to discuss micro-finance opportunities that would allow many more farmers to purchase metal silos. Micro-financing would also help more artisans enter the emerging silo industry, as current investment capital costs are high.

“Metal silos bring food security to the poor,” says Tadele Tefera, the current EGS project coordinator. “Not only what farmers harvest, but more importantly, what they store over seasons, could make a difference in their livelihoods.”

A recent (June 2010) news feature on metal silos, aired in Kenya, gives testimonials on the success of the silos from local users.

Further information: Tadele Tefera, Project Coordinator, Effective Grain Storage (t.tefera@cgiar.org)