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Theme: Nutrition, health and food security

As staple foods, maize and wheat provide vital nutrients and health benefits, making up close to two-thirds of the world’s food energy intake, and contributing 55 to 70 percent of the total calories in the diets of people living in developing countries, according to the U.N. Food and Agriculture Organization. CIMMYT scientists tackle food insecurity through improved nutrient-rich, high-yielding varieties and sustainable agronomic practices, ensuring that those who most depend on agriculture have enough to make a living and feed their families. The U.N. projects that the global population will increase to more than 9 billion people by 2050, which means that the successes and failures of wheat and maize farmers will continue to have a crucial impact on food security. Findings by the Intergovernmental Panel on Climate Change, which show heat waves could occur more often and mean global surface temperatures could rise by up to 5 degrees Celsius throughout the century, indicate that increasing yield alone will be insufficient to meet future demand for food.

Achieving widespread food and nutritional security for the world’s poorest people is more complex than simply boosting production. Biofortification of maize and wheat helps increase the vitamins and minerals in these key crops. CIMMYT helps families grow and eat provitamin A enriched maize, zinc-enhanced maize and wheat varieties, and quality protein maize. CIMMYT also works on improving food health and safety, by reducing mycotoxin levels in the global food chain. Mycotoxins are produced by fungi that colonize in food crops, and cause health problems or even death in humans or animals. Worldwide, CIMMYT helps train food processors to reduce fungal contamination in maize, and promotes affordable technologies and training to detect mycotoxins and reduce exposure.

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.

Genetic modification—yes or no? London Science Museum stages global debate

CIMMYT E-News, vol 6 no. 1, January 2009

 

They draw fierce criticism from environmental groups, are hailed by some companies and scientists as a solution to global hunger, and chances are you’ve eaten them. Released commercially more than a decade ago, genetically modified (GM) crops and food products still cause controversy. In an attempt to set the record straight and generate productive discussion, the Science Museum in London recently hosted a debate on the pros and cons of GM technologies in the context of the global food price crisis. Rodomiro Ortiz, CIMMYT scientist and director of resource mobilization, took part with viewpoints from a science and development perspective.

Centers like CIMMYT and its partners in developing countries have achieved enormous success using conventional breeding methods to improve maize and wheat varieties. Farmers in developing countries grow seed derived from these efforts on nearly 100 million hectares worldwide, which has increased yields and helped lower the price of main staple crops.

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Reducing damage to grain stores of the poor

December, 2004

Saving grain from hungry pests can significantly improve the food security and livelihoods of farm households in the developing world’s poorest areas.

Even if poor farmers have a good maize harvest, many who live in humid environments and do not have effective storage containers face significant grain losses in the following months. Grain can suffer 80% damage and 20% weight loss within six months after harvest in Mexico’s harsh tropical environments, where grain-damaging insects thrive, according to CIMMYT entomologist David Bergvinson. “Two major pests in Africa—maize weevil and larger grain borer—can consume as much as 15% of a harvest in a few months,” says Bergvinson. Working on reducing storage losses is one way that he and other CIMMYT scientists target impoverished areas, increasing food security and allowing farmers to enter grain markets when prices are favorable.

Participatory Breeding to Foil Weevils

There are several ways to lessen grain damage. Farmers can remove infested grain and thoroughly clean storage facilities to eliminate insects before storing new grain. Improved grain storage technologies, such as silos, also help. Finally, scientists can breed maize to be more insect resistant with tighter husks or harder kernels. “With resistance as an inherent part of seed, farmers can cut back on the use of noxious pesticides,” says Bergvinson.

Working to breed hardier maize, Bergvinson crossed farmers’ varieties in Mexico with insect-resistant and drought-tolerant CIMMYT varieties and returned the seed to farmers for planting in mid-2004. Researchers also planted these crosses on farms near CIMMYT research stations to evaluate their performance, to make controlled pollinations, and to compare farmers’ selections with their own. “Our ultimate goal is to increase the genetic diversity of landraces with resistance to production constraints identified by farmers,” says Bergvinson. Farmers most often asked for drought and weevil resistance to be added to their landraces.

Targeting Peaks of Poverty
Bergvinson and his associates are working with 54 farmer varieties for lowland tropical areas of Mexico and 36 for higher altitudes (1,200-1,800 meters above sea level). It is in many of these hill zones where poverty and maize-bean subsistence farming go hand in hand. The methods applied could have relevance for smallholder maize farmers in other parts of Latin America and in Africa.

In preparation for extending their efforts to reach more of the poor, the researchers have also sampled farmer varieties in eight Mexican locations identified in a recent CIMMYT study (see Maps Unearth New Insights for Research to Help the Poor) as having a high concentration of the poor. “We’re working with farmers in these areas to improve their varieties for traits they identify, such as resistance to storage pests and, in hill zones, stronger roots and stems so that plants don’t fall over in strong winds,” Bergvinson says. The researchers are also taking care to maintain other traits that farmers value. One example in lowland areas is the long husks that farmers remove and sell as wrapping for the popular Mexican dish known as “tamales.” In some communities, husks for this purpose are worth more than the grain (see Rural Mexico and Free Trade: Coping with a Landscape of Change).

Global Science to Protect Grain

Bergvinson belongs to a worldwide community of researchers applying science at all levels to develop pest-resistant maize. “A small but noticeable renaissance in the use of resistant varieties to minimize storage losses is taking place worldwide, especially for ecologies where storage infrastructure doesn’t exist,” says Bergvinson. He says researchers have made significant progress in understanding the biochemical, biophysical, and genetic bases for resistance, among other things to ensure the traits satisfy consumer demands. Such traits are being “mapped” using DNA technology to confirm their role in resistance and to identify the genes involved. “The real potential of this technology will be felt in developing countries,” Bergvinson explains. “The resistance is packaged in the seed and designed to ensure that farmers have the option to recycle seed, a practice common to small-scale farmers.”

For more information: d.bergvinson@cgiar.org

Maize in Kenya: The search for a successful subsidy

CIMMYT E-News, vol 6 no. 3, April 2009

It is a common dilemma for non-profits and assistance programs: how to deliver benefits to the needy without creating dependency or disrupting markets. Addressing this problem, Maize Seed for the Poor (MSP), a pilot project in Kenya, is exploring ways to offer farmers subsidized agricultural inputs to boost farm productivity, while also energizing local seed markets.

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New greenhouse supports research on yellow rust in Nepal

December, 2004

On December 1, CIMMYT handed over a greenhouse to the Plant Pathology Division of the Nepal Agricultural Research Council (NARC). Built with the support of CIMMYT’s project on foliar pathogens and funded by Belgian Development Cooperation (DGCD), this greenhouse will help sustain research on wheat diseases, despite Nepal’s current social conflict.

At a ceremony in Khumaltar, CIMMYT regional pathologist Etienne Duveiller delivered the greenhouse keys to T.K. Lama, Chief of the Plant Pathology Division. The new facility will help NARC scientists screen for resistance in wheat against yellow rust, a potentially devastating disease in the hill areas of Nepal. Grain losses can soar to 30% when early outbreaks occur, as demonstrated by last year’s severe epidemic in parts of the Kathmandu Valley.

Replacing Outmoded Resistance

Due to the breakdown of resistance in popular varieties like Sonalika, which date back to the Green Revolution, yellow rust epidemics have occurred in Nepal since the mid-1980s. In 1997, a new strain of the rust pathogen became prevalent in the Nepal hills—a strain that is virulent against Yr9, a gene from rye that has conferred resistance to yellow rust in many improved wheats.

To develop disease resistant plants, breeders artificially inoculate fields of experimental varieties and select the individuals or families that survive and produce grain. With help from CIMMYT, advanced lines from Nepal are tested annually in Pakistan to ensure that promising genotypes are exposed to new pathotypes of yellow rust from western Asia. But research of this type in Nepal has suffered in recent years, mainly from a lack of inoculum to apply to experimental plants. First, insecurity in Nepal has caused severe financial constraints and reduced operations for national agricultural research scientists. Second, there is a lack of proper facilities to produce rust inoculum for the timely inoculation of breeders’ fields. An alternate approach used—collecting natural inoculum that survives in off-season wheat crops—became nearly impossible after a series of dry years eliminated this source of the pathogen and security restrictions made travel impossible in remote hilly regions. Finally, less than optimal moisture in the screening fields of Khumaltar, where the Plant Pathology Division is located, has necessitated repeated applications of fresh inoculum.

The timely production of inoculum in the new greenhouse will improve this situation. This greenhouse has a robust and simple cooling system to control temperature, as well as a misting system that guarantees proper humidity. It will allow both screening against yellow rust under optimal conditions and the multiplication of inoculum. Since the wheat season is just starting, researchers working on other diseases and crops will benefit from having inoculum ready for breeders’ plots in January.

Preserving Spores and Global Partnerships

In an important recent accomplishment, according to Duveiller, Senior Wheat Pathologist Sarala Sharma was able to produce fresh inoculum directly from leaf samples collected last season, using local methods and dried leaves. “This is the first time that she was able to preserve inoculum from last March,” says Duveiller. “Yellow rust must be kept alive for multiplication in the greenhouse and cannot be grown on artificial media. The main problem is that it is very sensitive to high temperatures. In Nepal, power failures, poor refrigeration, and no possibilities of vacuum preservation make it hard to keep spores.”

During the greenhouse opening ceremony, Sharma underlined the importance of the long-standing collaboration between NARC and CIMMYT. She acknowledged CIMMYT’s continuous support, initiated by former CIMMYT wheat pathologists Jesse Dubin and the late Eugene Saari, who encouraged scientists to collect inoculum from rust-prone areas as a way to record the disease’s incidence and spread. These surveys had continued with support from Duveiller until recently, when traveling by road became difficult. Also recognized at the ceremony were the benefits of training on yellow rust pathotyping that Nepali scientists had received at IPO-Wageningen, the Netherlands, and Shimla, India.

CIMMYT wheat pathologist, Etienne Duveiller, with colleagues in Nepal.

Similar work may become possible now in Nepal, according to Duveiller. “This greenhouse, built with Indian technology and including inexpensive but sturdy polyethylene sheets for siding, is another example of the importance CIMMYT ascribes to rust diseases on wheat in Nepal and south Asia,” says Duveiller. The center recently funded the installation of a sprinkler system for use in disease resistance experiments at Bhairhawa farm in the Tarai Plains, where the Nepal Wheat Research Program is based.

The greenhouse handover ceremony was combined with the farewell party for two NARC pathologists who retired recently, K. Shrestha and C.B. Karki. A recognized rust pathologist and longtime CIMMYT friend, Karki received his Ph.D. from Montana State University and attended the second Regional Yellow Rust Conference in Islamabad, Pakistan, in March 2004. Dr. K. Shrestha attended CIMMYT’s conference on helminthosporium blight in Mexico.

For more information: e.duveiller@cgiar.org

Moving uphill: Maize’s growing role in Ethiopia

CIMMYT E-News, vol 6 no. 1, January 2009

 

Fueled by high-yielding varieties and national initiatives to promote the crop in highland areas, maize’s popularity is mounting rapidly in Ethiopia. Because farmers can get more food and income with the new varieties, they are calling out for seed. Suppliers—both private and government supported—are clamoring to meet the demand

“Farmers have expressed strong feelings for maize,” says a translator. A group of villagers at Sororo, Ejere District, Oromia, stand in the intense, mid-morning glare of highland Ethiopia and speak to visitors about their experiences with the improved maize varieties they had received from Demissew Abakemal, maize breeder with the Ethiopian Institute of Agricultural Research (EIAR). “It was a very dry year, and your maize is performing well,” the farmers say. “We have a surplus for food and even some for taking to the market—something we’d not seen in all our lives.” They have been harvesting and piling sheaves of wheat from the bottom of the hill, but take the visitors to maize fields up near their dwellings, and proudly show the large ears of the hybrid Arganne and a nearly-as-productive open-pollinated variety (OPV), Hora.

Continue reading

New edition of popular field guide on maize diseases

December, 2004
Reducing Damage to Grain Stores of the Poor

Saving grain from hungry pests can significantly improve the food security and livelihoods of farm households in the developing world’s poorest areas.

Even if poor farmers have a good maize harvest, many who live in humid environments and do not have effective storage containers face significant grain losses in the following months. Grain can suffer 80% damage and 20% weight loss within six months after harvest in Mexico’s harsh tropical environments, where grain-damaging insects thrive, according to CIMMYT entomologist David Bergvinson. “Two major pests in Africa—maize weevil and larger grain borer—can consume as much as 15% of a harvest in a few months,” says Bergvinson. Working on reducing storage losses is one way that he and other CIMMYT scientists target impoverished areas, increasing food security and allowing farmers to enter grain markets when prices are favorable.

Participatory Breeding to Foil Weevils

There are several ways to lessen grain damage. Farmers can remove infested grain and thoroughly clean storage facilities to eliminate insects before storing new grain. Improved grain storage technologies, such as silos, also help. Finally, scientists can breed maize to be more insect resistant with tighter husks or harder kernels. “With resistance as an inherent part of seed, farmers can cut back on the use of noxious pesticides,” says Bergvinson.

Working to breed hardier maize, Bergvinson crossed farmers’ varieties in Mexico with insect-resistant and drought-tolerant CIMMYT varieties and returned the seed to farmers for planting in mid-2004. Researchers also planted these crosses on farms near CIMMYT research stations to evaluate their performance, to make controlled pollinations, and to compare farmers’ selections with their own. “Our ultimate goal is to increase the genetic diversity of landraces with resistance to production constraints identified by farmers,” says Bergvinson. Farmers most often asked for drought and weevil resistance to be added to their landraces

Targeting Peaks of Poverty
Bergvinson and his associates are working with 54 farmer varieties for lowland tropical areas of Mexico and 36 for higher altitudes (1,200-1,800 meters above sea level). It is in many of these hill zones where poverty and maize-bean subsistence farming go hand in hand. The methods applied could have relevance for smallholder maize farmers in other parts of Latin America and in Africa.

In preparation for extending their efforts to reach more of the poor, the researchers have also sampled farmer varieties in eight Mexican locations identified in a recent CIMMYT study (see Maps Unearth New Insights for Research to Help the Poor) as having a high concentration of the poor. “We’re working with farmers in these areas to improve their varieties for traits they identify, such as resistance to storage pests and, in hill zones, stronger roots and stems so that plants don’t fall over in strong winds,” Bergvinson says. The researchers are also taking care to maintain other traits that farmers value. One example in lowland areas is the long husks that farmers remove and sell as wrapping for the popular Mexican dish known as “tamales.” In some communities, husks for this purpose are worth more than the grain (see Rural Mexico and Free Trade: Coping with a Landscape of Change).

Global Science to Protect Grain

Bergvinson belongs to a worldwide community of researchers applying science at all levels to develop pest-resistant maize. “A small but noticeable renaissance in the use of resistant varieties to minimize storage losses is taking place worldwide, especially for ecologies where storage infrastructure doesn’t exist,” says Bergvinson. He says researchers have made significant progress in understanding the biochemical, biophysical, and genetic bases for resistance, among other things to ensure the traits satisfy consumer demands. Such traits are being “mapped” using DNA technology to confirm their role in resistance and to identify the genes involved. “The real potential of this technology will be felt in developing countries,” Bergvinson explains. “The resistance is packaged in the seed and designed to ensure that farmers have the option to recycle seed, a practice common to small-scale farmers.”

For more information: d.bergvinson@cgiar.org

No maize, no life!

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

In Morogoro, a drought-prone area in Tanzania, farmers are using certified maize seed and urging other farmers to grow a new drought tolerant variety, TAN 250, which they say is like “an insurance against hunger and total crop failure, even under hot, dry conditions like those of recent years.”

Continue reading

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.

Continue reading

Resistant wheats and Ethiopian farmers battle deadly fungus

When a devastating stripe rust epidemic hit Ethiopia last year, newly-released wheat varieties derived from international partnerships proved resistant to the disease, and are now being multiplied for seed.

Wheat farmers and breeders are embroiled in a constant arms race against the rust diseases, as new rust races evolve to conquer previously resistant varieties. Ethiopia’s wheat crop became the latest casualty when a severe stripe rust epidemic struck in 2010. “The dominant wheat varieties were hit by this disease, and in some of the cases where fungicide application was not done there was extremely high yield loss,” says Firdissa Eticha, national wheat research program coordinator with the Ethiopian Institute of Agricultural Research (EIAR). “This is a threat for the future because there is climate change—which has already been experienced in Ethiopia—and the varieties which we have at hand were totally hit by this stripe rust.”

Ethiopia is not alone; stripe rust has become a serious problem across Africa, the Middle East, and Asia, with epidemics in 2009 and 2010 which many countries have struggled to control. What’s new is the evolution of stripe rust races that are able to overcome Yr27, a major rust resistance gene that many important wheat varieties rely on. Although recent weather conditions have allowed the new rust races to thrive, they first began to emerge more than a decade ago, and CIMMYT’s wheat program, always looking forward to the next threat, began selection for resistance to Yr27-virulent races in 1998.

“CIMMYT has a number of wheat lines that have shown good-to-excellent resistance to stripe rust without relying on Yr27, in screening in Mexico, Ecuador, and Kenya,” says Ravi Singh, CIMMYT distinguished scientist and rust expert who leads the breeding effort in Mexico. Many of these are also resistant to the stem rust race Ug99 and have 10-15% higher yields than currently-grown varieties, according to Singh. The current step is to work with national programs to identify and promote the most useful of the resistant materials for their environments—a process that was underway in Ethiopia when the epidemic struck.

Eticha is leading his country’s fight against stripe rust. Reflecting on the disease, he says: “For me it is as important as stem rust. I find it like a wildfire when there is a susceptible variety. You see very beautiful fields actually, yellow like a canola field in flower. But for farmers it is a very sad sight. Stripe rust can cause up to 100% yield loss.” There is no official figure yet on the overall loss to Ethiopia’s wheat harvest for 2010, but it is expected to be more than 20%.

Stripe rust symptoms in the field in Ethiopia. | Photo: Firdissa Eticha

The other common name for stripe rust is yellow rust. Severely-infected plants look bright yellow, due to a photosynthesis-blocking coating of spores of the fungus Puccinia striiformis, which causes the disease. These spores are yellow to orange-yellow in color, and form pustules. These usually appear as narrow stripes along the leaves, and can cover the leaves in susceptible varieties, as well as affecting the leaf sheaths and the spikes. The disease lowers both yield and grain quality, causing stunted and weakened plants, fewer spikes, fewer grains per spike, and shriveled grains with reduced weight.

Epidemic flourishes with damp weather

Normally, Ethiopia has two distinct rainy seasons, one short and one main, allowing for two wheat cropping cycles per year. However, 2010 saw persistent gentle rains throughout the year, with prolonged dews and cool temperatures—perfect weather for stripe rust. Most wheat varieties planted in Ethiopia were susceptible, including the two most popular, Kubsa and Galema, so damage was severe. Under normal conditions, the disease only attacks high-altitude wheat in Ethiopia, but last year it was rampant even at low altitudes. This could reflect the appearance of a new race that is less temperature sensitive, or simply the unusual weather conditions; Ethiopian researchers are currently waiting for the results of a rust race analysis.

There was little Ethiopia could do to prevent the epidemic; imported fungicides controlled the disease where they were applied on time, but supplies were limited and expensive. Newly-released, resistant varieties provide a way out of danger. In particular, two CIMMYT lines released in Ethiopia in 2010 proved resistant to stripe rust in their target environments: Picaflor#1, which was released in Ethiopia as Kakaba, and Danphe#1, released as Danda’a. Picaflor#1 is targeted to environments where Kubsa is grown, and so has the potential to replace it, and Danphe#1 could similarly replace Galema. Both varieties are also high-yielding and resistant to Ug99.

CIMMYT scientists Hans-Joachim Braun (left) and Bekele Abeyo visit the fields of the Kulumsa Research Station where CIMMYT materials resistant to stripe rust are being multiplied for seed supply to Ethiopian farmers.

Seed multiplication of resistant CIMMYT varieties

As soon as the situation became clear, EIAR and the Ethiopian Seed Enterprise (the state-owned organization responsible for multiplication and distribution of improved seed of all major crops in Ethiopia) worked together to speed the multiplication of seed of these varieties, using irrigation during the dry seasons. This is happening now, with almost 500 hectares under multiplication over the winter—421 of Picaflor#1 and 70 of Danphe#1. Financial support from this project came from the USAID Famine Fund. Two resistant lines from the International Center for Agricultural Research in the Dry Areas (ICARDA) were released in Ethiopia in 2011, and will add to the diversity for resistance.

Eticha does not foresee any difficulty encouraging farmers to adopt the new varieties. In 2010 they were grown by 900 farmers on small on-farm demonstration plots, as part of EIAR’s routine annual program, so they have been seen—free of stripe rust—by thousands of farmers, and there will be more demonstration plots as more seed becomes available. However, “farmers are at risk still even if the varieties are there,” he says, “the problem is seed supply.” Some seed will reach farmers this year, but the priority will be ongoing multiplication to build up availability as fast as possible.

Hans-Joachim Braun, director of CIMMYT’s Global Wheat Program, visited Ethiopia in 2010. “The epidemic was a real wake-up call,” he says. “Researchers have known for more than ten years that the varieties grown are susceptible. Farmers are not aware of the danger, so it is the responsibility of researchers and seed producers, if we know a variety is susceptible, to replace it with something better.”

Exploring rust solutions in Syria

The ongoing fight against the wheat rust diseases is an international, collaborative effort involving many partners in national programs and international organizations. CIMMYT works closely with ICARDA, which leads efforts against the wheat rust diseases in Central and West Asia and North Africa. At the International Wheat Stripe Rust Symposium, organized by ICARDA in Aleppo, Syria, during 18-20 April 2011, global experts developed strategies to prevent future rust outbreaks and to ensure the control and reduction of rust diseases in the long term.

Other participating organizations included CIMMYT, the Borlaug Global Rust Initiative (BGRI), the Food and Agricultural Organization (FAO) of the UN, the International Development Research Center (IDRC, Canada), and the International Fund for Agricultural Development (IFAD). More than 100 scientists from 31 countries presented work and shared ideas on wheat rust surveillance and monitoring, development and promotion of rust-resistant wheat varieties, and crop diversity strategies to slow the progress of rust outbreaks.

CIMMYT was represented by Hans-Joachim Braun and Ravi Singh. “Wheat crops and stripe rust like exactly the same conditions,” says Braun, “and they both love nitrogen. This means that where a farmer has a high yield potential, stripe rust takes it away, if the wheat variety is susceptible. In addition to the really devastating epidemics, the disease is very important because even in bumper years, farmers who grow susceptible varieties still can’t get a good yield.”

One thing all the attendees agreed on was the immediacy of the rust threat. New variants of both stem rust (also known as black rust) and stripe rust (or yellow rust), able to overcome the resistance of popular wheat varieties, are thriving under the more variable conditions caused by climate change, increasing their chances of spreading rapidly. Breeders in turn are quickly developing the varieties farmers need, with durable resistance to stem and stripe rust, as well as improved yield performance, drought tolerance, and regional suitability.

Other major areas of focus are the development of systems for monitoring and surveillance of rust to enable rapid response to initial outbreaks, and overcoming bottlenecks in getting resistant seed quickly to farmers. There is much to be done, but Singh is confident: “If donors, including national programs and the private sector, are willing to invest in wheat research and seed production, we can achieve significant results in a short time.”

“Ethiopian scientists responded quickly to the epidemic”, says Braun, “but there were heavy losses in 2010. What we need is better communications between scientists, seed producers, and decision makers to ensure the quick replacement of varieties.”

Building on a strong partnership

The value of the collaboration between CIMMYT and Ethiopia is already immeasurable for both partners. CIMMYT materials are routinely screened for rust at Meraro station, an Ethiopian hotspot, in increasing numbers as rust diseases have returned to the spotlight in recent years. CIMMYT lines are also a crucial input for Ethiopia’s national program.

“The contribution of CIMMYT is immense for us,” says Eticha. “CIMMYT provides us with a wide range of germplasm that is almost finished technology—one can say ready materials, that can be evaluated and released as varieties that can be used by farming communities.” Ethiopia has favorable agro-environments for wheat production, and the bread wheat area is expanding because of its high yields compared to indigenous tetraploid wheats. “Wheat is the third most important cereal crop in Ethiopia,” explains Eticha, “and it is really very important in transforming Ethiopia’s economy.”

Bekele Abeyo, CIMMYT senior scientist and wheat breeder based in Ethiopia, works closely with the national program. CIMMYT helps in many ways, he explains, for example with training and capacity building, as well as donation of materials, including computers, vehicles, and even chemicals for research. “In addition, we assign scientists to work closely with the national program, and facilitate germplasm exchange, providing high-yielding, disease resistant, widely-adapted varieties.” Speaking of the stripe rust epidemic, he says, “last year, the Ethiopian government spent more than USD 3.2 million just to buy fungicides, so imagine, the use of resistant varieties can save a lot of money. Most farmers are not able to buy these expensive fungicides. During the epidemic, fungicides were selling for three to four times their normal price, so you can see the value of resistant varieties.”

“I think East Africa is colonized by rust. Unless national programs work hard to overcome and contain disease pressure, wheat production is under great threat,” says Abeyo. “It is very important that we continue to strengthen the national programs to overcome the rust problem in the region.” With Yr27-virulent stripe rust races now widespread throughout the world, Ethiopia’s story has echoes in many CIMMYT partner countries. The challenge is to work quickly together to identify and replace susceptible varieties with the new, productive, resistant materials.

For more information: Bekele Abeyo, senior scientist and wheat breeder (b.abeyo@cgiar.org)

Bangladesh and CIMMYT: decades of partnership, commitment, and achievement

CIMMYT E-News, vol 5 no. 8, August 2008

01aWork by CIMMYT with researchers, extension workers, policymakers, and farmers in Bangladesh for nearly four decades has helped establish wheat and maize among the country’s major cereal crops, made farming systems more productive and sustainable, improved food security and livelihoods, and won ringing praise from national decision makers in agriculture, according to a recent report published by CIMMYT.

“CIMMYT is one of the leading centers of the CGIAR 
working in Bangladesh since the early 70s
initiating multi-dimensional work for varietal improvement, improved crop management, conservation of natural resources, and human resource development,” says Dr. Md. Nur-E-Elahi, Director General, Bangladesh Rice Research Institute, citing the center’s contributions to the development of high-yielding maize and wheat varieties, wheat-rice and maize-rice systems, whole-family training, small-scale farm mechanization for conservation agriculture, and triticale (a wheat-rye hybrid) for fodder. “CIMMYT’s contributions to agricultural research and development in Bangladesh are highly recognized.”

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Building capacity among scientists and farm families

More than 140 Bangladeshi wheat and maize scientists and extensionists have taken part in courses at CIMMYT-Mexico or come as visiting scientists in crop breeding, agronomy, pathology, cereal technology, experiment station management, seed production, economics, heat stress, and resource conserving practices. Dozens of scientists from Bangladesh have also attended conferences or international workshops organized by the center and partners. Finally, joint efforts in crop, soil, and water management research over the last 20 years have added to expertise in Bangladesh.More often than not, women and children contribute substantively to farm activities, so CIMMYT and the Wheat Research Centre (WRC) developed and refined a whole-family-training approach that has boosted adoption of improved cropping practices. “We’ve reached over 27,000 women and men farmers on maize and wheat production, and around 700 small-scale dairy farmers,” says Anton Prokash Adhikari, CIMMYT-Bangladesh Administrator. Follow-up studies in 1996 among a randomly-selected subset of families who attended training sessions showed a 90-100% adoption of improved practices. After training, maize farmers adopted a range of improved production practices, planting the crop on more land and raising grain yields by 0.8 tons per hectare. “This type of training has raised the quality of farming in Bangladesh,” says Adhikari.

With an average of over 1,000 inhabitants per square kilometer, Bangladesh is among the world’s most densely-populated countries, and nearly two-thirds of its people work in agriculture. The country furnishes a case study for the future of farming in developing countries: as a result of intensive cropping rotations, every square centimeter of arable land is used 1.8 times a year, and resources are stretched beyond what is normally considered “sustainable.” A recent report on CIMMYT efforts in Bangladesh gives an interesting account of how, through broad partnerships and sustained research for farmers, an international agricultural center can help improve farmers and consumers’ lives.

Joint work brings food and windfalls

“The last quarter century of work by a small team of dedicated CIMMYT staff and their colleagues in Bangladesh national programs has brought improvements in local and national income, food security, human nutrition, and well-being,” says agronomist Stephen Waddington, who worked for CIMMYT in Bangladesh during 2005-2007. “This is easily seen by any visitor to Bangladesh, where nowadays many otherwise poor people regularly have wheat chapattis for their breakfast, a glass of milk from triticale fodder-fed cows for their lunch, and maize-fed chicken, eggs, or fish for their dinner.”

Bangladesh emerged on the map of significant wheat-growing countries in the 1980s, according to Waddington. “Wheat became the second major cereal after rice, contributing to food security and human nutrition, and improving the livelihoods of resource-poor farmers and urban consumers,” he says. “Nineteen of the twenty-four wheat varieties released in Bangladesh carry CIMMYT lines in their backgrounds.” Much crop management and soil research for wheat was conducted in joint Bangladesh Wheat Research Center (WRC)-CIMMYT programs.

With climate change, enter maize and alternative crops

After playing a crucial role in Bangladesh agriculture, wheat production has declined in recent years, due chiefly to higher temperatures that hamper grain filling and incubate wheat diseases. But maize has become increasingly popular, partly in response to rising demand from the poultry sector for feed. “Last year farmers produced 1.3 million tons of maize, and output and interest are growing ,” says Enamul Haque, Senior Program Officer for CIMMYT-Bangladesh. “Maize fits well in Bangladesh’s climate, soils, and intensive farming systems.”

Again, CIMMYT has helped in a big way, providing improved maize lines adapted to local conditions, offering expertise in hybrid-based maize breeding and crop management research, helping to promote dialogue on enabling policies that foster productivity and effective markets. “Six out of the seven maize hybrids released by the Bangladesh Agricultural Research Institute, in recent years contain CIMMYT maize lines, and there is significant use of CIMMYT maize by emerging private breeding companies,” says Haque.

Finally, in recent years, triticale has become a source of high-quality green fodder for small-scale dairy producers during the cool, dry, winter season. “Dual-purpose fodder and grain triticale can produce 7 to 12 tons per hectare of fresh fodder, and as much as 2 tons per hectare of grain for poultry feed or for chapattis,” says Haque. All triticale varieties sown in Bangladesh come from CIMMYT.

Mechanization and resource-conserving practices

Within the last decade or so, agriculture in Bangladesh has become highly-mechanized: 8 of 10 farmers use two-wheel tractors, which are more apt for their small and scattered land holdings than the four-wheel variety. Since 1995, Haque has worked with the WRC and local organizations to promote a varied set of implements for reduced, more efficient tillage and seeding. One key aim has been to enable farmers to sow wheat or other crops directly after rice harvest in a single day—instead of after two weeks of back-breaking, fuel-hungry plowing—thus saving money and allowing the new crop to mature before the pre-monsoon heat shrivels the grain.

 Craig Meisner (left), a CIMMYT wheat agronomist during 1990-2005, contributed significantly to CIMMYT's presence, partnerships, and achievements in Bangladesh.
Craig Meisner (left), a CIMMYT wheat agronomist during 1990-2005, contributed significantly to CIMMYT’s presence, partnerships, and achievements in Bangladesh.

“To date thousands of farmers have adopted a small, two-wheel tractor-driven implement that tills, seeds, and covers the seed in a single pass,” says Haque. “This reduces turn-around between crops by 50%, cuts costs 15-20%, saves 30% in irrigation water and 25% in seed, and improves fertilizer efficiency—all this, as well as increasing yields by 20%, for wheat.” Owners of the single-pass seeding implement often hire out their services, earning USD 1,000-2,000 a year and each helping 20-100 other farmers to obtain the above-mentioned benefits. In addition, the reduced tillage implement and practices help address labor shortages that constrain farm operations at peak times, and are opening lucrative opportunities for machinery manufacturing and repair businesses.

For the future, CIMMYT staff are testing and promoting with researchers and farmers the use of permanent, raised beds and straw retention systems that can increase yields as much as 50% in intensive, wheat-maize-rice cropping sequences. Future activities of CIMMYT-Bangladesh will also focus on strengthening wheat and maize breeding programs, system-based research and resource-conserving practices, and the use of maize as food, fodder, and feed. “We’d also like to do more capacity building, study soil health and nutrition, and better disseminate useful technologies to farmers and extension agents,” Haque says, “but much depends on the resources available.”

Extensive partnerships key to past and future success

“CIMMYT has worked with national programs, NGOs, the private sector, farmers, donors, and policy planners,” says Md. Harun-ur-Rashid, Executive Chairman, Bangladesh Agricultural Research Council, and Director General, Bangladesh Agricultural Research Institute. “These joint programs have accumulated an impressive array of achievements and benefits.”

In addition to the key partners cited above, CIMMYT has worked with agricultural universities in Bangladesh, the Department of Agricultural Extension, the Bangladesh Livestock Research Institute, the Soil Resource Development Institute, the Bangladesh Rural Advancement Committee (BRAC), the Bangladesh Chashi Kollan Samity, the Bangladesh Institute of Nuclear Agriculture, Deoel Agro Industries Complex Ltd., and the Mahbub Engineering Workshop at Jamalpur. IRRI; ILRI; ICRISAT; IFDC; FAO; Murdoch University, ACIAR, and CSIRO, in Australia; Cornell University, Texas A&M University, Winrock International, and the Helen Keller Foundation, USDA, in the USA.

For more information: Enamul Haque, Senior Program Manager, CIMMYT-Bangladesh (e.haque@cgiar.org)

Latin American ministers visit CIMMYT and develop food price crisis strategy

CIMMYT E-News, vol 5 no. 5, May 2008

may05Skyrocketing food prices recently brought Latin American agriculture ministers from 14 countries and development experts to CIMMYT to seek a way forward for a region characterized by serious rural poverty.

On 26 May 2008, ministers of agriculture and government officials from Belize, Bolivia, Costa Rica, Cuba, the Dominican Republic, Ecuador, El Salvador, Guatemala, Haiti, Honduras, Mexico, Nicaragua, Panama, and Venezuela, as well as representatives of international organizations working in agricultural development and the Mexican media—more than 70 persons in all—visited CIMMYT’s headquarters in Mexico to learn about the center’s work and discuss collaborative strategies for addressing the food price crisis. The visit was part of a two-day summit organized by Mexico’s agriculture (SAGARPA) and foreign relations (SRE) ministries, following up on recommendations from a regional summit on the same topic in Nicaragua earlier this month.

Speaking on behalf of the Alliance of Centers of the Consultative Group on International Agricultural Research (CGIAR) in his welcoming talk, CIMMYT Director General Tom Lumpkin emphasized the need to move from the present emergency to a permanent vision for addressing the crisis. “It appears that two decades of complacency about basic food production has finally given way to a sense of urgency,” Lumpkin said. “We must now transform that urgency into a long-term vision, making sensible investments in agricultural research and extension to provide food for our children and our grandchildren.”

Have policy makers forgotten small-scale farmers?

The rising cost of food is being felt around the world, especially by poor people in rural zones. Though often not on the radar screens of policymakers, the rural poor are numerous. A recent paper from the International Food Policy Research Institute (IFPRI) says there are more than 400 million small farms in developing countries, and that these are home to most of the world’s hungry and disadvantaged. In Latin America and the Caribbean, nearly 64% of the rural population lives below the poverty line, according to a report by the International Fund for Agricultural Development (IFAD). Over the last two decades, the number of poor people in rural areas in the region has increased in both absolute and relative terms, the report says.

SAGARPA and CIMMYT undertake new, joint projects

As the meetings closed, Lumpkin urged “
the governments of Mexico and other countries in the region to re-examine their relationship with CIMMYT and bring new backing for research to increase food production and farm productivity.” In the week following the visit and at the invitation of Mexico’s Secretary of Agriculture, Alberto CĂĄrdenas JimĂ©nez, the center has submitted proposals for joint SAGARPA-CIMMYT work to develop, test, and disseminate drought tolerant maize varieties, as well as management practices that reduce small-scale farmers’ losses of stored maize grain to insect pests.

For more information: Rodomiro Ortiz, Director, Resource Mobilization (r.ortiz@cgiar.org)

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Syngenta-CIMMYT partnership to advance wheat research

CIMMYT has entered into a partnership with Syngenta to focus on the development and advancement of technology in wheat, the most internationally traded food crop and the single largest food import in developing countries. The agreement will entail joint research and development in the areas of native and genetically-modified traits, hybrid wheat, and the combination of seeds and crop protection to accelerate plant yield performance.

The agreement will leverage Syngenta’s highly developed genetic marker technology, advanced traits platform and wheat breeding for the developed world, along with CIMMYT’s access to wheat genetic diversity, global partnership network, and wheat breeding program targeted to the developing world.

“Global wheat production is increasing at only 0.9% each year,” said Hans-Joachim Braun, Director of CIMMYT’s Global Wheat Program. “This is a very critical issue as global demand is growing at 1.5% or more annually. Combined with the impacts of climate change, we must avoid the risk of another food crisis and ensure farmers across the world are equipped to meet the demands of a rising world population. Partnerships like this can greatly benefit the world’s farmers, rich and poor.”

For more information:
Mike Listman
Corporate Communications, CIMMYT
Tel: +52 55 5804 7537
Email: m.listman@cgiar.org

Read media release on Syngenta website http://www2.syngenta.com/en/media/mediareleases/en_100406.html

(the release includes a 7 min 20 sec video interview with John Atkin, Syngenta COO Crop Protection, and Hans-Joachim Braun, director of CIMMYT’s global wheat program)