Location: Africa

CIMMYT’s work in Africa helps farmers access new maize and wheat systems-based technologies, information and markets, raising incomes and enhancing crop resilience to drought and climate change. CIMMYT sets priorities in consultation with ministries of agriculture, seed companies, farming communities and other stakeholders in the maize and wheat value chains. Our activities in Africa are wide ranging and include: breeding maize for drought tolerance and low-fertility soils, and for resistance to insect pests, foliar diseases and parasitic weeds; sustainably intensifying production in maize- and wheat-based systems; and investigating opportunities to reduce micronutrient and protein malnutrition among women and young children.

Two-wheel tractors to increase smallholder farm power in Ethiopia

Written by on February 19, 2015. Posted in Blogs.

For Ethiopian smallholder farmers who have for millennia used the traditional animal-drawn maresha plow, two-wheel tractors could increase their productivity while reducing labor. They appear better suited to the Highlands of Ethiopia, characterized by small, fragmented farms and hilly terrain, than four-wheel tractors, which are only well-suited for large- and medium-scale farmers who comprise about 10% of the country’s estimated 14.7 million farmers. Two-wheel tractors are also very versatile and can be used for seeding, pumping water, threshing wheat and transporting heavy loads.

Service providers from three Africa RISING program sites being trained in the operation, maintenance, business, financial management and marketing of two-wheel tractors. Photo: Frédéric Baudron/CIMMYT

Although two-wheel tractors and their attachments are relatively cheap (about US $1,400) and easy to maintain, it is evident that most Ethiopian farmers won’t be able to purchase them individually. Still, they could hire the services of dedicated providers trained to use two-wheel tractors. To make mechanization accessible to smallholder farmers, on 1-5 June 2015 CIMMYT and its partners organized a training course for service providers from Debre Birhan, Sinana and Lemo woredas (districts). They were trained in the operation, maintenance, business, financial management and marketing of two-wheel tractors.

The service model being tested by CIMMYT and its partners has been adopted in Bangladesh, where a single two-wheel tractor can service up to 30 farmers. The initiative to disseminate two-wheel tractors in the Highlands of Ethiopia is supported by the United States Agency for International Development’s (USAID) Africa Research in Sustainable Intensification for the Next Generation (Africa RISING) program. After the course, trainees returned to their respective areas equipped with two-wheel tractors and various attachments, to start providing seeding, transport and water pumping services to local farmers.

Since the Growth and Transformation Plan was established by the Government of Ethiopia in 2011, tremendous progress has been made in the agricultural sector. Farmers now have access to better seeds and adequate quantities of fertilizer. Yields have increased dramatically, and improved connections between farmers and markets mean higher incomes for farmers and more food available for consumers in both rural and urban areas.

Sustaining such an increase in agricultural output, however, will require a proportionate increase in farm power. In response, the Ministry of Agriculture and the Ethiopian Agricultural Transformation Agency developed a draft national mechanization strategy in 2014, with the goal of increasing the farm power available to Ethiopian farmers 10-fold by 2025.

Gates Foundation predicts agricultural extension will have a big impact on Africa

Written by on February 9, 2015. Posted in Features.

In their seventh annual letter Bill & Melinda Gates look 15 years into the future to predict the steps needed to improve the lives of poor people faster than in any other time in history. Technology advancements in agriculture, education and global health are key to this vision, with particular reference to the importance of new vaccines, mobile phone technology and online education. “Poverty has been halved because of innovation,” Bill Gates emphasized at the Davos World Economic Forum last week. “Economic miracles start with agriculture, education and then [countries] can participate in the world economy.”

The Gates Foundation has placed their agricultural bets on Africa being able to feed itself in 15 years. This will be achieved through training in crop rotation, no-till farming, fertilizer use and planting techniques. “Investing in extension…is the only way to reap the full benefit of innovation,” Bill and Melinda Gates emphasized. It is predicted this will lead to a 50 percent yield increase across Africa, reducing famines through more nutritious crops and a reduced dependence on imports. Mobile phones will also be a game-changer, giving farmers access to information on improved seed and fertilizer, proper techniques, daily weather reports and market prices.

The notion that scientists should work closely with farmers is central to CIMMYT’s approach. There is a great deal of information out there today and farmers have choices to make. Selecting the right seed varieties and technologies alone is not enough. It is also crucial to combine this knowledge with an understanding of how to develop an integrative agronomic system that connects farmers to a working value chain. In this respect agricultural extension can help farmers achieve their agricultural goals.

Nonetheless, agricultural extension alone will not be sufficient to help African farmers increase agricultural productivity. Extension must go hand in hand with developing new varieties – why use an Altair Basic if you can get a Surface Pro 3? Tanzanian farmer Joyce Sandiya’s success with new drought tolerant maize seed is featured in the annual letter. “That seed made the difference between hunger and prosperity,” she said, eloquently reflecting on the importance of a single seed.

CIMMYT projects in Africa that are funded by the Bill & Melinda Gates Foundation show how to develop and deploy new seed varieties. In eastern and southern Africa, up to 2 million farming households have benefited from improved drought tolerant maize seed emerging from joint work by CIMMYT scientists and seed companies, government exten-sion programs and national research organizations.

Research alone is academic, unless it is informed by awareness of problems on-farm and supported by extension. Agricultural research is essential to develop new seed varieties, technologies and innovations, while extension is crucial to ensure that farmers can use these technologies.

Safeguarding seeds against agricultural risks

Written by on January 13, 2015. Posted in Features.

Jill Cairns Photo credit: FarmD — Jill Cairns
Photo credit: FarmD

A webinar on Strengthening and Enhancing Seed Systems to Better Manage Agricultural Risk, was presented by Dr Jill Cairns (pictured), Crop Physiologist at the International Maize and Wheat Improvement Center (CIMMYT) based in Harare, Zimbabwe.

We caught up with Jill today, a day before her webinar.

Whom would you really like to see at this seminar?
Mainly people working – or interested – in agriculture, climate change and risk management in sub-Saharan Africa.

What would you like the take-home message to be?
That inadequate rainfall depresses and destabilises yields in sub-Saharan Africa. One could say that is a truism. However, beyond this doom and gloom there is good news. CIMMYT in collaboration with IITA and partners in participating countries has developed drought-tolerant seed which is already having impact in farmers’ fields.

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What inspired the idea for this webinar?
A global connection actually. The World Bank has a forum called FARMD – Forum for Agriculture and Risk Management in Development. They approached Marianne Bänziger, CIMMYT’s Deputy Director General for Research and Partnerships, to present at a November 2014 FARMD conference on Managing Agricultural Risks in a Changing Climate in sub-Saharan Africa. The idea was to understand climate change and its implications for agricultural risk management. CIMMYT was approached because of its considerable experience in seed systems and conservation agriculture to reduce production vulnerability for maize in Africa.

And how and when did you – Jill – come into the picture then?
I represented Marianne at that World Bank conference. The presentation led to a lively discussion on the potential of drought-tolerant seed to reduce maize yield variability in Africa. There is a misconception that drought-tolerant maize yield lower in non-drought years and thus has negative production and economic consequences for farmers. However this is not true. The fact is that drought-tolerant maize yields as much as commercial varieties in farmers’ fields. And in many cases, it in fact yields more than current commercial varieties. FARMD approached me after the conference to present again to a wider audience, so here I am!

Related links:

Securing our daily bread: boosting Africa’s wheat production

Written by on December 28, 2014. Posted in Blogs.

Edward Mabaya is a Research Associate in the Department of Applied Economics and Management at Cornell University and a development practicioner. All views expressed are his own.

Se necesita maíz de grano blanco en las zonas marginadas de Paquistán

There are many crops that conjure up an image of the African continent – maize, sorghum, millet, turf, matoke and cassava. These staples form the basis of African’s daily diet and have been established over many years through close interaction between culture and agro-ecological conditions.

Yet there is one less talked about food that you will find in every African urban area. Bread.

In 2013, African countries spent about $12 billion dollars to import 40 million metric tons of wheat, equating to about a third of the continent’s food imports. This arises as a result of the fact that only 44% of Africa’s wheat demand is met by local production. The only country on the continent with a significant production base is South Africa with over 2 million metric tons per year.

As if the current deficit was not bad enough, the demand for wheat in Africa is growing at a faster rate than for any other crop. By 2050, wheat imports are anticipated to increase by a further 23.1 million metric tons. In the last 20 years wheat imports have increased fourfold from about $3 billion in 1989 and doubled from a rate of $5 billion in 2005 (see table below). This demand is being driven by population growth, urbanization, as well as from a growing female work force who prefer wheat products, like bread or pasta, because they are faster and easier to prepare than traditional foods.

What can African countries do to reduce their wheat imports?

A short-term measure is to mandate or promote the use of composite flours that mix wheat with locally abundant starches such as cassava and starchy bananas (matoke). This practice is already in place in some countries. Nigeria, for example, mandates flour millers to include five percent cassava flour in wheat flour. Tooke flour, developed by Uganda’s Presidential initiative on Banana Industrial Development (PIBID) shows some promise. However, composite flours are only a Band-Aid solution to the growing demand for wheat based products especially given the fact that you can only substitute up to 5% before quality diminishes significantly. The only viable long-term solution is for African countries to meet a large portion of domestic demand through local production.

Like most of my African colleagues, I have always unquestioningly assumed an agronomic basis for Africa’s wheat import, that wheat is a northern hemisphere crop that does not grow well in Africa. A 2012 joint study by CIMMYT and IFPRI exploring “The Potential for Wheat Production in Africa” was an eye opener for me. Based on an integrated biological and economic simulation-based model for 12 countries, the study concluded that Africa has great potential to produce wheat in an economically viable way. The limiting factors, it turns out, are more to do with policy, institutional and social-cultural environments than agro-ecological ones. One example of which is that the heavy subsidies on wheat imports by most African governments have crowded out potential investment in domestic wheat production.

The good news is that enabling policy and institutional environments are cheaper to fix and more environmentally sustainable than making agro-ecological adaptations. The not so good news is that decades of history will be difficult to change – importing wheat is a lucrative business with strong political ties. Boosting Africa’s wheat production will require a coordinated approach with a range of partners to build the requisite enabling environment. This will need more investment in research and development, improved research infrastructure, better agricultural extensions, effective farmer associations and farmer training, better storage and improved access to affordable high quality agro-inputs (seed, fertilizers, chemicals, and machinery).

This enabling environment for wheat production in Africa will not be achieved overnight. It will take years of coordinated strategic investments and policy transformation. Key policy makers on the continent are making the first steps. In 2012, the Joint African Ministers of Agriculture and Trade “endorsed wheat as one of Africa’s strategic commodities for achieving food and nutrition security” at a meeting held in Addis Ababa. A high level Forum for Agricultural Research in Africa (FARA) meeting held in Accra in July 2013 developed a strategy for promoting African wheat production. It is especially encouraging that African governments have chosen a regional approach and multi-stakeholder approach to lower the continent’s wheat imports.

As the old African saying goes: “If you want to go fast, go alone. If you want to go far, go together.”

Training to fill gaps in Ethiopia’s maize seed system

Written by on December 23, 2014. Posted in News.

The Nutritious Maize for Ethiopia (NuME) project recently organized a three-day training workshop on quality protein maize (QPM) seed production and quality control, as part of the project’s activities to enhance QPM seed production. There were 26 participants, including 2 women, from seed companies, farmer cooperative unions, the Ministry of Agriculture, seed laboratories, research institutes and universities. The workshop was facilitated by CIMMYT experts working in eastern Africa.

Opening the event, Dr. Dagnachew Beyene, advisor to the State Minister of Agriculture, said the workshop was very timely. “The expansion of the Ethiopian seed system is constrained by a shortage of skilled professionals,” he said.

Heat-tolerant Maize for Asia Showcased at India-US Technology Summit

Developed over two decades of meticulous breeding from the late 1970s to the early 1990s, QPM contains enhanced levels of amino acids used for protein synthesis in humans and farm animals such as pigs and poultry. Nutritional studies have shown that it can improve the nutrition of people whose diets are highly- dependent on maize, especially young children. Major topics covered included maize variety development, maize seed research and field management for QPM seed production, maintenance of QPM inbred parent lines and open-pollinated varieties, as well post-harvest handling techniques for QPM.

The training also dealt at length with creating communication links between seed companies, customers and farmers and planning and developing seed production, marketing and financial strategies to promote of QPM seeds.

Addressing the participants at the conclusion of the training, the Crops Research Director of the Ethiopian Institute of Agricultural Research (EIAR), Dr. Asnake Fikre, stated that efforts need to be made to sustain QPM production in Ethiopia, because maize is the most produced cereal and a critical crop for food security in the country.

Asnake also noted that “in the transition to food security in the country, nutritional security is a critical concern and the crop sector in Ethiopia should work hard to sustain the QPM value chain by advocating its nutritional and agronomic benefits and creating demand for the production and use of QPM.” The added that NuME’s important work on QPM needs to be effectively backed up by multi-sectorial engagement and cooperation.

In their feedback, participants said the workshop had been timely, well-organized and valuable. They suggested that future such events include practical sessions and interaction with farmers. Typical remarks included statements that “strengthening of QPM and advocacy issues need to be consistent in promoting QPM until it reaches cutting-edge stage.”

NuME is implemented by CIMMYT in Ethiopia and funded by the Department of Foreign Affairs, Trade and Development of Canada (DFATD). It is designed to help improve the food and nutritional security of Ethiopia’s rural population, especially women and children, through the adoption of QPM varieties and crop management practices that increase farm productivity.

Improved maize to boost yields in nitrogen-starved African soils

Written by Mike Listman on December 11, 2014. Posted in Features.

Sub-Saharan African farmers typically apply less than 20 kilograms of fertilizer per hectare of cropland — far less than their peers in any other region of the world. In 2014, partners in the Improved Maize for African Soils (IMAS) project developed 41 Africa-adapted maize varieties that respond better to low amounts of nitrogen fertilizer and are up for release in nine African countries through 24 seed companies.

A farmer applies nitrogen fertilizer to her hybrid maize. Photo: CIMMYT/IMAS

After water, nitrogen is the single most important input for maize production; lack of it is the main constraint to cereal yields in Africa, in areas with enough rain to raise a crop. Year after year, infertile soils and high fertilizer prices (in rural areas as much as six times the global average) combine to reduce harvests of maize, sub-Saharan Africa’s number-one cereal crop and chief source of calories and protein for the poor. With funding from the Bill & Melinda Gates Foundation and the U.S. Agency for International Development (USAID) and led by the International Maize and Wheat Improvement Center (CIMMYT), an initiative launched in 2010 has made dramatic progress to address this by exploiting natural genetic variation for nutrient-use efficiency in tropical maize. “Partners have been breeding maize varieties that respond better to the small amounts of nitrogen fertilizer African farmers can afford to apply,” said Biswanath Das, CIMMYT maize breeder and coordinator of the Improved Maize for African Soils (IMAS) project. “We’re aiming to raise maize yields by 50 percent and benefit up to 60 million maize farmers in eastern and southern Africa.”

Smallholder Farmer Conditions: A Maize “Reality Check”

A public-private partnership that, along with CIMMYT, involves national research organizations such as the Kenya Agricultural & Livestock Research Organization (KALRO) and South Africa’s Agricultural Research Council (ARC), African seed companies and DuPont Pioneer, IMAS has advanced quickly in part because participants share breeding lines and technical knowhow, according to Das.

“But a real key to success – and a significant legacy of the project – is that IMAS has established in eastern and southern Africa the world’s largest low-nitrogen screening network for maize,” Das explained. “There are 25 sites in 10 countries and a total of over 120,000 experimental plots. Partners can test breeding lines and quickly and reliably spot the ones with superior nitrogen-use efficiency under smallholder farmers’ conditions.” According to Das, nearly a quarter of the plots are managed by seed companies, which recognize the value of nitrogen-use efficiency as a key trait for their farmer clients.

In an exciting 2014 development, regulatory agencies in eastern Africa began evaluating maize national performance trials — which varieties must pass as a prerequisite for release — under nitrogen stress in the IMAS network. “This is a clear recognition by policymakers of poor soil fertility as a critical constraint for African maize farmers,” said Das. “To meet farmers’ needs, IMAS varieties are also bred for drought tolerance and resistance to the region’s major maize diseases.”

Also Yielding Under Well Fertilized Conditions

Partners are augmenting conventional breeding with DNA-marker-assisted selection and use of “doubled haploids,” a high-tech shortcut to genetically-uniform maize inbred lines. Experimental breeding stocks thus developed are field tested under low-nitrogen stress through “high-precision phenotyping,” involving careful measurement of key traits in live plants.

Low nitrogen trials in Kiboko, Kenya, where new maize varieties are tested. Photo: CIMMYT/IMAS.

“In this way, we’ve quickly developed maize varieties that yield up to 50 percent more than existing varieties under low-fertility stress, characteristic of smallholder farming systems,” Das explained. “Crucially for farmers, these varieties also perform well under well- fertilized conditions, whilst several carry resistance to maize lethal necrosis, a devastating viral disease spreading through eastern Africa.” In 2014, 41 such varieties were nominated for release in nine countries in Africa, in partnership with 24 seed companies.

This year IMAS also worked with seed companies to support the production and dissemination of 3,000 tons of seed of nitrogen-use efficient maize hybrids in Kenya, Mozambique, Tanzania and Zimbabwe, potentially benefitting more than 120,000 smallholder maize farmers and helping to enhance food security for over half a million household members, according to Das. “Close collaboration with the private seed sector has been instrumental to IMAS since its inception,” Das said. “These partners host over a quarter of the regional nitrogen stress screening network and have helped with the quick increase of seed of nitrogen-use efficient varieties and with managing farmer demonstrations and field days to support the fast release of new varieties.”

A December 2014 report by the Montpellier Panel – comprising agricultural, trade and ecology experts from Europe and Africa – details the economic and ecological threats of degrading soils in Africa, and is highlighted in an 04 December BBC feature.

Ethiopia’s seed co-ops benefit entrepreneurs and smallholder farmers

Written by on November 20, 2014. Posted in Features.

ethiopia-seed — Farmer and social entrepreneur Amaha Abraham in a wheat field in Bishoftu, Ethiopia. CIMMYT/Julie Mollins

BISHOFTU, Ethiopia (CMMYT) — Farmer and social entrepreneur Amaha Abraham sets his sights high.

The 45-year-old aims to become as wealthy as Saudi Arabian-Ethiopian Mohammed Al Amoudi, who in March 2014 was estimated by Forbes magazine to have a net worth of $15.3 billion.

In an effort to achieve that goal Abraham is backing big reforms in Ethiopia’s agriculture sector.

He is at the forefront of a new grassroots seed marketing and distribution program supported by the Ethiopian Agricultural Transformation Agency (ATA) and the Ministry of Agriculture to improve the country’s wheat crop through the marketing of improved seed by multiple producers and agents.

Under the program, government-subsidized farmer-run cooperatives produce high-yielding, disease-resistant wheat seed, accelerating distribution and helping smallholder farmers grow healthy crops to bolster national food security.

About 50 farmers belong to each cooperative, planting about 100 hectares (250 acres) of government-certified seed, which produce improved wheat varieties they then multiply and sell to smallholder farmers. Seed sales garner a 15 to 20 percent price premium over wheat-grain sales, providing a significant financial incentive.

“I’ve reached so many farmers, so that their land will be covered by proper improved seeds,” Abraham said.

“When I take the seeds to them I give training and advice, which attracts more farmers to get involved. The government visits and organizes training on my land – they recognize my efforts and they’re pushing other farmers to do the same thing.”

STREAMLINED SYSTEMS

The Direct Seed Marketing (DSM) program is part of Ethiopia’s “Wheat Productivity Increase Initiative,” which aims to end the country’s reliance on wheat imports – equal to 1.1 million metric tons (1.2 million tons) or about 24 percent of domestic demand, which is 4.6 million metric tons in 2014, according to the Wheat Atlas, citing statistics from the U.S. Department of Agriculture.

Previously, the process of getting new wheat seed varieties to farmers was allocation based, with limited producers and agents and a limited choice of varieties, said Sinshaw Alemu, wheat and barley chain program analyst at ATA.

“It was a seed distribution system, not a seed marketing system,” Alemu explained. “DSM is based on the concept that the producers of the seed should be able to market and then sell it at the primary level and farmers will have their choice of seed.”

Farmers can now collect seeds from a certified agent – either a primary cooperative or a private outlet where a direct channel is established with seed producers, leading to timely deliveries and better estimates of potential demand. They can buy government-allocated seed as they did under the other system or the agent can now contact the seed enterprise and purchase additional wheat varieties at a farmer’s request with no fixed allocations in DSM.

“One of the issues in the previous system was that due to delays on demand estimations from woredas (district councils), the unions and primary cooperatives had little or no control over the kind and quality of seed allocated to them,” Alemu said.

“Primary cooperatives had to take it and seed remained unsold at the end of the planting season because either the variety or quality wasn’t what they were looking for – the primary cooperative was left with hundreds of quintals of seed and they had no use for it.”

“We tried the DSM in five woredas in 2014, and it was very successful – 97 percent of the seed delivered was sold and the remainder taken away – we’ve seen some very encouraging results in this area,” he added.

DISEASE THREAT

In recent years, Ethiopia’s wheat crop has been hit hard by stem and yellow rust epidemics, which at their worst can destroy entire crops. Rust infestation can lead to shriveled grain, yield losses and financial troubles for farmers, who must avoid susceptible wheat varieties.

The revamped seed marketing system can help get the new disease-resilient wheat varieties to farmers more efficiently, said David Hodson, a senior scientist based in Ethiopia’s capital Addis Ababa with the International Maize and Wheat Improvement Center (CIMMYT) who manages RustTracker.org, a global wheat rust monitoring system supported by the Borlaug Global Rust Initiative.

Rust Tracker generates surveillance and monitoring information for emerging rust threats. The information provides an early warning system for disease and can help farmers prepare for epidemics, which could otherwise wipe out their crops.

The Rust Tracker is funded by the Durable Rust Resistance in Wheat project, which is managed by Cornell University and supported by the UK Department for International Development (DFID) and the Bill & Melinda Gates Foundation.

GENERATING GERMPLASM

CIMMYT, a non-profit research institute which works with partners worldwide to reduce poverty and hunger by increasing the sustainable productivity of maize and wheat cropping systems, plays a key role in providing germplasm to be tested and improved by government-run national agricultural research systems before it is potentially released to farmers.

Additionally, CIMMYT provides smallholder farmer training and skills development on such topics as crop management and agricultural practices. In Ethiopia, these activities, along with seed multiplication and delivery are being supported by a new $5.75 million grant from the U.S. Agency for International Development (USAID).

“CIMMYT supports Ethiopia’s agriculture research in a variety of ways including by training researchers, development agents and farmers skills on modern sciences and filling technical gaps by providing field and laboratory equipment, farm machinery, installing irrigation systems, modernizing breeding programs, improving quality of data, providing germplasm and project funds,” said Bekele Abeyo, a CIMMYT senior scientist and wheat breeder based in Addis Ababa.

“The government is now putting an emphasis on agriculture and the situation is far better and improving,” he said. “The structure and extension systems are there to help farmers – Direct Seed Marketing is making it easier to increase the availability of seeds and complements more traditional public seed.”

Adopting improved wheat varieties increases the number of food secure households by 2.7 percent and reduces the number of chronic and transitory food insecure households by 10 and 2 percent respectively, according to CIMMYT scientist Menale Kassie, one of the authors of “Adoption of improved wheat varieties and impacts on household food security in Ethiopia.”

Ethiopia’s wheat-growing area in 2013 was equivalent to 1.6 million hectares (4 million acres), and the country produced 2.45 metric tons of wheat per hectare, according to the country’s Central Statistical Agency.

VENTURE EVOLVES

In 2013, Abraham harvested about 250 quintals (25 metric tons) of the Digalu wheat seed variety near Bishoftu, a town formerly known as Debre Zeyit in the Oromia Region situated at an altitude of 1,900 meters (6,230 feet) 40 kilometers (25 miles) southeast of Addis Ababa.

Abraham is optimistic. He expects he will soon be able to hire many employees, as he plans to expand his agricultural interests to include beekeeping, dairy cattle, poultry and livestock, he said.

“My main aim is not only to earn more money, but also to teach and share with others – that’s what I value most,” he said. “Regardless of money, there are certain people who have a far-sighted view and I want them to be involved. That’s what I value – I’m opening an opportunity for others and envisioning a far-sighted development plan.”

He still has a way to go before he catches up with Al Amoudi, ranked by Forbes as the 61^st wealthiest person in the world.

Global wheat-rust research aids Ethiopian farmers

Written by on November 13, 2014. Posted in Features.

EL BATAN, Mexico (CIMMYT) — Until a few years ago, farmers Abdela and Bayisu Kadir grew “Kubsa,” a semi-dwarf bread wheat variety on their small landholding in the Ethiopian highlands known as the Roof of Africa.

The couple manage a 3-hectare farm, which is situated at an elevation of 2,400 meters (7,874 feet) in the Arsi region about 175 kilometers (110 miles) southeast of the capital Addis Ababa.

Kubsa, just one of 480 wheat varieties bred by 2014 World Food Prize laureate scientist Sanjaya Rajaram during his 40-year career, has had a long and successful run since it was first released in 1995.

The variety, developed by Rajaram at research stations operated by the International Maize and Wheat Improvement Center (CIMMYT), came from the high-yielding Atilla wheat breeding line he created in 1990.

By 2010, Kubsa was grown on 250,000 hectares (620,000 acres) of cropland in Ethiopia. Over time, as wheat rust disease fungi have mutated in the region, Kubsa has become vulnerable to yellow rust and stem rust, which can devastate crops leading to shriveled grain, yield losses and financial troubles for farmers.

“After yellow rust disease began to appear in our crop a few years ago, we switched to the Kakaba wheat variety,” said Bayisu Kadir, who has six children.

“Last year Kakaba gave us more than 5 (metric) tons of wheat per hectare (75 bushels per acre),” she added, explaining that her husband had sprayed their crop with fungicide to protect it from potential damage.

By 2012, the CIMMYT-derived variety Kakaba covered more than 200,000 hectares in Ethiopia, according to the online Wheat Atlas, and so far remains resistant to yellow rust.

CIMMYT is a member of the Borlaug Global Rust Initiative, an international consortium of more than 1,000 scientists from hundreds of institutions that works to reduce vulnerability to mutating rust diseases. CIMMYT continuously produces high-yielding disease-resistant wheat varieties.

BACKBONE GENES

Atilla, called Kubsa in Ethiopia, is a family of wheat varieties released by governments under different names in various countries. Its two main sister lines were widely adopted around the world.

One sister line, which became the leading variety for over a decade in the bread basket region of northwestern India, contains a combination of resistance genes including Sr31, Yr9 and Yr27, recognized by Rajaram as genes that provided resistance to both stem and yellow rusts.

The other sister variety carried the Yr27 gene and was widely cultivated in many wheat-growing countries. At one time, these two sister varieties were grown on about 8 million hectares throughout Africa, the Middle East and South Asia.

Overall, Rajaram’s adaptable, high-yielding wheat varieties are grown on more than 58 million hectares worldwide. He is credited with producing 480 wheat varieties, which have boosted worldwide yields by more than 180 million tons. These increased yields provide food to more than 1 billion people each year.

He also developed aluminum-tolerant varieties together with Brazilian researchers that were planted in acid soils, areas previously unable to grow wheat.

“Rajaram’s varieties led to more yield and better income for farmers, less yellow rust disease and less chemical application,” said Zuo Yuchun, a professor at the Sichuan Academy of Agricultural Science in China who collaborated with Rajaram for more than 20 years.

Rajaram is the 2014 World Food Prize Laureate for “advancing human development by improving the quality, quantity or availability of food in the world.” He received the award at the World Food Prize ceremony on October 16 in Des Moines, Iowa.

VITAL STAPLE CROP

Globally, wheat provides 20 percent of the world’s daily protein and calories. Production must grow 60 percent over the next 35 years to keep pace with demand, according to the Food and Agriculture Organization of the United Nations.

“The prodigious increase in wheat production through Dr. Rajaram’s work is a furtherance of the success of the ‘Green Revolution’,” said molecular scientist Kameswara Rao, formerly with India’s University of Agricultural Sciences in Dharwad and currently chair of the Foundation of Biotechnology Awareness and Education.

“The wheat varieties developed by Dr. Rajaram have been grown by both small- and large-scale farmers across a diverse range of agricultural environments in 51 countries, contributing to an enhancement of food security.”

The late CIMMYT scientist Norman Borlaug, who mentored Rajaram, led efforts to develop semi-dwarf wheat varieties in the mid-20th century that helped save more than 1 billion people in the developing world in what became widely known as the Green Revolution. Borlaug was awarded the 1970 Nobel Peace Prize for his work and subsequently initiated the World Food Prize.

INNOVATIVE BREEDING

Rajaram joined CIMMYT, which aims to sustainably increase maize and wheat productivity to ensure global food security and reduce poverty, in 1969. As head of CIMMYT wheat breeding, Rajaram increased yield potential 20 to 25 percent.
During his career, Rajaram visited farmers groups and cooperatives to teach them about new technologies, said Arun Joshi, CIMMYT senior wheat breeder for South Asia. He taught them tillage and seeding techniques.

“Rajaram’s participatory approach brought confidence among the farmers and they took more interest in their agriculture and new technologies,” Joshi said.

“Training was mostly delivered as roving seminars organized in farmers’ fields before the start of sowing, during sowing, about a month after sowing and at crop maturity. Such initiatives generated new leadership among farmers and helped faster dissemination of technology among less privileged farmers.”

Although Rajaram retired from CIMMYT in 2003, he continues to help train new wheat breeders.

“We’re grateful for the hundreds of new varieties of wheat that Dr. Rajaram has developed,” said U.S. Secretary of State John Kerry.

“These will deliver more than 200 million more tons of grain to global markets each year and Dr. Rajaram has helped to feed millions of people across the world through his lifetime of research and innovation.”

Q+A: Young scientist wins award for “Taking it to the Farmer”

Written by on November 13, 2014. Posted in Features.

Taking-it-to-the-Farmer EL BATAN, Mexico (CIMMYT) — Conservation agriculture, which improves the livelihoods of farmers by sustainably boosting productivity, is becoming a vital part of the rural landscape throughout Mexico and Latin America, leading to a major World Food Prize award for Bram Govaerts.

As associate director of the Global Conservation Agriculture Program at the International Maize and Wheat Improvement Center (CIMMYT), Govaerts works with farmers to help them understand how minimal soil disturbance, permanent soil cover and crop rotation can simultaneously boost yields, increase profits and protect the environment.

Govaerts, winner of the 2014 Borlaug Field Award , played a major role in developing a Mexican initiative known as the Sustainable Modernization of Traditional Agriculture (MasAgro), and in June 2014 the 35-year-old assumed leadership of the project, spearheading the coordination of related initiatives throughout Latin America.

According to Govaerts, there are two choices – “Either agricultural production is going to grow in unsustainable ways, depleting our resources, or we take action now, investing in sustainable agriculture so that it can be a motor for growth as well as a motor for sustainable development.”

MasAgro is a partnership led by Mexico’s Ministry of Agriculture, Livestock, Rural Development, Fisheries and Food and CIMMYT involving more than 100 agricultural research organizations. It offers training and technical support for farmers in conservation agriculture and gives them access to high-yielding, conventionally bred seeds.

The overall aims of MasAgro include raising the yield potential of wheat by 50 percent and increasing Mexico’s annual production by 350,000 tons (318,000 metric tons) in 10 years. Goals also include raising the production of maize in rainfed areas.

MasAgro’s “Take It to the Farmer” component was inspired by a statement made by the late CIMMYT scientist Norman Borlaug who won the Nobel Peace Prize in 1970. He believed that scientists should work closely with farmers, an idea central to CIMMYT’s overall approach to agricultural research and practice. Borlaug led the development of semi-dwarf wheat varieties in the mid-20th century that helped save more than 1 billion lives in Pakistan, India and other areas of the developing world. He also founded the World Food Prize .

“Take it to the Farmer” integrates technological innovation with small-scale farming systems for maize and wheat crops, while minimizing harmful impacts on the environment. Farmers on more than 94,000 hectares (232,280 acres) have switched to sustainable systems using MasAgro technologies, while farmers on another 600,000 hectares are receiving training and information to improve their agricultural techniques and practices. Techniques include crop diversification, reducing tilling of the soil and leaving crop residue on the fields.

Govaerts, who has also worked on conservation agriculture projects in Ethiopia and India, discussed his work after winning the award.

Q: What inspired the “Take it to the Farmer” component of the MasAgro project?

A: The strategy stemmed from the fact that there’s a great deal of information out there today for farmers, starting with seed varieties. Farmers have many choices to make about technology to increase productivity, but they need to understand how to integrate it and make it sustainable. We work closely with farmers to develop conservation-based agricultural systems so that they can generate high, stable crop yields over time. Doing this offers farmers the best opportunity for higher incomes, but also lowers environmental impact.

MasAgro helps the farmers develop an agronomic system – including the technology. In that way it’s not so much taken to the farmers, but it’s developing a system together with the farmer. We innovate with the farmers and connect them to a working value chain and we then combine what we call our hub approach. We’re connecting research platforms with farm innovation modules and from there we develop systems influenced by farmer knowledge.

Q: Is it possible for this to work on any farm in any location?

A: The key is to adapt to the specific locations of each of the farmers. We have to make the strategies work for specific farming and then on top of that we need to include other technologies to make it work. Technology might simply be hand-planting, not necessarily high-tech huge machinery. It is really about establishing basic conservation agriculture principles and working together to make those basic principles work.

Q: Are you trying to help farmers achieve their agricultural goals by helping them save money by not spending on fertilizers?

A: It depends; if you’re in an area where farmers are over-fertilizing it helps to reduce costs if they don’t use fertilizers as much. On the other hand, some farmers are not using fertilizers at all so there we recommend using them in an integrated manner. There might be areas where production costs go up slightly because farmers were not investing in any inputs or technologies, but because productivity is increased in the end they have a higher return on investment.

Q: Can you give an example of a farmer who has changed practices?

A: Some smallholder farmers in Oaxaca, Mexico, are improving their production practices as they raise the local [indigenous] maize landraces. We connected them with a niche maize market in New York City. They are now exporting and selling their specialty maize to chefs in New York who use them in high-end restaurants. So they are not only increasing productivity, they are also connected to markets to sell their extra produce. The challenge now is to take this effort to scale. What we realized is that by only increasing productivity, we’re actually bringing the farmers into a risky situation unless they can find bigger markets.

We helped a novice wheat farmer who is renting land. He’s been adjusting his farming system and is now using conservation agriculture technology. As a result, because he has a slower turnaround time, when he planted his summer crop, instead of planting only 100 hectares, he jumped to 350 hectares. In a strict sense, he was not a smallholder farmer, but we work with big and small farmers.

Another example is the use of mobile phones – farmers can subscribe to a short message service, or SMS text-messaging system. Once subscribed, the farmer receives information on different topics, including technical recommendations or warnings. For example, one of the warnings we sent out during the wheat-growing season was that there was going to be an imminent frost. That led to some of the farmers irrigating their crops because that helped mitigate the damage and saved part of their crops.

Q: What challenges do you face?

We’re working with more than 150 institutions and organizations and we’re connected to more than 200,000 farmers. When Dr. Borlaug was working the world was simpler, we not only have to increase yields but we also have to work in an environmentally friendly manner. We also have to provide environmental services via agriculture and we have to make sure that farmers have sufficient income and this in a complex, institutional.
We can no longer accept that we’re just doing the science and then leave it up to others to apply the science. That’s not how it works – we scientists need to ensure that the technology is actually implemented and that it is expanded by new ideas from farmers, technicians and others along the value chain. We need to take responsibility that our knowledge and science is used and is responding to a real need. Public and private investment in agriculture should increase, especially in Latin America because it’s going to be a motor of transformation.

Q: How do you encourage farmers to change their practices?

A: We do a lot of training. In some areas our first step is bringing new seeds – connecting seed companies with a new variety CIMMYT has developed, making sure the seed system is working. There are some interventions that are rather linear – one-shot interventions. There are methods that from the beginning are going to be complicated and the farmer has to wait five years before changes are seen. That’s quite difficult, but if you can show an intervention where the farmer can store maize better and instead of losing 40 percent he’s only losing 10 percent during storage, that’s an intervention that can then start the dialogue to a more complicated system change. Much of our focus is on knowledge exchange, as well as in training and innovation.

Q: What is the significance of your award for Mexico?

A: The award has a special significance for Mexico. It recognizes Mexico’s bold decision to invest in agricultural innovation and to take responsibility not only for the country but for the region. We are proud of CIMMYT’s achievements within its host country.
Before CIMMYT’s collaboration with the Mexican government there was a real disconnect between agricultural science and the reality of farmers on the ground. As a result, this award is not only a recognition of scientific excellence, but the importance of getting the results out to the farmers. Mexico is a complex country.

Here we have all types of farmers – from large commercial farmers who exploit market opportunities for export to smallholder farmers who do not have access to markets. Mexico also hosts a wide range of unique agro-ecological environments. These circumstances offer CIMMYT scientists a unique laboratory to conduct their research and gives us an opportunity to explore new ways of doing science and connecting with farmers to ensure that science has impact.

Q: This year the World Food Prize Borlaug Dialogue was titled “Can we sustainably feed the 9 billion people on our planet by the year 2050?” What are your thoughts on the topic?

A: This is not just a numbers game. We will need to feed more than 9 billion people while working in a more complicated institutional and political environment and at the same time safeguarding natural resources. These global challenges are moving at a fast pace, so CIMMYT needs to move fast and expand its scientific excellence. We are at a turning point where we have to take advantage of these rapid changes in science and technology, which are becoming increasingly interlinked.

Working to help provide nutritional food for 9.5 billion people will be a collective effort. There won’t be one Norman Borlaug but a consortium of people working together with different expertise to achieve this goal. This will require new collaborations, especially public-private partnerships. CIMMYT is one of the best institutions to create these partnerships but we need to be better equipped for what is needed at this time. Complacency and living in the past is not an option.

Enhancing the nutritional quality of maize

Written by on November 13, 2014. Posted in News.

Malnutrition and micronutrient deficiency, which can cause blindness and stunting, increased infant and maternal mortality and lower IQs, are at epidemic levels in some parts of Asia. People across Asia depend on maize, rice and wheat but they do not fulfil daily dietary requirements and are deficient in vitamin A and essential micronutrients such as iron and zinc.

Biofortified maize varieties have been bred to include considerably high concentrations of essential micronutrients. Maize in Asia is largely used for feed, but direct human consumption is increasing. Scientists at the 12th Asian Maize Conference highlighted several collaborative interventions to utilize the genetic variability in maize for the development of biofortified maize. Promoting biofortified maize in rural areas and developing new food products has been part of this research. The nutritional benefits of biofortified maize can come directly from eating the crop itself or indirectly by consuming eggs from hens that are fed with provitamin A ProVA-enriched maize. Biofortified maize use for feed may also represent economic benefits for farmers.

Breeding efforts in Asia are currently focused on quality protein maize (QPM) and ProVA-enriched varieties. QPM was first developed by former CIMMYT scientists and World Food Prize Laureates Dr. Evangelina Villegas and Dr. Surinder Vasal. CIMMYT QPM inbred lines have been used in several breeding programs in China, India, Vietnam and elsewhere.

Joint efforts between CIMMYT and numerous partner scientists under HarvestPlus have shown that breeding for increased concentrations of ProVA is especially promising because of the genetic variation available in maize germplasm. New hybrids released in 2012 in Zambia showed ProVA levels 400 percent higher than common yellow maize, with the potential to bring widespread health benefits.

Scientists ship 2 tons of wheat seed samples around the world

Written by on November 12, 2014. Posted in Features.

EL BATAN, Mexico (CIMMYT) — Wheat farmers can boost yields and protect crops from pests and disease by using improved seed varieties, but in the developing world more than 80 percent of farmers use poor quality varieties, losing potential earnings and putting food security at risk, according to research.

Farmers often sell and trade wheat seed among themselves without having much knowledge about the size of the yield they can expect and how a particular variety fares with regard to climate, soil type or disease resistance.

Scientists at the International Maize and Wheat Improvement Center (CIMMYT) are continuously developing improved varieties and each year seed samples — known as International Wheat Nurseries — are sent out to government and university research institutions and national agricultural research systems around the world.

“Wheat plays a vital role in food security,” said Tom Payne, head of CIMMYT’s Wheat Germplasm Bank, which stores almost 145,000 wheat varieties collected over the past 60 years. “We’ve been sending out wheat samples each year since 1974, so if you do the math that’s 367 tons over the years.”

In October, 1,720 kilograms (3,790 pounds) of experimental seeds were shipped to India, one of 75 current recipient countries.

Overall, the 2014 international shipment of seeds delivered in 351,990 sample envelopes weighed 9,230 kilograms. Recent recipient countries included Algeria, Pakistan, Turkey, Ukraine and Sudan.

SORTING SEEDS

Over the past 24 years, Efren Rodriguez, head of CIMMYT’s Seed Distribution Unit has overseen the five-month process of preparing, packaging and shipping of wheat seed samples.

“This year the seed requests we received filled 94 boxes,” Rodriguez said. “Seeds are requested at the end of summer prior to planting season. Each box is filled with envelopes of wheat seed and weighs up to 10 kilograms (22 pounds).”

Seeds arrive at CIMMYT’s headquarters near Mexico City in June in bags weighing from 10 to 35 kilograms from CIMMYT’s research station in Mexicali in northeastern Mexico accompanied with paperwork naming the varieties for inclusion in the shipment.

The seed is sorted according to instructions from the wheat breeders, cleaned with chlorine, rinsed in an industrial restaurant-style dishwasher, doused in protective fungicide, dried, placed in small envelopes by machine, then boxed.

“Research institutions plant the seeds, which have different characteristics designed to solve particular problems – for example, they may be heat, drought- or disease-resistant – and then recommend varieties for general release and sale to farmers,” Rodriguez said, explaining that the seeds tested and selected by the international research programs are incorporated into national wheat breeding or growing programs.

CIMMYT also distributes wheat nurseries as part of a partnership with Turkey and the International Center for Agricultural Research in the Dry Areas (ICARDA).

Globally, wheat provides 20 percent of the world’s daily protein and calories.

CIMMYT prepares to launch second phase of SIMLESA in Kenya and Tanzania

Written by on October 30, 2014. Posted in News.

Dr. Fidelis Myaka, director of research and development with the Tanzanian Ministry of Agriculture, Food and Cooperatives, officially opens the meeting in Arusha, Tanzania.

Representatives from the Australian Center for International Agricultural Research (ACIAR), Queensland Alliance for Agricultural and Food Innovation (QAAFI), the International Center for Tropical Agriculture (CIAT), the national agricultural research systems (NARS) of Kenya and Tanzania, and CIMMYT scientists from Ethiopia, Kenya and Zimbabwe met between 14-17 October in Arusha, Tanzania, to finalize activities to meet the objectives of the second phase of CIMMYT’s Sustainable Intensification of Maize-Legume Cropping Systems for Food Security in Eastern and Southern Africa (SIMLESA) project.

The joint meeting for the Kenya and Tanzania country teams was the third and last launch and planning meeting. It was also a follow-up of two previous operational meetings held in Lilongwe, Malawi, and Hawassa, Ethiopia.

Gender matters in farm power

Written by on October 28, 2014. Posted in News.

The goals of the Farm Power and Conservation Agriculture for Sustainable Intensification (FACASI) project are to address the issues of declining farm power in eastern and southern Africa, and to reduce the labor burden that comes with low farm mechanization, by promoting small-scale mechanization based on two-wheel tractors. Farm power is particularly scarce for female-headed households (FHHs), That have limited access to human labor and often don’t own (or are culturally forbidden to operate) draft animals. FHHs are often the last households to access land preparation services, which leads to lower yields. Even in households headed by men, women supply most of the farm labor and perform highly labor-intensive tasks, such as weeding, threshing, shelling or transport of inputs and agricultural commodities to and from the market by head-loading.

Front row, from left to right: Mulunesh Tsegaye, FACASI gender and agriculture specialist; Katrine Danielsen KIT; Elizabeth Mukewa consultant; Mahlet Mariam, consultant; and David Kahan CIMMYT, business model specialist. Back row, from left to right: Anouka van Eerdewijk KIT; Lone Badstue CIMMYT strategic leader, gender research and mainstreaming; and Frédéric Baudron, FACASI project leader. Photo: Steffen Schulz/CIMMYT

Although mechanization has the potential to close the gender gap in agriculture, past efforts based on large four-wheel tractors have generally led to inequitable access to mechanization, favoring wealthier farmers, and have often widened the gender gap. Similarly, although most of the labor burden in agriculture is placed on women, it is often men’s tasks that are mechanized. Will small-scale mechanization follow the same pattern? Or will the use of less expensive two-wheel tractors promote equitable access to mechanization and contribute to closing the gender gap? In addition, will the versatility of these small machines accelerate the mechanization of tasks done by women? Or is women’s current labor burden unlikely to translate into demand for mechanization, regardless of its form, because of socio-cultural norms affecting gender dynamics? Finally, if women’s tasks are mechanized, will this create opportunities for them, or alienate them in their household chores?

To answer parts of these questions, a CRP MAIZE competitive grant was awarded to the Royal Tropical Institute (KIT) at the beginning of 2014 to conduct a gender analysis of small-scale mechanization in the FACASI sites of Ethiopia (Hawassa and Assela) and Kenya (Bungoma and Laikipia). The research team included: Anouka Van Eerdewijk, KIT gender advisor, Katrine Danielsen, KIT senior advisor; gender and rights; Elizabeth Mukewa, consultant in charge of the field work in Kenya; and Mahlet Mariam, consultant in charge of the field work in Ethiopia. The team presented its finding to the FACASI project in Addis Ababa on 10 October.

The first conclusion of the study is that women’s labor burden itself is unlikely to translate into demand for mechanization, because women’s labor is poorly valued, women’s labor burden is often not recognized and women have little control over the financial resources of the household. However, mechanizing men’s tasks could indirectly reduce women’s labor burden. For example, mechanizing land preparation and seeding – generally a task handled by men – may reduce the need for weeding – a task generally done by women – because of early planting and good crop establishment. In addition, mechanizing men’s tasks would reduce the need for women to prepare and transport food to men working in the field. Substituting mechanization for animal draft power could also reduce the number of livestock owned by the household, and reduce the labor needed for livestock feeding and manure collection, tasks which are generally done by women. Substituting mechanization for animal draft power could also reduce the number of livestock owned by the household, and reduce the labor needed for livestock feeding and manure collection, tasks which are generally done by women.

A second conclusion is that there are large variations in contexts, household types, and even between women in similar household types. For example, pooled labor is used to reduce the labor burden in some locations (e.g., Assela), but not in others (e.g., Laikipia). In addition, women in male-headed households often don’t have control over resources for reducing their labor burden, whereas women in FHHs might have control, but are resource-constrained. In male-headed households where women do control part of the resources,women can choose options to reduce their labor burden and adopt mechanization. This is particularly true of women who own land and/or have a formal employment outside agriculture. These variations suggest that demand for, and the benefits of mechanization cannot be assumed, but need to be considered and monitored in context.

The findings of this study will be used to develop a set of gender sensitive indicators to monitor and evaluate FACASI. They will also guide a number of research activities in the project, including the testing of mechanization business models with women entrepreneurs, in which the adoption and benefits of mechanization can be further scrutinized for different household types and members.

Scale-appropriate mechanization: the intercontinental connection

Written by on October 26, 2014. Posted in Features.

CIMMYT aims to improve the livelihoods of poor farmers in the developing world by providing practical solutions for more efficient and sustainable farming. Among the options to improve efficiency, scale-appropriate and precise planting machinery is a crucial yet rarely satisfied need.

Mechanization efforts are ongoing across CIMMYT’s projects, with a strong focus on capacity building of functional small- and medium-scale engineering and manufacturing enterprises. Projects involved include ‘Farm Power and Conservation Agriculture for Sustainable Intensification’ in eastern and southern Africa, funded by the Australian Center for International AgriculturalResearch (ACIAR) and the Cereal Systems Initiative in South Asia (CSISA), funded by the Bill & Melinda Gates Foundation and USAID. CSISA collaborates closely with the machinery research and development work done on the farms of the Borlaug Institute for South Asia in India, CIMMYT conservation agriculture (CA) projects funded by the Australian Centre for International Agricultural Research, the Agri-Machinery Program based in Yinchuan, Ningxia, China, and the MasAgro Take It to the Farmer machinery and intelligent mechanization unit based in Mexico.

Applied research scientists and technicians assisting these projects work specifically to tackle problems in diverse farming conditions and for varying production systems. Despite their geographically diverse target areas, this team strives to reach a common focal point from which they can learn and compare technical advancements. These advancements are achieved through mutual machine technology testing programs, exchanging machines and expertise and evaluations of best solutions for scale-appropriate mechanization to boost sustainable intensification for resource poor farmers.

Recently, this collaboration model led to the export of several units of a toolbar-based, two-wheel tractor implement for bed shaping, direct seeding of different crops and precise fertilizer application. They will be tested by CIMMYT projects in Bangladesh, Ethiopia and Nepal. This multi-purpose, multi-crop equipment was developed to be CA-compatible and has been fine-tuned in Mexico, with design priorities that kept in mind the implement’s usefulness for smallholder farmers in other parts of the world. The machinery will be tested next in Zimbabwe and possibly India and Pakistan.

The team’s goal is to help developing countries and viable business models of local enterprises in specific regions to have access to good quality implements and tools at reasonable prices. This open-source prototyping strategy is based on the free sharing of technical designs and machinery construction plans. The strategy combines patent-free, lowcost replication blueprints of promising technologies with strong agronomical testing as the ultimate ‘make or break’ criterion. This crucial interaction sets CIMMYT’s engineering platforms apart from commercial options that determine research and development priorities based mainly on sales projections and marketing objectives.

The mechanization team strongly believes in the power of cross regional collaboration – a multidisciplinary work environment, connected intercontinentally with social stewardship and the potential to bring transformative changes to farmers’ fields across the developing world.

CIMMYT Ethiopia expands its agronomy work in wheat-based systems

Written by on October 25, 2014. Posted in News.

CIMMYT Ethiopia joined the Ethiopian Highlands project of Africa RISING ‘Africa Research in Sustainable Intensification for the Next Generation’ in June. Using a strong participatory research methodology, researchers and farmers co- identify technologies and management practices for the sustainable intensification of the crop livestock systems of the Ethiopian highlands.

Wheat and barley are the dominant cereals in these farming systems. CIMMYT brings its expertise to the project in four research areas: soil and water conservation (CA and raised bed systems); small-scale mechanization (seeding, threshing and water pumping using two-wheel tractors); participatory variety selection of wheat; and community seed multiplication.