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Wheat scientists urge funding boost after UK-U.S. food security report

Scientists and members of the international wheat community observe wheat trials in Obregon, Mexico, March 2015. (Photo: Julie Mollins/CIMMYT)
Scientists and members of the international wheat community observe wheat trials in Obregon, Mexico, March 2015. (Photo: Julie Mollins/CIMMYT)

EL BATAN, Mexico (CIMMYT) – Food shortages will escalate due to climate change-related production shocks and the international community must prepare to respond to price increases and social unrest, particularly in less developed countries, cautioned a joint British-U.S. taskforce in a new report.

Instead of occurring once every hundred years, severe food production shocks are likely to occur once every 30 years by 2040, a problem compounded by global warming and increasing population, said the Taskforce on Extreme Weather and Global Food System Resilience.

By 2050, the current global population of 7.3 billion is projected to grow 33 percent to 9.7 billion, according to the United Nations. Demand for food, driven by population, demographic changes and increasing global wealth will rise more than 60 percent, the report said.

“We agree with the premise of the report and the interventions recommended to improve the resilience of the global food system to the impact of climate shocks,” said Matthew Reynolds, a distinguished scientist at the International Maize and Wheat Improvement Center (CIMMYT).

“However, the report fails to address the urgent need for political will to make it happen,” Reynolds said. “It presents a paradox, given the relatively modest economic investments required to bolster long-term food security, compared to the costs not only of crisis management resulting from food shortages, but the incalculable cost of predicted food price-hikes to billions of people who already spend most of their income on food.”

For almost 50 years, CIMMYT and its sister CGIAR centers, which conduct research into agriculture and food security, have been building a vital infrastructure to reduce the risk of famine at a global level.

CIMMYT’s work on wheat was developed in the 1960s and 1970s, helping to avert widespread famine in Asia and other regions. The Mexico-based research center continues its mission to deliver international public goods in the form of improved maize and wheat varieties and cropping systems, focusing on resource poor consumers, particularly in climate vulnerable regions.

“We are slightly baffled,” Reynolds said. “The global food security system has been in a constant funding crisis since the end of the Cold War in 1991. Scientists are often overwhelmed by time-consuming, unrealistic demands to acquire funding, which limits time spent in the field conducting research. We’re hoping the report signals a renewed zeal for allocating funds destined specifically for agricultural research.”

FOOD SECURITY CONTRIBUTIONS

Scientific efforts at CGIAR have included producing heat and drought adapted cultivars of rice, wheat and maize, and disease and pest resistant crop cultivars for farmers who cannot afford protective, but costly, chemical applications.

Under the umbrella of the Borlaug Global Rust Initiative, scientists are working on a major project to avoid a global epidemic of swift-moving Ug99 stem rust wheat disease which, if left uncontrolled, could devastate productivity worldwide.

Under the CGIAR Research Program on Wheat, CIMMYT provided the groundwork for the recently launched $50 millionInternational Wheat Improvement Partnership (IWYP) initiative, which taps into the expertise of leading applied plant scientists worldwide to take wheat productivity to its maximum biological capacity within 25 years.

Similarly, more than 100 scientists representing 40 crop research institutes gathered at a recent meeting in Frankfurt, Germany, to develop a platform to translate decades of research in plant stress physiology and biotechnology into a new generation of wheat cultivars that will be productive under levels of heat and drought stress predicted by climate scientists.

The initiative, called the Heat and Drought Wheat Improvement Consortium (HeDWIC), involves applied plant scientists from all continents.

“HeDWIC scientists are eager to get started, they just need a ‘green light’ from funding agencies,” Reynolds said.

“Ultimately, food shortages could cause wide-spread disillusionment with current political and economic models and have other unpredictable consequences.”

The report, which was sponsored by Britain’s Global Food Security program and was jointly commissioned by the UK Science and Innovation Network and Foreign and Commonwealth Office, notes that agriculture faces a triple challenge.

“Increases in productivity, sustainability and resilience to climate change are required,” the report states, acknowledging that the effort “will require significant investment from the public and private sectors, as well as new cross-sector collaborations between scientists, agriculture, water and environmental specialists, technology providers, policymakers and civil engineers among others.”

Government of Zimbabwe and CIMMYT to establish maize lethal necrosis (MLN) quarantine facility at Mazowe

A modern quarantine facility to safely import maize breeding materials to southern Africa, and to enable local institutions to proactively breed for resistance against Maize Lethal Necrosis (MLN) disease, will be established this year at Mazowe, just outside Harare in Zimbabwe.

The announcement was made on 3 August 2015 at the signing ceremony of a Memorandum of Agreement (MoA) between CIMMYT and the Government of Zimbabwe. Ringson Chitsiko, the Permanent Secretary of Agriculture, Mechanization and Irrigation Development, signed on behalf of the Government of Zimbabwe while BM Prasanna, Director of MAIZE CRP and CIMMYT’s Global Maize Program, represented CIMMYT.

“MLN is a reality that cannot be ignored. We have to work together to control its spread. We need to focus on finding practical solutions to tackle this complex challenge, including strengthening MLN disease diagnostic and surveillance capacity, while we continue with intensive inter-institutional efforts to develop and deploy improved maize varieties that incorporate MLN resistance. The commercial seed sector must also play a key role by producing and delivering MLN-free healthy seed to farmers,” said Prasanna during the MoA signing ceremony.

The MLN Quarantine Facility, the first of its kind in southern Africa, will be set up by CIMMYT before the end of this year at the Plant Quarantine Institute in Mazowe, Mashonaland Central Province, one of Zimbabwe’s important research facilities run by the Department of Research and Specialist Services (DR&SS).

MLN was first detected in Kenya’s Rift Valley region in September 2011, and has since been reported in Tanzania, Uganda, Democratic Republic of Congo, Rwanda and Ethiopia. It is caused by a double infection of maize plants by two viruses: maize chlorotic mottle virus and sugarcane mosaic virus. There is an urgent need to prevent the deadly disease from moving further south.

Prior to signing of the MoA, Joseph Made, Zimbabwe’s Minister of Agriculture, discussed with Prasanna and CIMMYT-Southern Africa Regional Office (CIMMYT-SARO) senior staff how to strengthen maize research and development in Zimbabwe. “The Government of Zimbabwe is honored to be selected to host the new facility, which is important for stopping the spread and impact of MLN,” said Made.

After the signing ceremony, BM Prasanna, MAIZE CRP Director, shakes hands with Ringson Chitsiko, the Permanent Secretary of Zimbabwe’s Ministry of Agriculture. Looking on, is Mulugetta Mekuria, CIMMYT-SARO Regional Representative. Photo: Johnson Siamachira

To strengthen the phytosanitary work at the MLN Quarantine Facility, CIMMYT will also offer capacity building to DR&SS researchers through trainings, technical assistance, and advisory services, according to Prasanna. “This MLN Quarantine Facility, and the collaborative efforts between institutions of the Government of Zimbabwe, especially DR&SS and CIMMYT-SARO, are key in our efforts to prevent the possible spread of MLN in Africa,” said Prasanna.

Mulugetta Mekuria, CIMMYT-SARO Regional Representative said that the new collaboration to set up the MLN Quarantine facility in Zimbabwe would further enrich the long-standing and successful partnership between CIMMYT-SARO and DR&SS.

After the signing ceremony, officials from CIMMYT and DR&SS visited the site at the Plant Quarantine Institute at Mazowe where the MLN Quarantine Facility will be established, and discussed implementation arrangements, including steps for strengthening the national phytosanitary capacity.

SIMLESA-Mozambique learns more about conservation agriculture technologies in Brazil

Three agriculturalists from the Sustainable Intensification of Maize-Legume Cropping Systems for Food Security in Eastern and Southern Africa (SIMLESA)–Mozambique made a training visit to Brazil on 3-13 June 2015.

The objective of the visit was for the three researchers to acquire conservation agriculture (CA) skills, with a special focus on soil health and climate change. The training sessions were also expected to give participants the opportunity to share their knowledge and experience with their Brazilian counterparts at Brazilian Corporation of Agricultural Research (EMBRAPA) sites.

“By visiting and interacting with farmers, observing trials and having discussions with CA advisors, researchers, policy makers and agriculture industry representatives, we gained new knowledge of CA technologies,” said team leader Domingos Dias, SIMLESA-Mozambique National Coordinator.

During the 11-day visit, participants were presented with real-life CA challenges so they could solve them interactively. Having learned the required theory and facts through demonstrations, question-and-answer sessions and multimedia presentations, they are now expected to apply these technologies in their respective countries.

Smallholder farmers in Mozambique are affected by the poor farming methods they practice, such as late weeding and inefficient residue application, and the lack of farm mechanization. The participants learned to use and maintain agro-machinery, such as direct seeders and rippers, as well as when to plant forage crops such as Brachiaria, which produces much biomass and whose deep root system plays a critical role in improving soil properties.

“We learned very useful practices and will test some of them under our conditions. The training in Brazil presented alternative uses of residues and rotations based on soil properties suitable for Southern African countries,” said SIMLESA-Mozambique participant Custodio Jorge.

Both farmers and extension staff who participated in the first phase of SIMLESA (2010-2014) lacked basic skills and knowledge of CA farming systems. The second phase of the project (2014-2018) is focused on filling this gap through training.

 

SIMLESA-Mozambique National Coordinator Domingos Dias observes Brachiaria ssp., an African grass that is rotated and intercropped with soybean, maize and wheat under conservation agriculture at EMBRAPA, Passo Fundo, Rio Grande do Sul. Photo: Custodio Jorge

CIMMYT farm mechanization project attracts wide coverage by Ethiopian media

It is not often that conservation agriculture, the subject of numerous scholarly articles and dissertations, gets wide coverage from the mainstream media in Ethiopia.

It is thus remarkable that the media gave particular attention to a training event held last June at the ILRI-Ethiopia campus and organized by CIMMYT through the USAID-funded “Africa Research in Sustainable Intensification for the Next Generation” project (Africa RISING project, www.africa-rising.net). A focus of CIMMYT’s work in Ethiopia and other countries of East and Southern Africa is to improve smallholder farming practices by exploiting the synergies between small-scale mechanization and conservation agriculture.

Lead trainer Joseph M. Mutua shows service providers how to drive a two-wheel tractor. Photo: Frédéric Baudron/CIMMYT

Reporters representing two major daily English language newspapers in Addis Ababa attended and wrote extensively about the five-day training event that the project organized for service providers from different states in Ethiopia with the objective of promoting farm mechanization and sustainable productivity.

The Ethiopian Herald gave the most coverage through a lengthy article titled “Advancing farming systems improve food, nutrition and income security.” The article describes the advantages of increasing smallholder production through the adoption of modern agricultural practices and proven new technologies such as the two-wheel tractor, which can help increase the efficiency of seed and fertilizer use, reduce labor, time and post-harvest losses, and improve grain quality and farm income. The article also recommends that “all stakeholders should identify the challenges of promoting mechanization and deliver appropriate technologies to farmers.”

The Monitor gave the story a prominent place under the headline “Two-wheel tractors to improve agriculture in Ethiopian highlands.” The story in particular mentions the role of the project in light of a draft national strategy developed in 2014 by the Ethiopian Agricultural Transformation Agency with the aim of increasing farm power available to Ethiopian farmers by as much as 10-fold by 2025.

The article also reports the testimonies of participating service providers on the suitability and ease of using two-wheel tractor technologies, vis-à-vis traditional tools. One farmer noted, “Compared with using traditional tools like oxen power… this machine will help increase my income while also saving my time.”

At the end, the article quotes FACASI project coordinator Frédéric Baudron, who noted that the trainees are expected to share their knowledge of two-wheel tractor technologies with their local communities to achieve more impact and productivity in the future.

It is worth noting that CIMMYT employs a range of methodologies to accelerate delivery of two-wheel tractor-based technologies to smallholders in selected sites in SSA countries, including: on-station and on-farm participatory evaluation of two-wheel tractor technologies; business model development; market and policy analysis; and establishment of a permanent knowledge platform as well as a common monitoring and evaluation system that includes gender-disaggregated data.

From the eye in the sky to the cell phone in the field: technologies for all

Think of all the things you do with your cell phone on any given day. You can start your car, buy a coffee and even measure your heart rate. Cell phones are our alarm clocks and our cameras, our gyms and our banks. Cell phones are not just relevant for urban living but offer an opportunity to transform the lives of smallholders beyond compare. Even the most basic handset can empower farmers by providing them with instant information on weather, crop prices, and farming techniques.

For many farmers in the developing world, cell phones are the most accessible form of technology, but are only one of many technologies changing agriculture. Innovations such as the plow, irrigation and fertilizer have shaped the history of humankind. Today, technologies continue to play an essential role in agricultural production and impact the life of farmers everywhere.

Enter the era of hyper precision

Precision farming has been around for more than 30 years, but cheaper and more robust technologies are ushering in an era of hyper precision. With increasing climate uncertainties and price fluctuations, farmers can’t afford risk, and precision agriculture enables them to increase production and profits by linking biophysical determinants and variations in crop yield. A variety of farm equipment is being equipped with GPS and sensors that can measure water needs in the crop and nutrient levels in the soil, and dispense exactly the right amount of fertilizer and water as needed.

Precision agriculture may originate from large-scale, well-resourced farms, but its concept is highly transferable and it is scale independent. The pocket-sized active-crop canopy sensors, is already a game changing technology with the potential to bring precision agriculture within the reach of smallholders. Using such sensors to read crop health provides farmers with basic information that can be used for recommended nitrogen application. This has a dual purpose, both for smallholder farmers in areas where soils typically lack nitrogen, and those that over-fertilize while simultaneously reducing profitability and causing environmental pollution.

In Bangladesh, CIMMYT researchers are developing an irrigation scheduling app that predicts a week ahead of time whether a particular field requires irrigation. Based on satellite-derived estimates of crop water use, a soil water model and weather forecasts, the underlying algorithm for the app is also being tested in the north of Mexico.

The eyes in the sky

The human eye is a remote sensor, but on a farm there are many things that cannot be seen with the unaided eye, including surface temperatures and crop changes caused by extreme weather. At CIMMYT, remote sensing devices are allowing researchers to obtain information about a large area without physical contact that would otherwise be difficult to monitor. Indeed, last month I joined researchers at CIMMYT Headquarters in El Batan, Mexico, to learn more about the use of an Unmanned Aerial Vehicle (UAV) with built-in GPS and thermal and multispectral sensors that captures aerial photography to an image resolution of 3 cm. This device is being used to capture the canopy temperature and nitrogen status of crops.

Remote sensing alone is not going to teach a farmer how to properly sow a field, take the best care of his crops or optimize returns. Remote sensing explores spatial and temporal dimensions to provide a diagnosis but the next crucial step is to turn this into recommendations on nutrient management, irrigation and crop protection. The next question is how to bring these recommendations to small farms. In a low-tech setting, this depends on knowledge transfer to provide recommendations to farmers.

 

Learning about the use of UAV with CIMMYT scientists including (L-R) Francelino Rodrigues, Zia Ahmed, Martin Kropff, Lorena Gonzalez, Alex Park, Kai Sonder, Bruno Gérard and Juan Arista. (Photo: CIMMYT)
Learning about the use of UAV with CIMMYT scientists including (L-R) Francelino Rodrigues, Zia Ahmed, Martin Kropff, Lorena Gonzalez, Alex Park, Kai Sonder, Bruno Gérard and Juan Arista. (Photo: CIMMYT)

Zimbabwe and CIMMYT to establish maize lethal necrosis quarantine facility

A modern quarantine facility to safely import maize breeding materials to southern Africa, and to enable local institutions to proactively breed for resistance against Maize Lethal Necrosis (MLN) disease, will be established this year at Mazowe, just outside Harare in Zimbabwe.

After the signing ceremony, BM Prasanna, MAIZE CRP Director, shakes hands with Ringson Chitsiko, the Permanent Secretary of Zimbabwe’s Ministry of Agriculture. Looking on, is Mulugetta Mekuria, CIMMYT-SARO Regional Representative. Photo: Johnson Siamachira
After the signing ceremony, BM Prasanna, MAIZE CRP Director, shakes hands with Ringson Chitsiko, the Permanent Secretary of Zimbabwe’s Ministry of Agriculture. Looking on, is Mulugetta Mekuria, CIMMYT-SARO Regional Representative. Photo: Johnson Siamachira

After the signing ceremony, BM Prasanna, MAIZE CRP Director, shakes hands with Ringson Chitsiko, the Permanent Secretary of Zimbabwe’s Ministry of Agriculture. Looking on, is Mulugetta Mekuria, CIMMYT-SARO Regional Representative. Photo: Johnson Siamachira

The announcement was made on 3 August 2015 at the signing ceremony of a Memorandum of Agreement (MoA) between CIMMYT and the Government of Zimbabwe. Ringson Chitsiko, the Permanent Secretary of Agriculture, Mechanization and Irrigation Development, signed on behalf of the Government of Zimbabwe while BM Prasanna, Director of MAIZE CRP and CIMMYT’s Global Maize Program, represented CIMMYT.

“MLN is a reality that cannot be ignored. We have to work together to control its spread. We need to focus on finding practical solutions to tackle this complex challenge, including strengthening MLN disease diagnostic and surveillance capacity, while we continue with intensive inter-institutional efforts to develop and deploy improved maize varieties that incorporate MLN resistance. The commercial seed sector must also play a key role by producing and delivering MLN-free healthy seed to farmers,” said Prasanna during the MoA signing ceremony.

The MLN Quarantine Facility, the first of its kind in southern Africa, will be set up by CIMMYT before the end of this year at the Plant Quarantine Institute in Mazowe, Mashonaland Central Province, one of Zimbabwe’s important research facilities run by the Department of Research and Specialist Services (DR&SS).

MLN was first detected in Kenya’s Rift Valley region in September 2011, and has since been reported in Tanzania, Uganda, Democratic Republic of Congo, Rwanda and Ethiopia. It is caused by a double infection of maize plants by two viruses: maize chlorotic mottle virus and sugarcane mosaic virus. There is an urgent need to prevent the deadly disease from moving further south.

Prior to signing of the MoA, Joseph Made, Zimbabwe’s Minister of Agriculture, discussed with Prasanna and CIMMYT-Southern Africa Regional Office (CIMMYT-SARO) senior staff how to strengthen maize research and development in Zimbabwe. “The Government of Zimbabwe is honored to be selected to host the new facility, which is important for stopping the spread and impact of MLN,” said Made.

To strengthen the phytosanitary work at the MLN Quarantine Facility, CIMMYT will also offer capacity building to DR&SS researchers through trainings, technical assistance, and advisory services, according to Prasanna. “This MLN Quarantine Facility, and the collaborative efforts between institutions of the Government of Zimbabwe, especially DR&SS and CIMMYT-SARO, are key in our efforts to prevent the possible spread of MLN in Africa,” said Prasanna.

Mulugetta Mekuria, CIMMYT-SARO Regional Representative said that the new collaboration to set up the MLN Quarantine facility in Zimbabwe would further enrich the long-standing and successful partnership between CIMMYT-SARO and DR&SS.
After the signing ceremony, officials from CIMMYT and DR&SS visited the site at the Plant Quarantine Institute at Mazowe where the MLN Quarantine Facility will be established, and discussed implementation arrangements, including steps for strengthening the national phytosanitary capacity.

Government of Zimbabwe and CIMMYT to establish maize lethal necrosis quarantine facility at Mazowe

A modern quarantine facility to safely import maize breeding materials to southern Africa, and to enable local institutions to proactively breed for resistance against Maize Lethal Necrosis (MLN) disease, will be established this year at Mazowe, just outside Harare in Zimbabwe.

The announcement was made on 3 August 2015 at the signing ceremony of a Memorandum of Agreement (MoA) between CIMMYT and the Government of Zimbabwe. Ringson Chitsiko, the Permanent Secretary of Agriculture, Mechanization and Irrigation Development, signed on behalf of the Government of Zimbabwe while BM Prasanna, Director of MAIZE CRP and CIMMYT’s Global Maize Program, represented CIMMYT.

“MLN is a reality that cannot be ignored. We have to work together to control its spread. We need to focus on finding practical solutions to tackle this complex challenge, including strengthening MLN disease diagnostic and surveillance capacity, while we continue with intensive inter-institutional efforts to develop and deploy improved maize varieties that incorporate MLN resistance. The commercial seed sector must also play a key role by producing and delivering MLN-free healthy seed to farmers,” said Prasanna during the MoA signing ceremony.

The MLN Quarantine Facility, the first of its kind in southern Africa, will be set up by CIMMYT before the end of this year at the Plant Quarantine Institute in Mazowe, Mashonaland Central Province, one of Zimbabwe’s important research facilities run by the Department of Research and Specialist Services (DR&SS).

MLN was first detected in Kenya’s Rift Valley region in September 2011, and has since been reported in Tanzania, Uganda, Democratic Republic of Congo, Rwanda and Ethiopia. It is caused by a double infection of maize plants by two viruses: maize chlorotic mottle virus and sugarcane mosaic virus. There is an urgent need to prevent the deadly disease from moving further south.

Prior to signing of the MoA, Joseph Made, Zimbabwe’s Minister of Agriculture, discussed with Prasanna and CIMMYT-Southern Africa Regional Office (CIMMYT-SARO) senior staff how to strengthen maize research and development in Zimbabwe. “The Government of Zimbabwe is honored to be selected to host the new facility, which is important for stopping the spread and impact of MLN,” said Made.

After the signing ceremony, BM Prasanna, MAIZE CRP Director, shakes hands with Ringson Chitsiko, the Permanent Secretary of Zimbabwe’s Ministry of Agriculture. Looking on, is Mulugetta Mekuria, CIMMYT-SARO Regional Representative. Photo: Johnson Siamachira

To strengthen the phytosanitary work at the MLN Quarantine Facility, CIMMYT will also offer capacity building to DR&SS researchers through trainings, technical assistance, and advisory services, according to Prasanna. “This MLN Quarantine Facility, and the collaborative efforts between institutions of the Government of Zimbabwe, especially DR&SS and CIMMYT-SARO, are key in our efforts to prevent the possible spread of MLN in Africa,” said Prasanna.

Mulugetta Mekuria, CIMMYT-SARO Regional Representative said that the new collaboration to set up the MLN Quarantine facility in Zimbabwe would further enrich the long-standing and successful partnership between CIMMYT-SARO and DR&SS.

After the signing ceremony, officials from CIMMYT and DR&SS visited the site at the Plant Quarantine Institute at Mazowe where the MLN Quarantine Facility will be established, and discussed implementation arrangements, including steps for strengthening the national phytosanitary capacity.

Show and tell: when technology adoption becomes farmer-driven

What does the CASFESA project have to show for two-and-a-half years in Kenya?

Many poor smallholder farmers in Africa bear the brunt of infertile soils. Research offers a partial solution: Conservation Agriculture (CA) helps farmers improve soil productivity through sustainable intensification.

show-and-tellPicture2
Farmers evaluating maize stand on the conventional versus conservation agriculture plots during field days organized in Embu.

Participants of the project closing workshop held on March 5, 2015.
And some smallholders in Africa are already reaping CA benefits. For example, the Conservation Agriculture and Smallholder Farmers in Eastern and Southern Africa (CASFESA) Project worked with farmers and other partners in Kenya and Ethiopia since 2012. CASFESA’s aim was to buffer small-scale farmers by enhancing farm resilience through better natural resource management in maize based systems.

In Kenya, CASFESA ran for two-and-a-half years in Embu County. At a summative closing workshop held at Embu on 5 March 2015, farmers shared their CASFESA experience. For some of them, the project transformed their farming with remarkable benefits, due to their commitment, as well as the commitment of other key actors in CA dissemination such as the Kenya Agricultural and Livestock Research Organization.

In Kenya, CASFESA promoted three main technologies targeting maize farmers. The technologies are maize and legume intercropping, residue retention and zero tillage with permanent furrows and ridges. Thirty farmers in 15 randomly selected villages volunteered their farms for demonstrations showcasing the three technologies in tandem. Practical demonstrations were done during farmer field days in the selected villages to compare the performance of maize and beans using conservation agriculture and using normal practice. Intercropping is not new and is already very common in the area.

Moti Jaleta, CASFESA Project Coordinator, observed, “From a quick adoption monitoring survey, we noticed about 60 percent of the sample farmers have tried at least some of these techniques with keen interest to continue. The success of the CASFESA Project in Embu has been in getting these technologies to the farmers through practical demonstration, and linking them with farm input suppliers. With this, I believe we have accomplished our task in supporting the smallholders to improve their crop management.”

Participants of the project closing workshop held on March 5, 2015.
Participants of the project closing workshop held on March 5, 2015.

Farmers evaluating maize stand on the conventional versus conservation agriculture plots during field days organized in Embu.

Indeed, a good number of farmers in the villages started using zero tillage with permanent furrows and ridges covered with maize residue. But there was a hitch: initially, adopting the full suite of sustainable-intensification practices appeared unpopular. And why was this? Not because of the practices themselves but because most farmers use maize residue for animal feed. This made residue retention for mulching and enhancing soil fertility a big challenge. So how did the farmers themselves – independent of the researchers – get around these unfavorable trade-offs? Let’s hear it from them.

One farmer, Nancy Mbeere, who adopted CA, harvested an additional eight bags of maize from her small farm. And she did not keep her new know-how to herself: “I have trained my three neighbors on this new technique and they have already started using furrows and ridges and residue retention in their maize shamba [farms].”

Nancy and her neighbors found a solution on animal fodder. “We agreed to have one in every three rows remain in the field as residue and use the other two as feed,” explained Nancy.

For Bethwel Kathiomi, another CA farmer, when his farm had two very good seasons, other farmers approached him for tips on his new-found farming technique. “People kept stopping by my farm to ask questions, and I was happy to share this information with them.”

At the closure workshop, farmers attending committed to continue sharing their experiences and successes, and to support each other through small groups to learn, and access inputs like fertilizers, herbicides and improved seeds. This community commitment should lead to greater CA adoption, given the attention CA benefits are drawing going by the experience of Bethwel and Nancy. It would therefore appear that in this particular case, CA has successfully moved from researchers to farmers, who are now the ones propagating CA practices. Good news indeed for impact, reach and sustainability!

QPM maize expected to improve protein intake in Ethiopia

For community health extension workers (CHWs) in Ethiopia, as elsewhere, educating smallholder farmers on the importance of protein is a continuous task year in, year out. It’s not that farmers don’t know how important protein is. The big problem has been the availability of affordable protein that is within the reach of smallholder farmers. Now life is getting easier for CHWs in Ethiopia thanks to quality protein maize (QPM), a pioneering technology developed several decades ago by CIMMYT scientists. Read more here at CIMMYT’s Nutritious Maize for Ethiopia project page.

Climate change, maize production and food security in sub-Saharan Africa

Although climate change is a global phenomenon, its impacts vary depending on region and season. To formulate appropriate adaptation options and ensure timely responses, we first need to better understand the potential impacts of climate change on maize yield and production, on different spatial and temporal scales.

To help fill this gap in sub-Saharan Africa (SSA), a forthcoming article in the International Journal of Climate Change Strategies and Management titled “Maize systems under climate change in sub-Saharan Africa: Potential impacts on production and food security” (early edition available online) assesses the baseline impact of climate change in a business-as-usual scenario. The study indicates that maize production and food security in most parts of SSA are likely to be severely crippled by climate change, although the projected impacts will vary across countries and regions. Read more on CIMMYT’s website here.

Maize-based smallholder farming system in sub-Saharan Africa. Photo: Dagne Wegary/CIMMYT
Maize-based smallholder farming system in sub-Saharan Africa. Photo: Dagne Wegary/CIMMYT

CIMMYT-SARO steps up efforts in war against malnutrition

CIMMYT-Southern Africa Regional Office (CIMMYT-SARO) is stepping up efforts to combat malnutrition, especially among women and children, through agricultural research and the release of orange maize varieties.

Orange maize is nutritionally enhanced and provides higher levels of vitamin A than white maize. In addition, orange maize varieties are high-yielding, disease resistant and drought tolerant, which helps farmers face challenges posed by recurrent droughts and climate change.

CIMMYT-SARO maize breeder Thokozile Ndhlela (holding orange maize cob) explains to visiting delegates the importance of orange maize to nutrition. Photo: Johnson Siamachira/CIMMYT
CIMMYT-SARO maize breeder Thokozile Ndhlela (holding orange maize cob) explains to visiting delegates the importance of orange maize to nutrition. Photo: Johnson Siamachira/CIMMYT

“Orange maize rich in beta-carotene could bring positive benefits to maize-dependent communities, particularly women and children, by providing up to half of their daily vitamin A needs,” said Thokozile Ndhlela, CIMMYT-SARO maize breeder, who is working on the orange maize breeding project. According to Ndhlela, the project is conventionally breeding non-genetically modified orange maize to endow it with higher levels of beta-carotene. Beta-carotene is a naturally occurring plant pigment that the body converts into vitamin A.

Vitamin A deficiency is a serious health threat that is prevalent in Southern Africa (SA) and may lead to blindness, reduced disease immunity and other health problems. In Zambia, for example, it affects more than half of children under five years of age, according to a Feed the Future newsletter. Feed the Future is the US Government’s global hunger and food security initiative.

In neighboring Zimbabwe, one in every three children suffers from stunted growth (as much as 32%) or chronic malnutrition, which contributes to 12,000 deaths each year, according to the United Nations Children’s Fund (UNICEF). Malnutrition is most prevalent in Zimbabwe’s rural areas, which are home to over 75% of the country’s entire population (about 13 million).

While vitamin A is available from other food sources such as oranges, dark leafy vegetables and meat, these are not always available or are too expensive for the ordinary person in SA. As a result, most people eat a lot of white maize, which has no beta-carotene.

Orange maize can be eaten as a porridge-like staple food called nshima in Zambia and sadza in Zimbabwe. It can also be used to prepare other traditional foods made from maize.

CIMMYT is working with HarvestPlus, a CGIAR organization that breeds and disseminates micronutrient-rich staple food crops to reduce hidden hunger in malnourished populations. The orange maize project was initiated in Harare, Zimbabwe, in 2004, but later moved to Mexico. Since the subtropical environments in Mexico are similar to those in SA, the germplasm developed in Mexico has adapted well to SA environments.

Three hybrids (GV662A, GV664A, and GV665A) were extensively tested in Zambia and released by the Zambia Agricultural Research Institute in partnership with HarvestPlus. These hybrids have a yield potential of 9-11 tons per hectare. Hybrid GV665A will be released in Zimbabwe in October of this year. Three seed companies are marketing the released hybrids on an exclusive basis in Zambia and four other pre-release hybrids are being tested in national performance trials.

Since 2012, HarvestPlus has provided orange maize to more than 10,000 farming households in Zambia. It is working with the private sector to reach 100,000 farmers by the end of this year.

Zimbabwe’s Crop Breeding Institute has expressed an interest in sending two of these hybrids to the Seed Certifying Authority of Zimbabwe for quality testing during the 2015/2016 agricultural season. Malawi, another SA country, has also identified hybrids for release in 2016.

Tech-savvy women in Haryana implement precision fertilizer application

The state of Haryana, India’s breadbasket, faces a major challenge due to the excessive use of nitrogen fertilizer (N: P: K = 27.2: 9.8: 1) in agriculture. The overuse of nitrogen fertilizer in the rice-wheat systems of Haryana has led to high production costs, low efficiency, environmental pollution and nitrate contamination of groundwater, which causes blue baby syndrome in young children.

Another challenge to agriculture in Haryana is that traditional ways of farming are no longer attractive to educated youth, which means that fewer young people are opting to become farmers. However, new innovations and technological advancements are making agriculture much more attractive to young people, especially women, and creating awareness and building capacity about these advancements is critical to make women see the potential in agriculture.

CIMMYT, under the CGIAR Research Program on Climate Change, Agriculture and Food Security, organized a day-long field training session for young female farmers in the climate-smart village of Bastada, Haryana, on the GreenSeeker, a hand-held sensor that measures nitrogen, assesses crop vigor and calculates a Normalized Difference Vegetation Index representing crop health. Nearly 20 young women from farm families in Bastada participated.

Farmers often lack training to interpret raw data from devices like the GreenSeeker. To address this problem, CIMMYT, the Indian Council of Agricultural Research and the Government of Punjab launched a mobile calculator application in January 2015 that allows farmers to precisely calculate the nitrogen in their fields right on their mobile phone, ensuring accurate nitrogen fertilizer application, which in turn raises crop yields and profits.

Mamta, a young woman of 23 who participated in the training session, mentioned that farmers faced a serious problem due to a shortage of urea during the winter 2014-15 wheat season. This problem is easier to avoid now that her cell phone has a GreenSeeker application that allows her to calculate the precise amount of nitrogen in her rice and wheat fields. “The application is very helpful in saving nitrogen to the tune of one bag of urea per hectare,” said Mamta.

CIMMYT plans to hold similar training sessions for young women and men throughout the states of Haryana, Punjab and Bihar, which will no doubt make them more likely to opt to become farmers and will go a long way towards ensuring adequate fertilizer application by farmers.

Trainees learn to use the GreenSeeker application on their cell phones, which used to be simple devices that could only send or receive calls and text messages.
Trainees learn to use the GreenSeeker application on their cell phones, which used to be simple devices that could only send or receive calls and text messages.

14 years of CA research on display

In 2002, ACIAR and Gansu Agricultural University initiated a rainfed conservation agriculture research project in Dingxi County, Loess Plateau, Gansu Province. Li Lingling and her team have religiously maintained this site, gathering data and training postgraduates, while quantifying the long-term impacts of CA in a very arid environment. CIMMYT-China, in close collaboration with GAU, is developing the site into an innovation platform to demonstrate and promote sustainable farming approaches in the region, which was demonstrated through a farm walk during China Science Week.

The research station has housed and trained 100 students at a time, and is home to 10-15 postgraduates during peak sampling periods. Refurbished laboratories, a collection of field tools and Li Lingling’s 14 years of research results were displayed during the farm walk.

That increased crop water use efficiency can be achieved in this arid zone was a key message from the wheat/pea rotation system under CA, whereas zero tillage with straw removal was one of the worst performing soil treatments. The farm walk effectively demonstrated soil-water interactions under CA, no till, straw removal and continuous grazing, highlighting the benefits of CA and its effectiveness in addressing local and regional resource management issues.

Activities culminated with a postgraduate research walk where the main presenters were two Ph.D. students from Ghana who are working on greenhouse gas emissions, among other subjects.

Fostering public-private partnerships for decentralized wheat seed production in Pakistan

Seed quality management training participants visit wheat trials at Pakistan’s Agricultural Research Institute (ARI), Tandojam, Sindh. Photo: Tando Jam/ARI
Seed quality management training participants visit wheat trials at Pakistan’s Agricultural Research Institute (ARI), Tandojam, Sindh. Photo: Tando Jam/ARI

To strengthen functional linkages between private seed companies and public sector institutions in Pakistan, CIMMYT and its national partners jointly organized four training sessions, one each in Punjab and Sindh and two in Khyber Pakhtunkhaw during March and April, 2015. Participants included 45 staff members from 10 private seed companies from those provinces.

Although private seed companies have a major share of Pakistan’s wheat seed market, they rely almost completely on public sector wheat breeding institutes for pre-basic and basic seeds. However, the public sector has limited capacity for producing adequate amounts of pre-basic and basic seed to support the deployment of new wheat varieties. In addition, a recent study on the private wheat seed sector in Pakistan suggests that around two-thirds of seed companies do not obtain the amounts of pre-basic/basic seed they require from public seed corporations.

Currently, only a few private seed companies obtain pre-basic or basic seeds from wheat research institutes based on personal relationships, but functional and institutional linkages between public and private sector organizations have yet to be established. CIMMYT identified this gap and is now working towards bridging it by engaging important actors from both sectors. The first step was to convince the public sector to provide pre-basic and basic seeds to private seed companies, particularly small companies in rural areas. Several of the public sector wheat breeding institutes responded positively to this call. Another important step is to develop the capacity of private seed companies to produce quality basic and certified seed by building trust between them and public sector institutions.

Seed quality management training participants discuss the parameters of basic seed production with breeders and seed quality inspectors in Mureedke, Punjab, Pakistan. Photo: Tando Jam/ARI
Seed quality management training participants discuss the parameters of basic seed production
with breeders and seed quality inspectors in Mureedke, Punjab, Pakistan. Photo: Tando Jam/ARI

The training sessions had an innovative curriculum focusing on the technical aspects of producing high quality basic seed and enhancing marketing skills and networking to develop profitable, sustainable seed companies able to produce seed of new varieties. Experts from public sector research institutions addressed subjects such as rouging, isolation distances, crop and varietal mixtures, weed management, post-harvest technologies, quality control procedures, and conservation agriculture. They also showed how contract growers and seed companies can reduce their production costs and improve their profit margins.

Representatives of the Federal Seed Certification and Registration Department (FSC&RD) highlighted protocols for pre-basic/basic and certified seed production and multiplication. The training sessions enhanced participants’ understanding of various aspects of the seed business, such as business plan development, market assessment, product pricing and using proper marketing channels.

The expectation is that 14 private seed companies will produce around 1,000 tons of basic seed of 12 wheat varieties, enough to plant more than 8,000 ha of seed plots. This would enable the production of more than 24,000 tons of certified seed for the rural areas of the three provinces, thus paving the way for decentralized production and marketing of basic wheat seed in Pakistan.