Skip to main content

Zinc-rich wheat reaches communities in eastern India

India6In the continuous effort to increase awareness of wheat biofortification and its use to improve health and quality of life in eastern India, Banaras Hindu University (BHU), Mahamana Krishak Samiti farmers’ cooperative, CIMMYT, and HarvestPlus, with support from M/s Shyam Seed Company, organized a series of farmer-scientist interactions and field visits on 5, 15, 20, 24, and 28 February 2013 in about 20 villages in the Mirzapur and Chandouli districts, Uttar Pradesh. The series focused on training and advocacy among women groups, monitoring and data recording in participatory variety selection trials, monitoring of seed multiplication undertaken by M/s Shyam Seed Company, problem resolution by farmers, seed multiplication strategies, pre-release of mini-kit trials, and varietal release. Over 70 farmers interested in HarvestPlus experiments participated at each location. “They were optimistic about zinc-enriched wheat varieties and keen to know when these varieties would be available for cultivation,” said CIMMYT wheat breeder Arun Joshi.

Prior to each event, the BHU/HarvestPlus team (Balasubramaniam Arun, Ramesh Chand, and Vinod Kumar Mishra) introduced the project’s objectives and the importance of biofortified wheat varieties. Chandra Prakash Srivastava and Girish Chandra Mishra covered the role of zinc and iron for human health, while soil scientist Satish Kumar Singh focused on crop production and zinc level distribution in different soil types. Saket Kushwaha from BHU explained the importance of a well-planned economic strategy to maximize the gains from nutrient-rich wheat varieties.

Participants attended a hands-on training on HarvestPlus trials sowing to learn about experimental design with focus on plot area, number of lines, and amount of seed to be sown, and to observe soil samples collection demonstrations. They later discussed conventional and zero-till drill for experimental planting, their experience with biofortified varieties and quality seed production, balanced use of nitrogen, phosphorus, potassium, zinc, sulfur, and boron based on soil analysis, and the importance of maintaining the purity and quality of tested and multiplied seeds.

BHU scientists along with Chhavi Tiwari, HarvestPlus research associate, organized women scientist interaction sessions to educate women on the importance and role of micronutrient-enriched wheat in daily lives and its subsequent positive impact on the society. The participating women ranged from school-going girls to working women, women farmers, housewives, and elderly women, representing various educational, economic, and social levels of the region. During the meetings, participants received a Hindi write-up on the importance of biofortified wheat in India, and discussed issues such as nutritious food, consequences of iron and zinc deficiency, and the women’s desire to work with BHU biofortification projects. Rekha, a farmer from the Pidkhir village said, “I did not know one type of wheat can be different from the other because it contains zinc. I did not know this nutrient is so important, or that I would be able to grow this wheat in near future.” The participants were also taught to identify good genotypes and most of them agreed that the new wheat varieties would have a great social impact through improving people’s health.

Wolfgang Pfeiffer from HarvestPlus lauded the farmers and national research systems for promoting the nutrient rich varieties and thus for contributing to eradication of the malnutrition problem in South Asia and elsewhere. “I’d like to encourage more women to participate in the HarvestPlus program. We are approaching the seed delivery phase and their views will be particularly important,” he added.

Following the farmers program, Ravi Prakash Singh, distinguished scientist and head of CIMMYT’s Wheat Improvement Program, visited BHU on 7 March 2013. He reviewed the collaborative research and praised BHU for its work within HarvestPlus. “I hope that BHU will take the lead and will be the first center to release the first ever biofortified wheat in South Asia,” Singh encouraged BHU’s scientists.

3rd International Wheat Yield Consortium Workshop: Latest news in wheat research

DSCN0994Over 100 stakeholders, scientists, and students from 28 countries were welcomed in Obregon, Mexico, by John Snape, CIMMYT Board of Trustees member, as he opened the 3rd International Workshop of the Wheat Yield Consortium (WYC). The meeting sponsored by SAGARPA (through MasAgro) was held at the Campo Experimental Norman E. Borlaug (CENEB) near Ciudad Obregon, Sonora, Mexico, during 5-7 March 2013.

Following the welcoming speech, Vicky Jackson (BBSRC) updated stakeholders on the current status of the new Wheat Yield Network (WYN) that supercedes the WYC with a plan to expand the funding basis and research agenda. CIMMYT wheat physiologist Matthew Reynolds then provided an overview of the current wheat yield situation: “Although production has increased steadily, the price of wheat continues to increase at a considerably faster rate.” WYN is an international network of scientists working together to address these issues. As wheat productivity will be crucial for food security in the future, WYN aims to achieve a 50% increase in genetic yield potential of wheat within 20-25 years through (1) increasing crop biomass by improving photosynthetic capacity, (2) optimizing partitioning to maximize agronomic yield, and (3) incorporating improved yield potential traits into elite breeding lines adapted to wheat agro-ecosystems worldwide. “We are establishing a balanced research portfolio with a strong output oriented agenda to provide solutions for wheat farmers and consumers throughout the developing world,” said Reynolds.

DSCN0370The first day was dedicated to over 20 presentations covering all three major research areas. Chaired by Bill Davies (Lancaster University), the session on crop biomass improvement covered topics such as optimizing leaf and canopy photosynthesis and photosynthetic potential of spikes. Gemma Molero (CIMMYT) pointed out that while the importance of spike photosynthesis has been recognized for 50 years, no breeding programs has yet tried to systematically improve this trait. This session was followed by presentations on partitioning optimization chaired by Martin Parry (Rothamsted Research), and the day was concluded with updates on breeding for yield potential and research support platforms which was chaired by Bill Daniel Calderini (Universidad Austral de Chile).

The following day participants had the opportunity to visit the Mexican Phenotyping Platform (MEXPLAT) located at CENEB for a field day and presentations on wheat yield potential and wheat yield and stress adaptation. There they had the chance to see CIMMYT’s first blimp, which was launched during last year’s workshop, and observe the new airborne remote sensing platform AscTec Falcon 8 in action, as well as other tools used by CIMMYT PhD students and physiologists in their research. “For me all the presentations were interesting,” said Yosra Ellemsi, agronomist and CIMMYT conservation agriculture program trainee from Tunisia, showing that the workshop did not target only physiologists. “I was particularly interested in the presentation of Sean Thompson who used the ground penetrating radar as a phenotyping tool for roots. This tool is fascinating firstly because it allows for nondestructive ground penetration, and secondly because it could help breeders to phenotype and select optimal root biomass in breeding populations.” At the end of the program, Davies thanked Reynolds and his team for organizing the workshop and for their work to achieve the goals of WYC: “We believed in this when we first started talking about it and you have moved it forward. This workshop is a great opportunity to discuss the latest developments in the field as you always get to talk to very interesting scientists.

DSC00339

India’s Economic Survey and Budget 2013: What’s in store for agriculture?

In the latest Union Budget, which was presented by India’s finance minister P. Chidambaram to the Parliament on 28 February 2013, the Government of India re-emphasized its commitment to inclusive growth with special focus on human development and gender sensitivity, particularly in education, skill development, and health related programs, and on economically and ecologically sustainable development models.

According to the Economic Survey 2012-13, the average annual growth rate in agriculture and allied sectors was 3.6% during the 11th plan period (2007-12). While this is an improvement from 2.5% in the previous period, it is still below the expected growth of 4%, which is the minimum desired level and a prerequisite for an overall inclusive rural economy growth and development, and farm income enhancement. The agriculture sector needs urgent reforms to boost crop yields and private investment, motivate farmers, and feed the growing population. Therefore, a 22% budget increase has been announced for the Ministry of Agriculture; overall 4,943 million USD (Rs 27,049 crore) has been allocated to the Ministry of Agriculture and 624 million USD (Rs 3,415 crore) has been allocated for agricultural research. The agricultural credit target for 2013-14 is kept at 127.9 billion USD (Rs 7 lakh crore).

One of the targeted activities focuses on providing more affordable and accessible credit to small farmers to enable new technology adoption. Commercial banks have been included to cover short-term crop loans; farmers who have repaid their past loans in time will be entitled to receive another loan at a 4% interest rate. Other goals include matching equity grants to registered farmer producer organizations, credit guarantee funds for small farmers’ agribusiness corporations, and dedicated women banks.

To address the issues of supply-demand mismatch in oilseeds, high food inflation, declining water tables, climate change, meeting nutritional requirements, and achieving overall food security, the government announced establishment of two new institutions: Indian Institute of Agricultural Biotechnology in Ranchi, Jharkhand, and National Institute of Biotic Stress Management for Plant Protection in Raipur, Chhattisgarh. Furthermore, 91 million USD (Rs 500 crore) has been allocated to crop diversification programs in the next fiscal year to promote technological innovation and encourage farmers to grow crop alternatives. Other incentives in agriculture include introducing new crop varieties rich in micronutrients such as iron-rich bajra, protein-rich maize, and zinc-rich wheat, which is already among CIMMYT research areas. In addition, more budgetary support was announced to encourage the ongoing green revolution efforts in eastern Indian states.

For more information, contact Surabhi Mittal (s [dot] mittal [at] cgiar [dot] org).

Resource-conserving practices for smallholder farmers in Africa

“Today Embu farmers are reaping benefits associated with conservation agriculture, where SIMLESA started activities in 2010,” said Charles Wanjau, District Agricultural Officer, Embu East. “We hope that through CASFESA, the benefits that accrued from the SIMLESA project will spread to many more farmers in Embu and beyond for improved food security.”

Wanjau was referring to the project “Conservation Agriculture and Smallholder Farmers in Eastern and Southern Africa,” that begun in June 2012 in Ethiopia and January 2013 in Kenya, with EU-IFAD funding for a period of two and half years. The project will leverage institutional innovations and policies for sustainable intensification and food security in Ethiopia, Kenya, and Malawi, and demonstrate conservation agriculture as a sustainable and profitable farming practice in randomly selected villages. The effort is also meant to assess the effects of markets and institutions on adoption and impacts, through baseline and impact studies in both treatment and counterfactual (control) villages. In Kenya, activities are under way in 15 villages mainly in Embu-West and Embu-East Districts to establish researcher/farmer managed demonstration plots on the farms of two volunteer farmers per village. The demo plots are planted with farmer’s preferred maize and bean varieties using locally recommended seed rates and fertility inputs.

The first CASFESA stakeholder workshop in Kenya was held at Embu on 22 February 2013 and attended by 30 farmers hosting demo plots, 16 officers (mostly frontline extension agents) from the Ministry of Agriculture, and scientists from CIMMYT and the Kenyan Agricultural Research Institute (KARI). Other participants included the Kenyan Equity Bank, Kilimo Salama and Organic Africa representatives, providing farming credits insurance and inputs, respectively. The workshop included updates on project objectives and work plans, along with planning for the next year.

CIMMYT agronomist Fred Kanampiu presented on the fine points of conservation agriculture, followed by KARI-Embu agronomist, Alfred Micheni, who shared the KARI-SIMLESA experiences and take-aways for the CASFESA work plan. CIMMYT socioeconomist Moti Jaleta gave an in-depth talk on project objectives, meth odologies, selected sites, and plans for coming months.

Subsequent workshop discussions centered on demonstration planting details: between row and within row seed spacings, crop varieties to be sown, and land preparation. In-depth observations were drawn from farmers and the extension providers’ experiences. Also discussed were the Ministry of Agriculture recommendations, which encourage tillage, and when to inter-crop maize and beans. The varied labor roles of women and men came up in conversations, with the conclusion that women typically do the bulk of planting, weeding, and harvesting. There was an on-station demonstration of conservation agriculture practices— particularly ridge planting for maize—under the supervision of Kanampiu and Micheni. This was important because all (farmers and extension providers) needed to see a successful case before embarking on establishment of proposed demos based on furrows and tillage conservation tillage practice. The workshop ended with some notable positives, such as an agreement among stakeholders regarding planting procedures and periods, as well as great enthusiasm among farmers.

CASFESA-stakeholkders-planning-meeting_Embu_Kenya

Thomas Lumpkin and Marianne BĂ€nziger visit CIMMYT offices and projects in Bangladesh

35Thomas Lumpkin, CIMMYT director general, and Marianne BĂ€nziger, deputy director general for research and partnerships, visited CIMMYT-Bangladesh during 20-23 February 2013 to meet with CIMMYT-Bangladesh personnel, government officials, and representatives from key national agricultural research systems. They toured the fields of the Cereal Systems Initiative for South Asia in Bangladesh (CSISA-BD) and visited the Bangladesh Agricultural Research Institution (BARI) stations at Jamalpur and Gazipiur.

On 20 February, Lumpkin and BĂ€nziger accompanied the staff of CIMMYT-Bangladesh —cropping system agronomists T.P. Tiwari (country liaison officer), Mahesh Kumar Gathala, and Timothy Krupnik, and agricultural economist Frederick Ross— to a dinner meeting with Ministry of Agriculture (MoA) Secretary Monzur Hossain, MoA Additional Secretary M.A. Hamid, Bangladesh Agricultural Research Council (BARC) Executive Chairman Wais Kabir, BARI Director General Rafiqul I. Mondal, and government scientists. The dinner discussion covered the general state of agriculture in the country and the long-standing collaboration between the Government of Bangladesh (GoB) and CIMMYT, a partnership established in 1973 and formalized in 1982. Hossain and Kabir highlighted the importance of the collaboration and lauded CIMMYT for its continuous support in terms of enhancing BARI capacity to promote maize and wheat in Bangladesh as part of the quest to achieve food security in the country. “CIMMYT-Bangladesh has a very strong presence with a great, proactive team,” added Kabir. Lumpkin then briefed the distinguished guests on CIMMYT’s regional focus, including the latest developments regarding the Borlaug Institute for South Asia (BISA), and thanked the GoB for facilitating CIMMYT’s work in the country.

The following day, Dinabandhu Pandit, CIMMYT-CSISA cropping systems agronomist, organized a field tour to the Mymensingh Hub of the CSISA-BD project. Accompanied by farmers and staff of partner organizations (IRRI, BARI, Department of Agriculture and Extension, Bangladesh Agricultural University, CARE Bangladesh, and ASPADA), Pandit led the team across the Old Brahmaputra River to Char Jelkhana to observe on-going activities initiated in the 2011/12 winter season. The location used to be limited to black gram cultivation and grazing, but thanks to the successful demonstration of maize and wheat by CIMMYT-CSISA on this charland (charlands are islands formed by river sedimentation) and in neighboring villages, local farmers have expanded the area under maize and wheat cultivation by 743% (4.7 ha to 39.4 ha). They are planning to further expand these crops next year.

Upon their return to Dhaka, the team visited the BARI campus in the Gazipur District. Mondal welcomed the CIMMYT director general and deputy director general and explained BARI’s focus and reach before a tour of the station to observe wheat and maize breeding work coordinated by senior wheat breeder Naresh Chandra Barma and BARI Hybrid Maize Program leader Bhagya Rani Banik.

On the last day of the visit, a breakfast meeting was held with USAID representatives David Yanggen and Anar Khalilov. Lumpkin and BĂ€nziger acknowledged and thanked USAID for supporting CIMMYT-Bangladesh through the CSISA-BD project, and briefed USAID on CIMMYT’s focus in the region. They discussed the importance of diversification and sustainable production of maize in Bangladesh, as well as ways to enhance adoption of new technologies. Yanggen and Khalilov agreed that the forthcoming proposal from CIMMYT emphasizing agricultural mechanization and surface irrigation for southern Bangladesh is a very exciting initiative that USAID is keen to support. They appreciated CIMMYT’s work in Bangladesh and encouraged CIMMYT-CSISA to continue developing short, simple, and effective communication materials on successes in the field.

Following breakfast, Lumpkin and BĂ€nziger visited the office of CIMMYT-Bangladesh to meet the staff, discuss their thoughts and concerns, and thank everyone for their good work.21

CIMMYT-Bangladesh, February 2013: distinguished guests and donors

VIP-in-GangladeshAs farmers in southern Bangladesh –the country’s most impoverished region– face increasing costs of agricultural labor and negative effects of climate change, CIMMYT-Bangladesh partners with farmers and agricultural service providers throughout the region to turn these challenges into opportunities. This work to improve farmers’ livelihoods by developing affordable irrigation and efficient machinery has drawn attention from donors and distinguished guests, many of whom recently visited some of the region’s areas to see the changes brought by CIMMYT in action.

On 06 February 2013, Saharah Moon Chapotin (team leader for agricultural research at USAID) and Tony Cavalieri (Bill & Melinda Gates Foundation, BMGF) visited activities conducted under the Cereal Systems Initiative for South Asia in Bangladesh (CSISA-BD) funded by USAID’s Feed the Future initiative with support from the BMGF. CSISA-BD is a collaborative project of CIMMYT, the International Rice Research Institute (IRRI), and WorldFish aiming to sustainably increase productivity of cereal-based farming systems by developing innovative agricultural technologies –including small-scale agricultural machinery and conservation agriculture– and market linkages to raise household incomes. Accompanied by cropping system agronomists Timothy J. Krupnik and Samina Yasmin (CIMMYT-CSISA), Global Wheat Program associate director and wheat pathologist Etienne Duveillier (CIMMYT), regional agronomist Andrew McDonald (CIMMYT), and director of IRRI in Bangladesh Timothy Russell, the team visited the Patuakhali region of southern Bangladesh, where preliminary results of rainfed maize field trials managed by farmers showed both yield increase (1.5 t/ha) over conventional management practices and reduced production costs. Farmers have seized this opportunity and are increasingly growing maize to sell to tourists at premium prices in the nearby beach district. The guests also visited IRRI rice screening trials, WorldFish activities to introduce micronutrient dense fish species, and women’s producer groups involved in maize cultivation.

The following week, the US Ambassador to Bangladesh Dan Mozena and USAID Mission Director in Bangladesh Richard Green visited CSISA-BD activities in the Shatkira district. After a welcome from CIMMYT agronomists Krupnik and Md. Shahjahan, and IRRI and WorldFish delegates, they learned about CIMMYT’s efforts to test, refine, and extend labor-saving and cost-reducing conservation agriculture machinery to farmers through agricultural service networks, and through the study and promotion of two-wheel tractors to power fuel-efficient, surface water irrigation pumps (axial flow pumps, AFPs) used particularly for bed-planted maize fields. Ambassador Mozena commented, “I have seen a CIMMYT project funded by USAID and working with the Government of Bangladesh to help increase food security. Wonderful things are happening right here. I saw a beautiful maize field grown with new technology. If you don’t have this machinery and you are using only day labor, it is very hard to cultivate enough land. This machinery really works.”

Two days later, a European Union delegation visited the EU-funded Agriculture, Nutrition and Extension Project (ANEP) in Barisal, Bangladesh, one of the poorest regions subjected to tidal flooding and low annual crop productivity. ANEP is a partnership between CIMMYT, International Development Exchange (iDE), Save the Children, WorldFish, Community Development Center (CODEC), CEAPRED, and BES-Nepal. The EU delegation included Philippe Jacques (head of EU cooperation in Bangladesh), JoĂŁo Anselmo (attachĂ© to the EU delegation), Marion Michaud (ANEP-EU task force manager based in Nepal), and Roselyn Mullo (ECHO regional nutrition coordinator). ANEP focuses on increasing cropping intensity in Barisal to enable farmers to grow two economically viable crops per year. Krupnik and Yusuf Ali demonstrated how small-scale machinery used for strip tillage and bed planting can help farmers to plant dry season crops such as wheat, maize, and legumes, while reducing costs and saving irrigation water. “Within ANEP, CIMMYT partners with iDE to develop seasonal crop production business plans tailored to specific villages and farmers’ organizations. These production plans help farmers to make better decisions on how to assure timely harvesting, aggregation of grain, and delivery of maize to the market to obtain premium prices,” added Krupnik.

“Sky Walker” advances phenotyping in Southern Africa

Thermal-imageTo free phenotyping of the varietal development bottleneck label, many new tools have been developed to enable an easier plant growth and development characterization and field variability. Until recently, these tools’ potential has been limited by the scale on which they can be used, but this is changing: a new affordable field-based phenotyping platform combining cutting edge aeronautics technology and image analysis was developed through collaboration between researchers from the University of Barcelona, Spain; Crop Breeding Institute, Zimbabwe; Instituto Nacional de Innovación Agraria, Peru; AirElectronics; and Sustainable Agricultural Institute of the High Research Council, Spain. The project was funded by MAIZE CRP as part of Strategic Initiative 9 activities focusing on new tools and methods for national agricultural research systems and small and medium enterprises to increase genetic gains in maize breeding.

DSC_2733The new platform uses ‘Sky Walker,’ an unmanned aerial vehicle which can fly at over 600-meter with an average speed of 45 km/h. The vehicle has thermal and spectral cameras mounted under each wing, and its flight path and image capturing are controlled via a laptop using Google Earth images. Jill Cairns and Mainassara Zaman-Allah tested the platform at CIMMYT-Harare along with JosĂ© Luis Araus (University of Barcelona), AntĂłn FernĂĄndez (AirElectronics president), and Alberto Hornero (Sustainable Agricultural Institute of the High Research Council) to establish the optimal flight path (distance between plane passes and height) for plot level measurements. Field experiments were phenotyped for spectral reflectance and canopy temperature within minutes; these will be compared to results from the GreenSeeker.

The measurement speed of the new platform helps to overcome problems associated with changes in cloud cover and the sun position. It will be used by the Crop Breeding Institute to assist in developing new maize hybrids with heat stress and drought stress tolerance under elevated temperatures.

DSC_2607

Women driving changes in agriculture

Marianne BĂ€nziger is the Deputy Director General for Research and Partnerships for CIMMYT.

mbanziger_womensDayMarianne started her career with CIMMYT as a post-doctoral fellow in 1994 working in Maize Physiology to develop varieties tolerant to low soil fertility and drought. She was based at the CIMMYT office in Zimbabwe during 1996-2004, after which she was appointed Director of the Maize Program, based in Nairobi. In 2009 Marianne became the DDG-Research. In that capacity, she led the development of the CGIAR research programs for maize and wheat.

Why did you choose agriculture?

I chose agriculture because it’s a science that impacts people’s lives. It’s as simple as that. I was also attracted to that it builds up on a wide range of disciplines – biology, chemistry, math, socioeconomics.

Your maize breeding work in Eastern and Southern Africa had, and still has, an enormous impact. Do you think that as a woman you gave a specific gender perspective to your research?

I lived in Africa for almost 15 years and it was impossible to ignore the people — the families — who struggled to improve their livelihoods. I saw them every day. We interacted frequently with both men and women farmers. In the environments we worked, the concern of the women farmers was more on avenues that improved household food security while the men were more concerned about selling their crops and generating income. Of course, families need both: Enough food to eat and income to pay for education fees, health costs, and things like farm inputs.

Another very obvious learning was that Africa has many strong women who drive change across the continent. You find them among farmers, among professionals, and among researchers alike.

Did you work differently as a woman breeder?

There have been books written about differences in men and women “behavior” or “traits” – In my opinion, these are stereotypes and they often break down. Every person puts their imprint, their personality, on their work, for better or worse, whether with “male” and “female” stereo-typed traits.

Did you have rural women in mind when you were developing different varieties of maize?

Interacting with farmers in Africa, I tried to understand how they make decisions and how those decisions link with and meet up with real options in the value chain. For instance, there was a stronger preference for hybrids by male farmers while female farmers preferred OPVs (open-pollinated varieties, which allow farmers to save seeds). We created an integrated breeding program that offered both OPVs and hybrids. The first generation of successful products was OPVs, “women typed” products. However, the reason for them to become available early on had to do with the seed sector ability to scale them up more rapidly as compared drought tolerant hybrids, not whether they were “female” or “male” preferred. The lesson learned is that researchers can craft gender differentiated options, we however need to understand the value chain to ensure that those options indeed become available and accessible at farm level.

Why did women prefer OPVs?

It gave them a greater sense of security about their ability to feed their families. Because they could save seed from year-to-year they felt more in control of their lives. Men preferred hybrids because they had a higher yield which meant more money in the market.

Unfortunately, preferences too often get treated as an either/or issue. We involved schools in rural areas in executing on-farm trials. I remember one particular instance talking to the headmaster of a school located in a drought prone area. I learned that classes had only one schoolbook which they had to share and pass around more than 50 children. Except for two old benches everybody was sitting on the floor. I asked him if the children – under these circumstances – were able to get a quality education and go to secondary school later on. He said the greatest concern wasn’t the lack of benches or books but that the children came to school and fell asleep because they were hungry. They were hungry because they only got one meal a day.

That school was in a drought-prone area and it made me once again realize how real and prominent food insecurity was. So, if you are a mother in such an environment, clearly the first thing you are concerned about is feeding your family and have a sense of control that you can achieve that. Setting food security as a priority does not mean that the woman would not want to grow hybrids as her family becomes more food secure. She also wants income for books and school fees. She would like to see her children learning a profession and likely leave agriculture. We must understand that poverty and hunger are intertwined and do our best to address both.

What do you think are the priorities to empower rural women in regions where we work?

Last week, I was in India at a meeting with farmers – both men and women – and one of the women stood up and said, “We want to have the same access to information and opportunities as men have.”

In the past, women have been deprived of information, of access to credit, and of the same opportunities offered to men. Fortunately many organizations including governmental organization begin to put more proactive gender strategies in place. We can and must ensure that more women get access to empowering information and opportunities. In our case, we are right now engaging in a gender audit of our projects, looking for new avenues to empower women. This is not just about analyzing how women or men think, but asking ourselves how we can empower women through our interventions. We however also have to accept that certain, indeed many, interventions have benefits to men and women alike. So doing a gender audit isn’t about being able to tick off the box and say ‘we addressed the gender aspects of this project’. It is about enriching our understanding how interventions, people, society, value chains, opportunities connect and then choosing more effective interventions that improve the livelihoods of the poor.

What advice would you give to young women scientists?

Pursue your dreams and be what you would like to be. I’d offer that advice to everyone, independent of whether they are a woman or a man, tall or short, or one nationality or the other.

My research engages gender in multiple ways

IMG_1965Emma Gaalaas Mullaney is a researcher studying gender and agriculture. She has served as a Youth Representative to the United Nations Convention on Biological Diversity and Commission on the Status of Women since 2010.

What is your field of research?

I am currently pursuing a dual-PhD in Geography and Women’s Studies at Pennsylvania State University. My dissertation centers on an ethnography of maize production in the eastern Central Highland region of Mexico. I lived in the region for over a year, conducting livelihood studies and oral histories with small-scale, commercially-oriented maize farmers in the Amecameca Valley, and with agricultural extension technicians and scientific researchers working in the nearby Texcoco Valley.

How does gender figure into your research?

My research engages gender in multiple ways. For example, I work closely with farming households and analyze the gendered divisions of labor and decision-making involved in agricultural production. I conducted the oral histories and participatory observation with both female and male members of a given family who are involved in different aspect of maize cultivation, use, and marketing. I also work with both female and male agricultural extension agents and scientists, examining commonalities and differences in their work experiences and practices. I am interested in how gender interacts with other forms of social difference to shape our work and our everyday lives.

What drew you to this work?

I was raised in the rural Midwest (United States), and my extended family has grown corn and soybeans in south-central Wisconsin for generations. The lived experiences of those who work in agriculture has always been a deep interest of mine. I have found that paying close attention to what’s going on with food producers – or with farmers who no longer produce food for human consumption, as is the case for corn growers in the United States – can yield important insight into the strengths and failings of our society. Over the years, as my interests in agriculture and social justice have taken me through many different spaces of formal education, policy negotiation, and scholarly debate, I often gain the most inspiration and understanding while hanging out in fields, in kitchens, and in street markets. Ultimately, my work as a researcher is guided by and accountable to what’s happening on the farm.

When you were gathering the oral histories did certain themes or consistencies emerge?

The oral histories offer rich detail into the livelihoods of different actors and the challenges they face in their daily work routines. As these narratives make abundantly clear, each of the farmers, extension agents, and researchers with whom I spoke is an expert in her or his field. Moreover, they all expressed a high degree of ingenuity and innovation in their work, though this creativity was not necessarily rewarded by their respective institutions. The oral histories also highlighted the gendered divisions of labor among these agricultural workers. Though both women and men worked in leading positions – whether as farmers and maize vendors, as directors of extension teams, or as heads of research departments – the women consistently faced greater risks and uncertainties in their job. In every case I encountered, women took primary responsibility for the household management and decision-making that fell outside of their official job (childcare, bills, etc), putting them in a more highly pressured and less predictable position than their male counterparts. Women were also more likely to find their innovative ideas and contributions dismissed by colleagues on a regular basis, and many described feeling consistently like an outsider in their own work environment.

When you were gathering the oral histories what surprised you?

I did not expect to find such dramatic differences in the level of authority and control that women had over their own work among farming households as compared to women working as extension agents or scientific researchers. Though strict gender roles are perhaps more obvious in the rural farming communities of the Amecameca Valley – where men take charge of the planting, harvesting, and other fieldwork and women handle much of the food preparation, seed selection, and selling of maize in regional street markets – women in these communities are the undisputed experts in the work that they do, which grants them a great deal of space for creative problem solving and risk management on behalf of their family and the local maize economy. In contrast, women working as agricultural technicians, engineers, and researchers are in an environment where gender equality is an explicit priority, but where the standard worker in their position is, and has historically been, male. These women described finding themselves competing for recognition in a setting that often undervalues their individual insights and capabilities.

Do you think there are misconceptions about the research you’ve chosen to pursue?

Well, judging by a common response to my academic affiliation, many people mistakenly assume that, since I come from a Women’s Studies Department, I must begin my research by looking around for women. In fact, I begin my research by asking how particular agricultural systems work, and who is empowered or excluded by these systems. Gender is a force that shapes the agricultural practices and opportunities of both women and men around the world, and it is therefore necessary that I am well trained in gender analysis in order to ask the questions that I do. Gender, interacting with other forms of social difference, dictates who does what kind of work, whether that work is recognized or valued, who has access to resources such as land and credit, and who is allowed to speak with authority on a given subject. Understanding how gender functions is therefore essential to understanding how agriculture is happening and how to improve it. This is true even, perhaps especially, when I walk onto a cornfield, or into an office or lab and encounter only men.

Generally speaking, what are the conclusions your research revealed?

Given that I am still in the process of analyzing data from my dissertation research, I have not yet finished drawing conclusions about maize production in the eastern Central Highlands and its implications for development and biodiversity conservation. At the same time, there are clear themes that have emerged over the course of my fieldwork and which resonate with existing interdisciplinary research. By far the most prominent are the interdependence of innovation and diversity, and their combined importance in agricultural production. Diversity, in terms of maize germplasm, cultivation strategies, and economic systems, is both a resource for and product of innovation in agricultural production, and is a primary source of resilience for small-scale farming households in the Amecameca Valley. A diverse set of perspectives, specialties, and lived experiences is also an obvious source of creativity and innovation among agricultural extension agents and scientific researchers. My research highlights that the strongest and most productive work environments are those that foster these forms of diversification.

What did you discover about gender and agriculture in Mexico?

The most important lessons that I learned about gender and agriculture, after over a year of fieldwork in Mexico’s Central Highlands, are for the most part not new discoveries at all. Decades and decades of extensive research has shown that gender is not merely one social factor among many, one that may or may not be relevant in a given situation. Rather, gender is a dominant social institution that is guaranteed to play a role in shaping agricultural outcomes, even though this process takes many different forms in different places. That Mexico, along with countries around the world, including the United States, currently has such a high degree of gender inequality has devastating consequences for those whose work is ignored or undervalued, and for agricultural production as a whole. Perhaps the new lesson offered by my research is that these very old patterns of inequality still persist today.

What types of changes (policy, research, etc.) do you think would help women and families in Mexico?

There must be public accountability for gender inequality and violence. The different types of gender injustice occurring in Mexico today are not equivalent, but invisible women farmers, gender discrimination in the workplace, and femicide are all products of a society that systematically devalues women’s work and their lives. This is not a problem that is caused by individuals acting alone, nor is it one that can be solved at the individual level; public policy must be held responsible for the fact that gender inequality continues to increase in the face of economic restructuring and global climate change. One important starting point, that is also an important part of any ongoing solution, would be for researchers and policymakers alike to listen carefully to the many women who are already struggling for change.

Finally, I’d like to express my heartfelt thanks to everyone who has worked with me in my research. I am indebted to all the farmers, extension agents, and researchers who graciously allowed me to interview them and to poke my nose into their lives. They do such important, inspiring work, and I look forward to building on these relationships in future research.

 

Women entering the workforce raises wheat consumption

MasonNicole Mason is an assistant professor of International Development at the Department of Agricultural, Food, and Resource Economics at Michigan State University.

Currently on long-term assignment with the Indaba Agricultural Policy Research Institute in Lusaka, Zambia, Mason completed her PhD in Agricultural Economics at MSU in August 2011. Her research focuses on various dimensions of agricultural input and output subsidy programs in Africa, including political economy aspects as well as program effects on smallholder farmer behavior, poverty, inequality, and maize market prices. Prior to joining MSU, Mason served as a Peace Corps volunteer in Guinea and worked with the Partnership to Cut Hunger & Poverty in Africa. Mason was an invited speaker at the conference “Wheat for food security in Africa: Science and policy dialogue about the future of wheat in Africa,” held in Addis Ababa, Ethiopia, during October 2012, and organized by the Ethiopian Institute of Agricultural Research (EIAR), CIMMYT, ICARDA, IFPRI, the African Union, and WHEAT-the CGIAR research program.

What drew you to international development research and outreach?

During my undergraduate studies at Allegheny College, I took a class entitled “Understanding Environmental Problems in Africa,” taught by the applied economist and returned Peace Corps volunteer Dr. Terrence Bensel. He piqued my interest in Africa and the Peace Corps, and I decided to join the Peace Corps after college. I had the privilege of serving as a volunteer in the rural community of Dalein in the Fouta Djallon region of Guinea in West Africa. I worked with smallholder farmers and women’s gardening cooperatives and saw firsthand the critical role that agriculture plays in the livelihoods of so many rural Africans. These experiences inspired me to pursue a career in international agricultural development research, capacity building, and outreach.

What drew you to work on the trends and drivers of wheat consumption in sub-Saharan Africa?

In the summer of 2007, I worked with colleagues from the Food Security Research Project and the Zambia Central Statistical Office to implement an Urban Consumption Survey in four cities in Zambia (Lusaka, Kitwe, Mansa, and Kasama). We interviewed over 2,000 households and asked them about all of the food and non-food items they had consumed in the preceding 30 days. We also visited many food retail outlets in the four cities, including supermarkets, bakeries, small grocers, and roadside and mobile vendors. I was struck by how popular bread and other wheat products were among respondents of all income groups. It was also interesting to see the long queues for bread in the supermarkets and the vendors selling bread at a slight markup right outside the supermarket to people who wanted to avoid the long lines inside. I learned that similar things were happening in other African cities and towns, and decided to work with MSU agricultural economist Thomas S. Jayne and CIMMYT socioeconomist Bekele Shiferaw to delve into the factors driving rising wheat consumption in Africa.

What did you discover?

I expected urbanization to be a key factor driving rising wheat consumption in Africa but surprisingly, our results suggest that after controlling for other factors like GDP, total population, and the prices of bread and products that are complements or substitutes for bread, changes in the percentage of the total population that resides in urban areas don’t have a significant effect on country-level wheat consumption. This was surprising because in most countries in Africa (Ethiopia is an exception), wheat consumption is much higher in urban than in rural areas. We’re still investigating this finding to unpack what is going on. One possibility is that it’s not urbanization per se that drives wheat consumption but rather the demographic and socioeconomic changes that go along with it. These are things like rising incomes and increased labor force participation by women.

What did you observe about gender and wheat consumption in Africa?

A key finding of our study related to gender is that rising labor force participation by women—especially if it rises faster than labor force participation by men—has a significant, positive effect on country-level wheat consumption. We suspect that this is because wheat products (bread, pasta, chapati, etc.) take less time to prepare than many other popular staple carbohydrates like maize meal porridge (called nshima in Zambia and consumed widely in eastern and southern Africa). When women work more outside of the home, they have less time to devote to food preparation and may prefer quicker options like these wheat products.

What types of changes (policy, research, etc.) do you think would help women and families in sub-Saharan Africa?

This is really broad. But in general, I believe women provide most of the labor for agricultural production in Africa but often don’t have much control over the revenue from the sales of products they helped to produce. Women also tend to have less access to productive assets and technologies that could help raise agricultural productivity. Empowering women—for example, through formal education as well as adult education on improved farming practices and business/management skills, improving their access to credit, etc.—is critical not only for improving the well-being of women but also that of their children, families, and communities.

To see the full study on rising wheat consumption in sub-Saharan Africa by Mason, Jayne, and Shiferaw,  please visit http://fsg.afre.msu.edu/papers/idwp127.pdf

 

Published 2013

Maize lethal necrosis: Scientists and key stakeholders discuss strategies as the battle continues

29A recently-emerged disease in Eastern Africa, maize lethal necrosis (MLN), remains a serious concern. A regional workshop on the disease and its management strategies was held during 12-14 February 2013 in Nairobi, Kenya. Organized by CIMMYT and the Kenya Agricultural Research Institute (KARI), the workshop brought together nearly 70 scientists, seed company breeders and managers, and representatives of ministries of agriculture and regulatory authorities in Kenya, Uganda, and Tanzania, as well as experts from the U.S.A.

The key objective of the meeting was to “establish a strong interface between research and regulatory institutions in Eastern Africa to effectively tackle the MLN challenge, including the ongoing efforts and further steps to identify and deploy disease-resistant germplasm, and to create a system that can ensure a constant flow of varieties,” explained B.M. Prasanna, CIMMYT Global Maize Program director. Prasanna highlighted the difficulties faced by the maize farming community from the disease, and emphasized the need to accelerate deployment of MLN resistant maize varieties and to generate necessary awareness among the relevant stakeholders on management strategies. “It is necessary to break the MLN disease cycle and tackle the problem from multiple perspectives,” added KARI director Ephraim Mukisira. He mentioned that besides partnering with CIMMYT on breeding for MLN resistant varieties, KARI will also be distributing seed of alternative crops to farmers in affected areas. “As a dairy farmer, I will be planting napier grass instead of maize this season,” noted Mukisira.

The first signs of a new disease appeared in 2011 and 2012 in the Rift Valley Province, Kenya. A team of CIMMYT and KARI scientists identified it as MLN, a disease caused by a double infection of the maize chlorotic mottle virus (MCMV) and the sugarcane mosaic virus (SCMV) and transmitted by insects. According to Godfrey Asea, plant breeder and head of the Cereals Program at the National Crops Resources Research Institute (NaCRRI), Kampala, MLN was also identified in Uganda. Furthermore, symptoms of MLN have been cited in Tanzania, said Kheri Kitenge, maize breeder at the Selian Agricultural Research Institute (SARI), Arusha.

Scientists, particularly breeders, have made significant progress in tackling the disease. Studies are already underway at two field sites (Naivasha and Narok) where responses of a wide array of inbred lines and pre-commercial hybrids are being evaluated under high natural disease pressure and artificial inoculation. Participants visited the Sunripe Farm in Naivasha, where they observed KARI-CIMMYT MLN trials under natural disease pressure. A trial under artificial inoculation in Naivasha featuring nearly 175 commercial maize varieties is showing high levels of susceptibility to MLN. Researchers remain hopeful as some of the elite inbred lines and pre-commercial hybrids developed under projects such as the Drought Tolerant Maize for Africa (DTMA) or Water Efficient Maize for Africa (WEMA) are showing resistance to the disease.

During the farm visit, KARI pathologist Anne Wangai and her team showed how to generate artificial inoculum for MCMV and SCMV, as well as the enzyme-linked immunosorbant assay (ELISA) based technique for pathogen diagnosis at the national agricultural research laboratories at the KARI campus. The participants observed an artificial inoculation of maize seedlings in the field, followed by a discussion on some of the major changes in maize seed demand resulting from MLN incidence. “The maize seed industry is under stress in Kenya due to the need to replace some popular but MLN-vulnerable varieties as soon as possible,” explained Evans Sikinyi, Seed Trade Association of Kenya (STAK) executive officer. All stakeholders agreed that the foremost priority is to identify and speed deployment of MLN resistant maize varieties. “We also have to enhance the diagnostic capacity in the labs and ensure there is a rapid response and surveillance on MLN,” added Esther Kimani, general manager of phytosanitary services at the Kenya Plant Health Inspectorate Service (KEPHIS).

In the concluding session of the workshop, stakeholders identified key research areas and discussed partnership opportunities.

Droughts in major wheat areas can fuel revolutions

Drougth-in-mayor-wheat-areaA February 2013 report from the Center for Climate & Security entitled “The Arab Spring and Climate Change” identifies climate change consequences—among them global and local wheat shortages and price hikes—as stressors that can ignite underlying causes of social conflict. In the opening chapter of the report, Oxford University Geographer Troy Sternberg notes how “
once-in-a-century winter drought in China reduced global wheat supply and contributed to global wheat shortages and skyrocketing bread prices in Egypt, the world’s largest wheat importer.” New York Times OpEd writer Tom Friedman wrote about the Center for Climate & Security study (see The Scary Hidden Stressor.)

Un informe publicado en febrero de este año por el Centro de Clima & Seguridad, bajo el tĂ­tulo “La primavera ĂĄrabe y el cambio climĂĄtico“, revela que los efectos del cambio climĂĄtico —como la escasez de trigo, local y mundial, y el alza de los precios— pudieran ser los factores detonantes de los conflictos sociales. En el primer capĂ­tulo, el geĂłgrafo Troy Sternberg de la Universidad de Oxford, narra cĂłmo “
la sequĂ­a que asolĂł China en invierno, de una magnitud que no se habĂ­a registrado en los Ășltimos 100 años, redujo el suministro global de trigo y contribuyĂł a la escasez y al alza desproporcionada de los precios del trigo en Egipto, el mayor importador de este producto en el mundo.” El reactor del New York Times Tom Friedman escribiĂł acerca del estudio del Centro del Clima y la Seguridad (ver  The Scary Hidden Stressor.)

Getting insights from high above: new remote sensing platform in ObregĂłn

False-color image of the CIMMYT-Obregon station captured from the multispectral camera at 1-meter resolution on 15 February 2013. Plots with dense vegetation are shown in red, the north-south road on the left is N. E. Borlaug, the east-west road in the middle of the image divides the 710 and 810 blocks.
False-color image of the CIMMYT-Obregon station captured from the multispectral camera at 1-meter resolution on 15 February 2013. Plots with dense vegetation are shown in red, the north-south road on the left is N. E. Borlaug, the east-west road in the middle of the image divides the 710 and 810 blocks.

With funding from MAIZE and WHEAT CRPs, the Global Conservation Agriculture Program acquired a new remote sensing system consisting of a multispectral and a thermal camera, software, and methods allowing for semi-automated image processing. The two cameras were delivered in February by Pablo J. Zarco- Tejada, director of QuantaLab remote sensing laboratory, Instituto de Agricultura Sostenible (IAS), Consejo Superior de Investigaciones Científicas (CSIC), Córdoba, Spain. Zarco-Tejada along with three technicians spent several days at CIMMYT-Obregón to train a pilot and CIMMYT staff on the equipment use.

The thermal camera helps to measure a water stress indicator: plant canopy temperature. Plants under water stress close their stomata to reduce transpiration, which increases crop canopy temperature as a result of reduction in evaporative cooling. Consequently, temperature differences between well-watered and water-stressed plants can be used to detect water stress accurately and at early stages. This will be used by MasAgro to measure the impact of tillage on crop water use efficiency, but it will also enable CIMMYT to develop a diagnostic tool based on the Crop Water Stress Index to help farmers determine the right time to irrigate wheat in the Yaqui Valley, Mexico. Once validated, the Crop Water Stress Index may also serve to identify the best time to irrigate plots at the research station.

Thermal image of the CIMMYT-Obregon station acquired from the thermal camera at a 2-meter resolution on 14 February 2013. Well-watered (cooler) plots are shown in blue, water-stressed (warmer) plots in green and red. Roads and bare soil areas have an even higher temperature and are shown in yellow.
Thermal image of the CIMMYT-Obregon station acquired from the thermal camera at a 2-meter resolution on 14 February 2013. Well-watered (cooler) plots are shown in blue, water-stressed (warmer) plots in green and red. Roads and bare soil areas have an even higher temperature and are shown in yellow.

The multispectral camera measures the light reflected in green, red, and near-infrared ranges. While a dense plant canopy can absorb more than 95% of the light in the visible range (violet to red), it reflects most of the light in the near-infrared range. Information on the light reflectance in the visible and near-infrared ranges helps to estimate ground cover and leaf area index, parameters usually correlated with biomass and yield. With two spectral channels in the red-edge region (in between the red and near-infrared ranges), the camera also allows to estimate the canopy chlorophyll content or greenness. Chlorophyll content is closely related to the nitrogen status of the crop, but it can be used to detect other nutrient deficiencies as well. Furthermore, the potential of using the multispectral camera in an airplane as a ‘flying GreenSeeker’ could enable researchers to diagnose nitrogen needs to optimize yield for around 1,000 hectares in about 1 hour, at a resolution of about 4 meters.

Within a few weeks, a hyperspectral camera will be added to the system. This camera with a spectral range between 400-1,000 nanometers is capable of acquiring 320 spectral bands and can be used to obtain images at a resolution as fine as 0.20 meters. It will be used to study the potential of the multispectral and hyperspectral sensors mounted on an airplane to diagnose nitrogen status and derive nitrogen recommendations to improve wheat quality (high protein content, low percentage of yellow berry, etc.). The hyperspectral imager also enables stress detection using other narrow-band vegetation indices related to the light-use efficiency, such as photochemical indicators, and quantification of chlorophyll fluorescence related to the canopy photosynthesis. Since all sensors can be mounted on the airplane simultaneously, it may be possible to diagnose irrigation and nitrogen fertilization needs during one flight. Thus researchers can develop diagnostic tools and recommendations for in-season nitrogen and water management to achieve higher nitrogen and water use efficiency.

The multispectral and thermal cameras are fully operational and will cover the research station in ObregĂłn on a weekly basis until the end of April, with the resolution ranging between 0.20 and 0.40 meters, depending on the flight altitude and the type of camera. This is detailed enough to identify individual plots.

The collaboration between CIMMYT and QuantaLab-IAS-CSIC will continue through the setup of the new hyperspectral camera, further research conducted on crop stress indicators, and the identification of successful remote sensing indices. Canopy temperature, normalized difference vegetation index, and other vegetative indices will be made available at minor cost to all interested scientists. These measurements could be used for phenotyping, physiological, and agronomic research.

High expectations among stakeholders as WEMA Phase II kicks off

IMG_9890During 4-8 February 2013, stakeholders of the Water Efficient Maize for Africa (WEMA) project gathered in Nairobi, Kenya, for the Fifth Review and Planning Meeting to discuss achievements and challenges of the recently concluded WEMA Phase I (2008-2013) and to plan for the second phase of the project (2013-2017) which begins in March this year. In the past four years, WEMA has made several key achievements, including the successful application and approval of permits to conduct confined field trials for transgenic varieties in Kenya, Uganda, and South Africa. Kenya and Uganda are now in their third year of trials, South Africa in its fourth. The project has also managed to submit conventional drought tolerant maize hybrids into the national performance trials in Kenya. “It is expected that farmers will have these WEMA conventional maize seeds by 2014,” says Denis Kyetere, African Agricultural Technology Foundation (AATF) executive director. CKH110078, one of the hybrids developed from the Drought Tolerant Maize for Africa (DTMA) materials, is in its final stage of approval in Kenya.

Emily Twinamasiko, Uganda’s National Agricultural Research Organization director general and WEMA Executive Advisory Board chair, was pleased with the achievements made in 2012 and commended all teams and the operations committee for their great efforts. Natalie DiNicola, Monsanto vice president for Africa and Europe, commented on the indicators of success: “The project will never be successful until the farmer has a product to plant and options to choose from.” Getting the seed to the farmers was stressed also by Ephraim Mukisira, Kenya Agricultural Research Institute (KARI) director, who called for speedy deployment of the varieties: “KARI wants to see the product with the farmer. The scientists must work hard so that impact can be seen and be seen today.”

B.M. Prasanna, Global Maize Program director, thanked Monsanto for donating the drought tolerant and Bt genes. “This is a tremendous opportunity to address some of the biggest challenges to African smallholder farmers [drought and stem borer infestation]. MON810 presents yet another great opportunity for WEMA to tap into the products from the Insect Resistant Maize for Africa project to develop a product that addresses many of the insect related constraints.” He added that new but exciting challenges were posed by maize lethal necrosis, particularly because it has allowed the WEMA team to assure partners that the materials being produced are resistant to the disease. During a visit to trials at KARI-Kiboko, stakeholders observed WEMA varieties, many of which have outperformed some of the best local hybrid checks on the market. They also visited the confined field trials for Bt MON810 and drought tolerant MON87460 that are in their first and fourth seasons of trials, respectively.

Shifting attention from successes to challenges, Stephen Mugo, CIMMYT principal scientist and co-chair of the WEMA Product Development team, spoke of the major lessons learnt by the team in Phase I that are crucial for the success of the second phase: continuous training in trials modernization and modern breeding techniques is necessary, as is a good quality assurance program for the exchange of germplasm between the private and public sectors to minimize the risk of inappropriate germplasm exchange. The stage is now set for Phase II after the meeting streamlined WEMA II milestones and developed the WEMA II 2013 work plans.

Lawrence Kent from the Bill & Melinda Gates Foundation noted that “with great privilege comes lots of responsibilities. We therefore expect great success from WEMA.” This sentiment was shared by other stakeholders, who were impressed by the achievements of Phase I and thus have high expectations for Phase II. “WEMA continues to be a success because of the combined and dedicated efforts within the partnership: the national agricultural research systems, CIMMYT, Monsanto, and AATF. All these partners have continued to work together, celebrating project gains and resolving any challenges together for the good of the larger goal and promise to smallholder farmers, a promise of food security and better livelihoods,” stated Kyetere. “A food secure continent is among the greatest inheritance and legacy we can leave the generations that are coming after us, our children and to our children’s children.”

New scholarship to honor the work of Chris Dowswell

The Dowswell family would like to announce that they have finalized a scholarship with Winrock International in memory of Chris Dowswell, our former colleague and a dear friend to many. The Dowswell Scholarship Fund will provide need-based educational scholarships through the Safe University system with emphasis on agriculture education and training for women, areas that Chris was passionate about.

The Dowswell family has provided the initial funding of $50,000 dollars for the scholarship hoping that this can and will make a difference for select individuals in the targeted areas. If you are in a position to contribute to this fund, the Dowswell family would be very appreciative of your help to honor Chris and his life’s work.

For further information about the “Dowswell Scholarship Fund,” contact Judy Vance: jvance [at] winrock [dot] org.