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Theme: Innovations

Working with smallholders to understand their needs and build on their knowledge, CIMMYT brings the right seeds and inputs to local markets, raises awareness of more productive cropping practices, and works to bring local mechanization and irrigation services based on conservation agriculture practices. CIMMYT helps scale up farmers’ own innovations, and embraces remote sensing, mobile phones and other information technology. These interventions are gender-inclusive, to ensure equitable impacts for all.

SIMLESA’s seamlessly integrated solution to a perennial problem, but…

A maize–legume rotation exploratory trial in Tete Province, Mozambique.
A maize–legume rotation exploratory trial in Tete Province, Mozambique.

And what solution is this? That Southern Africa smallholder farmers can attain food security and more income through sustainable intensification of maize-based farming systems. This was revealed during recent field learning tours in Malawi and Mozambique.

The annual field tours, which ran from February 9–19, 2015, were organized by CIMMYT’s Sustainable Intensification of Maize-Legume Cropping Systems for Food Security in Eastern and Southern Africa (SIMLESA) project. A total of 224 people (147 men and 77 women) visited 11 sites. The objectives of the field tours were twofold: to examine how the new experiments under SIMLESA Phase II were progressing, and to gather farmers’ feedback on some of the sustainable intensification research interventions.

SIMLESA’s farmer-tested improved maize–legume technologies were showcased during the learning tours. Smallholder farmers interacted with non-governmental organizations (NGOs) and private-sector partners who have shown a great interest in the SIMLESA outscaling approach using lead farmers and learning sites. Some of the sites promote smallholder agriculture development by linking farmers with buyers and agrodealers, and by providing access to credit and technical training.

SIMLESA tours key pointsIn Malawi, the field visits began at Kasungu District, with 16 farmers and technical staff from Mozambique who were on an exchange visit also participating. The group visited outscaling initiatives by the National Association of Smallholder Farmers of Malawi (NASFAM), in which maize–groundnut rotations and maize–pigeonpea systems are being implemented through lead farmers. More than 120 households per field learning site are participating in the demonstrations on each of the five NASFAM sites visited.

In the mid-altitude agro-ecological region of Malawi, new maize varieties have been introduced under SIMLESA Phase II as well as new groundnut and cowpea varieties, in addition to the previously tested soybean varieties in the core on-farm exploratory trials.

Conservation agriculture (CA) exhibited mixed fortunes and presented more opportunities for learning and information sharing. Due to the excessive rains experienced in January, maize on the conventional ridge and furrow farming systems was generally greener and taller than on the CA plots, although the positive rotation effects in CA were clearly evident from the healthy maize crop following soybeans. Also, some maize varieties under CA were more susceptible to diseases such as leaf rust and suffered more from pests such as white grubs which attacked maize roots.

The next stop in Malawi was Mitundu, Lilongwe District, with new crop establishment trials. Here, various new hand-planting tools were being tested, such as jab planters, the Li seeder or planting hoe and the Oklahoma State University (USA) green seeder – all in comparison to the conventional dibble stick and traditional hoe.

The use of a Li seeder has a lot of advantages, including enabling farmers to work faster and therefore saving time, and it does not strain the back,” said Mr James Segula, a smallholder farmer. The Li seeder simultaneously opens a hole in the ground, drops seed and fertilizer, and covers the hole.

Key lessons for the Mozambique and Malawi groups were timely weeding, right maize–legume crop varieties, correct use of fertilizers, residue application and appropriate and safe use of agrochemicals.

Transforming agriculture through technology: Mrs Grace Chitanje,one of the farmers in Mitundu District, Malawi, demonstrates how to use the Li seeder.
Transforming agriculture through technology: Mrs Grace Chitanje,one of the farmers in Mitundu District, Malawi, demonstrates how to use the Li seeder.

Crossing borders to Mozambique’s Angonia District, the group visited exploratory trials which included farmer-preferred maize varieties and the new maize–soybean intercrop system being tested for the first time. In SIMLESA Phase 1, common beans intercrop failed, hence the switch to soybeans. In the central region, members of the national innovation platform which brings on board NGOs such as Total Land Care, Manica Small-Scale Farmers and the Agência de Desenvolvimento Económico de Manica (ADEM) showcased the importance of partnerships. Innovation platforms are fora for information and knowledge sharing on agricultural development. Interesting differences in the tested maize hybrid and open pollinated varieties (OPV) included better leaf diseases tolerance from the hybrid Pristine, in contrast to early maturity characteristics from the OPV.

SIMLESA’s innovation platform is working with partners such as ADEM to facilitate farmers’ access to inputs, link them to financial institutions to access credit and connect them to markets for their produce. Mr Domingos Dias, SIMLESA–Mozambique National Coordinator, said: “We commend this approach of linking farmers to input suppliers and credit providers. Lessons learned, and experience gained over the years, indicate that training alone without market links is not profitable.”

Links: More on SIMLESA – in slides | project website

Happy Seeder, happy farmers: tillage in a single pass

Gulshad Nabi (Chand) is a progressive farmer from Chak Dahir, Tehsil Muridke in the Sheikhupura District of Punjab Province, Pakistan. He cultivates wheat and basmati rice, which constitute his family’s only source of livelihood. Heavy tillage and burning of rice residues are the common practices for growing wheat in the region, resulting in the loss of soil nutrients, air pollution and poor food security and livelihoods for farmers like Gulshad.

Farmer Chand sharing his experience with Sikandar Hayat Bosan (left), Pakistan’s Federal Minister of Food Security & Research.Photo: Amina Nasim Khan
Farmer Chand sharing his experience with Sikandar Hayat Bosan (left), Pakistan’s Federal Minister of Food Security & Research.
Photo: Amina Nasim Khan

The Agricultural Innovation Program (AIP), led by CIMMYT and funded by USAID, has begun testing with Punjab farmers the Zero-Tillage Happy Seeder, which sows wheat seed with fertilizer directly into the residues of the preceding rice crop in one pass and without tillage. “This practice offers a more sustainable and productive way to manage rice residues and raise wheat yields,” said Imtiaz Hussain, CIMMYT cropping systems agronomist. “It allows earlier sowing of wheat, which increases yields, and dramatically cuts the time, labor and fuel needed to plant wheat, which normally requires as many as seven tractor passes. Because the rice residues decompose on the soil rather than being burned, there is less pollution.”

In Sheikhupura District and in partnership with Engro EXIMP AgriProducts Private Limited, CIMMYT has promoted the seeder with 13 progressive farmers, including Nabi, who also received technical training in its use and in conservation agriculture practices and benefits.

After the training, Nabi used the seeder to sow wheat on just over three hectares without burning rice residues and saving more than 260 liters of diesel. At the Pakistan Agriculture Conference and Expo in Islamabad, Nabi described his experience to Mr. Sikandar Hayat Bosan, Federal Minister of Food Security & Research. “CIMMYT helped me improve my farming practices. The crop growth is great. Planting wheat with the Zero Tillage Happy Seeder is a new experience – a very modern practice that saves my time and resources,” said Nabi.

Center pivot crop irrigation system conserves water

Photo credit: CIMMYT/Alfonso Cortes
This picture by Alfonso Cortes shows a center pivot irrigation system in Ciudad Constitución, Baja California Sur, Mexico. Photo credit: CIMMYT/Alfonso Cortes

The Center Pivot System saves a significant amount of water while allowing the measured distribution of a precise amount to plants.

This maize crop has been cultivated using conservation agriculture techniques.

Through conservation agriculture, scientists aim to improve rural incomes and livelihoods through sustainable management of agro-ecosystem productivity and diversity, while minimizing unfavorable environmental impacts.

Conservation agriculture minimizes unfavorable environmental impacts

Photo credit: CIMMYT/Alfonso Cortes
Photo credit: CIMMYT/Alfonso Cortes

Bram Govaerts, associate director of the Global Conservation Agriculture Program at the International Maize and Wheat Improvement Center (CIMMYT) demonstrates to collaborators how straw retains water by avoiding surface runoff at an experimental station.

Govaerts stands on the right, while a man to the left uses a stopwatch to observe how much time passes before the water begins to run.

The project is part of MasAgro, a program focused on the sustainable modernization of agriculture in Mexico. Through conservation agriculture, scientists aim to improve rural incomes and livelihoods through sustainable management of agro-ecosystem productivity and diversity, while minimizing unfavorable environmental impacts.

Farmer interventions in water distribution have profound impact

Photo credit: CIMMYT/Alfonso Cortes
Children from Hidalgo, Mexico, help water run over the furrows of a field where conservation agriculture is practiced. Photo credit: CIMMYT/Alfonso Cortes

Through conservation agriculture, scientists aim to improve rural incomes and livelihoods through sustainable management of agro-ecosystem productivity and diversity, while minimizing unfavorable environmental impacts.

 

On World Water Day, photos show role water plays in food security

Water plays a vital role in irrigation and food production, accounting for 70 percent of global freshwater withdrawals, according to U.N. Water. Additionally, statistics show that water consumption for agricultural use will increase by about 20 percent by 2050.

Global efforts to protectively boost sustainable water use are reflected in proposed global anti-poverty development goals due to replace the current U.N. Millennium Development Goals (MDGs), which expire at the end of 2015.

The inclusion of water in the Sustainable Development Goals (SDGs) to “ensure availability and sustainable management of water and sanitation for all” will mark a significant shift from the current framework, which included water as a subordinate target within the MDG 7 environment target.

World Water Day on 22 March offers an opportunity to celebrate the role this indispensable resource plays in agricultural production, food security and distribution.

At the International Maize and Wheat Improvement Center (CIMMYT) we asked members of our online community to share pictures illustrating some of the ways they use water.

Their contributions can be seen on our special coverage page.

Twitter followers are also asked to share pictures via the #WaterIs hashtag and by mentioning @CIMMYT.

To see the contributions, please click here.

Conservation agriculture viable, say Ethiopian farmers, as curtain comes down on CASFESA pilot project

Only those of us bold enough to try conservation agriculture technologies like zero tillage and intercropping benefited a lot, while all others were left behind.” – Hunegnaw Wubie, farmer, South Achefer District, Amhara Region, North Ethiopia

As the curtain comes down on CIMMYT’s Conservation Agriculture and Smallholder Farmers in East and Southern Africa (CASFESA) pilot project, participating farmers in project demonstration sites have said that conservation agriculture (CA) practices have proven to be a viable means of improving their productivity and livelihoods, and need to be scaled up across the nation.

A farmer speaks: ‘farmer-researcher’, clergyman Enkuhanhone Alayu, said people laughed at him for expecting to cultivate crops without plowing. Now they call him even at night seeking advice.
A farmer speaks: ‘farmer-researcher’, clergyman Enkuhanhone Alayu, said people laughed at him for expecting to cultivate crops without plowing. Now they call him even at night seeking advice.

The farmers made these remarks at a one-day workshop on February 23, 2015, convened to take stock of the CASFESA experience after three years of implementation in South Achefer and Jebitehnan Districts of Amhara Region, Northern Ethiopia. The project began in June 2012 and will end in March 2015. Funded by the European Union through the International Fund for Agricultural Development, CASFESA aimed at increasing food security and incomes of poor smallholder farmers through sustainable intensification of mixed, cereal-based systems.

The project will leave a rich legacy, including:

  • adaptation and demonstration of CA-based technologies on selected farmer plots;
  • enhancing pro-poor and gender-sensitive targeting of CA-based interventions;
  • improving the delivery of information, including on technologies and market opportunities to smallholders, as well as developing policy options and recommendations that favor these technologies; and,
  • enhancing the capacity of research, and development interventions, for project stakeholders.

Attending the project closing workshop at the Amhara Region Agricultural Research Institute, Bahir Dar, in northwestern Ethiopia, were Regional Bureau of Agriculture officials; Directors of the Ministry of Agriculture Extension Process and the Ethiopian Agricultural Transformation Agency’s Climate and Environmental Sustainability Program; agronomists; representatives of relevant governmental and non-governmental and research organizations; and, above all, farmers. Keynote presentations included The Economic and Environmental Benefits of Sustainable Intensification Practices by Dr. Menale Kassie, while Dr. Mulugetta Mekuria and Mr. Yeshitla Merene presented the experience and research results from the Sustainable Intensification of Maize–Legume Cropping Systems for Food Security in Eastern and Southern Africa (SIMLESA).

Reaping where you do not harrow
Farmers spoke passionately on how CA technologies proved profitable for them and their families “in beating the odds”. Most reported harvests of six or more tonnes per hectare of maize from the CA plots – relatively better harvests than with conventional plowing methods, plus the added benefits of reduced use of oxen and labor, and attendant advantages. They also called upon officials responsible to undertake corresponding measures to ensure that CA technologies are sustainably implemented and adopted on a wider scale.

One of these ‘farmer-researchers’, clergyman Enkuhanhone Alayu, narrated how people at first ridiculed him when, three years ago, he volunteered to demonstrate CA practices on his meagre plot of land. They laughed at him “for expecting to cultivate crops without plowing” – a reference to minimum tillage practices that the project advocates as a central element of conservation agriculture.

“But when they later saw that we were cultivating more quantity of maize per unit of land, they were surprised and people who had called me a fool began calling me even at night seeking advice on how they can replicate CA practices on their plots and gain the benefits,” Alayu said. “Zero tillage practices, which require considerably less labor, are even more relevant at this time when oxen are increasingly becoming very expensive and most farmers are not able to afford them.”

Another farmer speaks at the meeting.
Another farmer speaks at the meeting.

Unto the next generation…
Another farmer, Ato Hunegnaw Wubie, said he was so pleased with CA technologies that he also taught his children how to do it on a portion of his land allotted to each of them. “One of my six children was so successful that this year he was able to reap 66 kilos of maize from a 10 by 10 meter plot. He sold his harvest at the market, and, with some additional money from me, bought a bicycle that he uses for transport to and from school. Only those steadfast enough and willing to learn new things will reap the benefits from such novel practices,” he added with pride.

And the farmers were not alone. Speaking at the workshop, the Deputy Head of Amhara Region Bureau of Agriculture, Dr. Demeke Atilaw, noted that maize production in the region stands at a meagre 3.2 tonnes per hectare, and that one reason for this is that “our agricultural practices didn’t include conservation agriculture. This needs to change both at the regional and national levels.” He further pledged that the bureau will work towards sustainably implementing these technologies with a view to increasing maize yields to eight tonnes per hectare.

Roadmap to national goals: “… projects alone cannot bring about significant change…”
In addition to CASFESA, CA technologies are being implemented in the region by SIMLESA, a CIMMYT project in Ethiopia, as well as in Kenya, Malawi, Mozambique and Tanzania. Presenting the experience of SIMLESA thus far, project leader, Dr. Mekuria told the participants that “the experience of both these CIMMYT projects, promising as they are, cannot alone bring about significant change unless they are scaled out using more new varieties of maize and sustained through meaningful institutional involvement – especially that of agencies at all levels of government.”

CIMMYT Agricultural Economist and CASFESA project coordinator, Dr. Moti Jaleta, also said that the experience of CASFESA has demonstrated that CA technologies are economically viable and thus worth pursuing on a wider scale and in a sustainable way. He particularly commended those farmers who volunteered to provide portions of their land as demonstration plots for CA technologies. “Their efforts and dedication have now paid off,” he noted, adding that project end does not mean that CASFESA will leave precipitously: there are still monitoring and evaluation and other wind-up tasks before project exit.

Participants of the CASFESA closure workshop in Ethiopia.
Participants of the CASFESA closure workshop in Ethiopia.

The Deputy Director General of the Amhara Regional Agricultural Research Institute, Dr. Tilaye Teklewold, summed up the mood of the day when he said that CASFESA’s experience in Amhara Region has shown that conservation agriculture is an ideal way of increasing the productivity of maize in the region, and that “concerted efforts are needed to raise the awareness and dedication of all actors involved in the region to implement these technologies and ensure lasting food security in the region and beyond.”

Links

Researchers define and measure “sustainability”

Leading specialists on the sustainable intensification of agriculture tried to hammer out indicators for assessing “sustainability,” a development term that refers roughly to the health and longevity of a system, at a 13 February workshop in San Jose, California.

Sustainability“Sustainable intensification seeks to increase farm productivity while conserving social and ecological resources, said Rishi Basak, consultant for CIMMYT’s Global Conservation Agriculture Program (GCAP) who took part in the event, held during the American Association for the Advancement of Science (AAAS) annual meeting, 12-16 February.

Santiago López Ridaura, CIMMYT GCAP Systems Agronomist, also attending the workshop, said “We are all interested in understanding and quantifying the impact of our research for development activities on the sustainability of agriculture and rural livelihoods. This workshop brought donors and researchers from different disciplines to discuss a common framework, indicators and metrics to do so. I believe it is an important step forward towards a common goal.”

Measuring sustainability remains a challenge, as it involves complex biophysical, environmental and socioeconomic interactions. “There are no widely-accepted indicators for the various dimensions of neither sustainable intensification, nor thresholds or benchmarks for those indicators,” Basak explained. “Lacking unified metrics for comparisons across initiatives, specialists tend to focus on specific practices— for example, conservation agriculture or agroforestry — rather than overall outcomes of sustainable intensification.”

The framework developed at the AAAS workshop is intended to provide for standardized methods that can be adapted for large- and small-scale farms. It will facilitate cross-program learning and assessment based on a set of indicators that are widely monitored or can be easily integrated into existing programs, such as “factor productivity” and “resilience.” These indicators will be measured by returns to labor and land, and by the variance in gross margin, respectively.

“Thinking about key indicators brought us back to basics: what are we trying to achieve when undertaking sustainable intensification projects and how do we know if we are successful?” Basak stated. “What data should we collect, how do we tell our success stories, and how can we compare results between projects?”

Workshop participants agreed to begin testing the indicators in the field, broaden consultation on the draft indicators and hire someone to provide intellectual leadership and coordination going forward.

“Having a set of indicators to assess our progress towards desired goals is very important. These indicators should not only help us in assessing progress, but also capturing main synergies and tradeoffs involved in our interventions,” said Ridaura.

The workshop immediately preceded a special symposium entitled “Beyond Intensification: Measuring the ‘Sustainable’ in Sustainable Intensification” on 13 February. The symposium was organized by Jerry Glover, Senior Sustainable Agricultural Systems Advisor, U.S. Agency for International Development (USAID), and included the participation of Tracy K. Powell, USAID Agricultural Research Advisor based in Ethiopia; Gordon Conway, Professor of International Development, Imperial College, London; Sieglinde S. Snapp, cropping systems and soil management specialist, Michigan State University; Peter Thorne, crop-livestock systems scientist, International Livestock Research Institute; Cheryl A. Palm, Senior Research Scientist and Director of Research, Earth Institute, Columbia University; and Bruno Gerard, Director, CIMMYT Global Conservation Agriculture Program.

Maize and wheat Super Women campaign highlights diversity

IWDbuttonEL BATAN, Mexico (CIMMYT) – A social media crowd sourcing campaign initiated to celebrate the achievements of women has led to more than a dozen published blog story contributions about women in the maize and wheat sectors.

Each year, International Women’s Day gives the world a chance to inspire women and celebrate their achievements. This year, the International Maize and Wheat Improvement Center (CIMMYT) put out a call asking for blog contributions from the social media community.

CIMMYT asked readers to submit stories about women who have made a difference in the maize and wheat sectors, including women involved in conservation agriculture, genetic resources, research, technology and related socio-economics.

The “Who is Your Maize or Wheat Super Woman?” stories are featured on the CIMMYT website from Monday, March 2, 2015 in the lead up to International Women’s Day on Sunday, March 8, 2015.

Contributions include blog stories about women from Britain, Canada, Guatemala, India, Indonesia, Kenya, Mexico, and the United States. Their stories will also be made available in Spanish-language.

SUPER WOMEN BLOG POSTS:

CIMMYT

Extension bulletins raise awareness of conservation agriculture in Malawi

 A sign indicates what conservation practices are being employed in a demonstration plot in Malawi. Photo : T. Samson/CIMMYT.
A sign indicates what conservation practices are being employed in a demonstration plot in Malawi. Photo : T. Samson/CIMMYT.

CIMMYT, Washington State University and Total Land Care (TLC) recently published a series of extension bulletins to spread awareness of the potential benefits of conservation agriculture (CA) techniques for farmers in Malawi.

The study, “Sustainable Intensification and Diversification on Maize-based Agroecosystems in Malawi,” took place over three years in the districts of Nkhotakota and Dowa, and was sponsored by the CGIAR Research Program on Maize through a Competitive Grants Initiative.

Over the study period, three different cropping systems — zero-tillage, conservation agriculture, and conventional tillage — were applied to smallholder farms. The three extension bulletins detail their respective impacts on crop yields and residue production, soil-water relations and the economic impacts for smallholder households.

The bulletins have been printed for distribution to Malawian extension agents and non-governmental organizations and, ultimately, to share with farmers.

 

The Findings

In the study, the zero-tilled maize plots incorporated only two of the three principles of CA – no tillage and residue retention – but not crop rotations, while conservation agriculture and conventional tillage incorporated diverse cropping systems.

It was found that crop rotations had the greatest impact on maize yields, leading to higher yields in conservation agriculture and conventional tillage than in continuous no-till maize.

Water infiltration was greatest in no-till maize and conservation agriculture, with 90 percent of applied water infiltrating into soils in the no-till plot and 60 percent under conservation agriculture, in Nkhotakota District. Sediment runoff was greatest in conventional tillage in both districts.

The study found that conservation agriculture used labor more efficiently than conventional tillage in smallholder plots, although variable costs were lowest in conventional tillage.

The authors of the bulletins are Dan TerAvest (Washington State University), John Reganold (Washington State University), and Christian Thierfelder (CIMMYT).

The bulletins are available in PDF format and can be downloaded here.

Crop model gives scientists a window on future farming in the Eastern Gangetic Plains

In work to help farmers in South Asia tackle changing climates and markets through resilient and productive cropping systems, scientists are now using a leading and longstanding model, the Agricultural Production System Simulator (APSIM).

To foster better use of soil and water through conservation agriculture and other resource- conserving practices, the Sustainable and Resilient Farming System Intensification in the Eastern Gangetic Plains (SRFSI) project held an APSIM workshop for nine researchers from Bangladesh, India and Nepal at Bihar Agricultural University (BAU), Bihar, India during 27-29 January. The workshop was inaugurated by the Honourable Vice Chancellor, Dr. M.L. Choudhary, accompanied by Research Director Dr. Ravi Gopal Singh.

The Vice Chancellor of Bihar Agricultural University, Dr. M.L. Choudhary, opens the APSIM Exposure Workshop. L-R: Ms. Alison Laing (CSIRO), Dr. Don Gaydon (CSIRO), Mr. Ashraf Ali (CIMMYT-Bangladesh), Dr. Ravi Gopal Singh (BAU) and Dr. Choudhary. Photos: Alison Laing (CSIRO) and Ashraf Ali (CIMMYT).
The Vice Chancellor of Bihar Agricultural University, Dr. M.L. Choudhary, opens the APSIM Exposure Workshop. L-R: Ms. Alison Laing (CSIRO), Dr. Don Gaydon
(CSIRO), Mr. Ashraf Ali (CIMMYT-Bangladesh), Dr. Ravi Gopal Singh (BAU) and Dr. Choudhary. Photos: Alison Laing (CSIRO) and Ashraf Ali (CIMMYT).

“The aim was to introduce these colleagues to the model and help them explore its adaptation and use,” said Md. Ashraf Ali, CIMMYT scientist and manager of SRFSI, which was launched in 2014 and is funded by the Australian Centre for International Agricultural Research (ACIAR).

“Our research targets rice-based systems in eight districts across those three countries, where wheat is often a key part of the rotation and climate change is already constraining crop yields.”

– Mahesh Kumar Gathala

CIMMYT cropping systems agronomist

According to SRFSI lead scientist, Mahesh Kumar Gathala, a CIMMYT cropping systems agronomist based in Bangladesh, SERFI works in Bangladesh, SERFI works in northwestern Bangladesh, West Bengal and Bihar in India, and the eastern Terai region of Nepal. “Our research targets rice-based systems in eight districts across those three countries, where wheat is often a key part of the rotation and climate change is already constraining crop yields.”

Ved Prakash (L) and Swaraj Dutta (R) work on modeling exercises.

One response to climate change – conservation agriculture – involves a complex, knowledge-intensive suite of practices including reduced tillage, keeping crop residues on the soil surface and careful use of rotations. A model like APSIM can speed the design and adoption of approaches tailored to specific locations, Singh explained. “But to provide reliable results, the model has to be adapted for the soil, climate and other conditions of each area,” he said.

Led by Don Gaydon and Alison Laing from Australia’s Commonwealth Scientific and Industrial Research Organisation (CSIRO) and with practical assistance from Dr. Sanjay Kumar, BAU, and Ali, the course provided theory and practice on the APSIM user interface and how to manage data on soils, weather and soil dynamics such as residue decomposition and moisture levels. “We also looked at how to model direct-seeded rice and wheat crops, long-term crop rotations and cropping simulations under climate-change,” Ali said.

Once assembled, a project modelling team with members from Bangladesh, India, Nepal and CSIRO will identify relevant parameters, calibrate the model and test it for diverse locations. Ultimately they will analyze scenarios for diverse crop management options, both current and proposed.

“With APSIM we can virtually ‘extend’ SRFSI field trials into the future by twenty years or more, gaining insight on long-term system variability,” Gathala said. “We can also explore likely impacts of the region-wide outscaling of new management options from one farm or village, including effects of different options on sustainability or greenhouse gas emissions, which can be difficult or expensive to measure in the field.”

Ved Prakash (L) and Swaraj Dutta (R) work on modeling exercises.
Ved Prakash (L) and Swaraj Dutta (R) work on modeling exercises.

Myanmar and CIMMYT assess needs and joint maize and wheat research

Aye Aye Win, Senior Researcher at Zaloke Research Farm in Mongwa, was the last CIMMYT GWP trainee from Myanmar in Mexico (2002) and is currently the only wheat breeder in the country. Photos: Fabiola Meza/CIMMYT
Aye Aye Win, Senior Researcher at Zaloke Research Farm in Mongwa, was the last CIMMYT GWP trainee from Myanmar in Mexico (2002) and is currently the only wheat breeder in the country. Photos: Fabiola Meza/CIMMYT

Given growing demand for maize and wheat in Myanmar and the increasing challenges to produce both crops, officials of the Myanmar Ministry of Agriculture and Irrigation’s (MOAI) Department of Agricultural Research (DAR) and CIMMYT representatives met at DAR headquarters at Yezin during 24-27 January, to strengthen collaboration, with a focus on increasing farm productivity and training a new generation of Myanmar scientists.

Maize area, output and demand are growing with increased use of the grain in poultry and livestock feeds. Nine-tenths of the 450,000-hectare (ha) national maize area is rain-fed and grown with few inputs. It suffers from erratic precipitation among other things. Nearly one-third is sown to hybrid seed imported from Thailand. Small- and medium-scale local seed producers need stimulation and support.

Wheat is important for subsistence farmers in the eastern hills but also to meet the rising demand of a growing population with more urban inhabitants. National consumption yearly exceeds 0.5 million tons, only 0.18 million of which is produced in Myanmar (the rest is imported from Australia). Yields are low due to lack of inputs or new seed varieties. Farmers particularly need heat tolerant, rust resistant wheat varieties and resource-conserving cropping technologies.

Drying maize in Myanmar.
Drying maize in Myanmar.

CIMMYT germplasm and other support are crucial for both crops in the country, but interactions have grown less frequent. The last Myanmar maize researcher to participate in training courses in Mexico came in 1999; the last wheat trainee, in 2002.

Participating in discussions were Dr. Tin Htut, director general, MOAI Department of Agricultural Planning, and DAR senior staff including Dr. Ye Tint Tun, DAR director general and U. Thant Lwin Oo, director for Maize & Other Cereals, Oil Seeds and Legumes.

CIMMYT was represented by Thomas A. Lumpkin, director general; Etienne Duveiller, regional representative for Asia; and administrative assistant Fabiola Meza. In addition to taking part in high-level discussions, they visited Dr. Win Win New, Director of the Aung Ban Agricultural Research Farm and Maize Breeder who conducts maize and wheat trials in southern Shan State and accompanied the team for field tours.

Collaboration discussion with DAR officials in Yezin.
Collaboration discussion with DAR officials in Yezin.

These interactions grew out of visits in 2014 to Myanmar by Duveiller and Dan Jeffers, a CIMMYT maize breeder based in Yunnan, China.

Opportunities to address Myanmar’s concerns include regional collaboration with CIMMYT maize research in Yunnan and Hyderabad and training at BISA farms in India, for conservation agriculture and small-scale mechanization. CIMMYT and DAR are developing an agreement to facilitate collaboration.

CIMMYT formally welcomes four local workshops to the machinery and equipment innovation group

In 2014, the work of The Machinery and Equipment Innovation Group began activities after signing of four contracts with four Mexican workshops. The local entrepreneurs will partner with the Farmer component of the Sustainable Modernization of Traditional Agriculture program that CIMMYT develops in collaboration with Mexico’s Secretariat of Agriculture, Livestock, Rural Development, Fisheries and Food (SAGARPA). This platform aims to establish a space for technological collaboration where CIMMYT and small and medium local manufacturers will improve or refine prototypes, and develop new ones to respond to the needs of Mexican farmers more effectively.

This objective will be met by transferring technology, giving access to existing machinery and equipment prototypes for improvement, and by offering technical support for the development of new models to the small and medium local workshops that join The Machinery and Equipment Innovation Group. The new Platform will operate across the country with the support of MasAgro’s hubs.

This innovation platform will develop multipurpose and multi-cropping machinery and equipment to reduce tillage, the cost of adopting the new technology, fuel consumption and manual labor.

MasAgro widens research platforms and innovation networks in Mexico

Women-farmers-MasAgroIn 2014, the Sustainable Modernization of Traditional Agriculture (MasAgro) program expanded its rural development and innovation networks to 10 Mexican regions through 50 research platforms and 233 demonstration modules of MasAgro technologies and sustainable agronomic practices.

The project developed by the Mexican Secretary of Agriculture (SAGARPA) and CIMMYT provides a framework that can be replicated to take advantage of research and innovation achievements and which secures returns on investments.

In 2014, SAGARPA invested nearly US $40 million in its partnership with CIMMYT to offer better opportunities to Mexican farmers. Six thousand Mexican farmers participated in over 170 training events across the country. MasAgro also offered more than 40 workshops on the adoption of different technologies and conservation agriculture practices to more than 1,300 farmers actively engaged in the program.

These workshops are adapted to the capacity building needs detected through hubs and cover subjects that include adoption of improved maize, wheat and barley varieties, fertilization diagnosis tools, precision machinery, access to new markets and postharvest technologies.

MasAgro also develops basic maize seed and pre-commercial hybrids. So far the program has delivered more than 15 tons of basic seed to Mexican seed companies. Once multiplied and marketed, this seed will be enough to sow two million hectares.

Bram Govaerts, MasAgro leader, explained that in 2014 the initiative established 21 postharvest trials across Chiapas, the State of Mexico, Guanajuato, Michoacán, Oaxaca and Tlaxcala. These trials were designed to offer local solutions to farmers, including accessible options to store harvested grain and to prevent losses that in some cases can exceed 30 percent of their annual harvest.

He added that MasAgro adapts machinery to the needs of the communities where the program operates and operates and develops multiuse-multicrop implements to reduce production and storage costs for farmers. Last year four “smart” machinery protoypes were developed.

“MasAgro works with farmers who have one or two hectares of land, where they can im-prove their efficiency by using manual seeder-fertilizers, but also with farmers who own larger plots who need precision technology to estimate optimal nitrogen fertilizer doses,” Govaerts explained.

In addition, MasAgro successfully developed 44 integral fertility research protocols to improve soil quality in different production zones, in line with the United Nations Organiza-tion for Food and Agriculture (FAO) Year of Soil for 2015.

The program uses remote sensors to estimate exact doses of nitrogen fertilizer for maize and wheat on some 8,000 hectares throughout Mexico.

The arm that strengthens MasAgro is its conservation agriculture agronomy technicians certified by CIMMYT. Finally, by late 2014, MasAgro-Móvil information service had more than 2,700 users who receive weather and agronomic recommendations from technical experts.

CSISA hosts regional cross-learning event on sustainable intensification

Irmgard Hoeschle-Zeledon, International Institute of Tropical Agriculture (IITA) from Africa RISING speaks at the event.
Irmgard Hoeschle-Zeledon, International Institute of Tropical Agriculture (IITA) from Africa RISING speaks at the event.

Developing a global ‘community of practice’ for sustainable intensification (SI) and the need to define indicators for measuring SI activities were highlighted at the cross-learning SI event hosted by Cereal Systems Initiative for South Asia (CSISA) on 28 January in New Delhi, India.

A group of 50 participants from USAID, the Bill & Melinda Gates Foundation (BMGF), Africa RISING, USAID’s Sustainable Intensification Innovation Lab, the Innovation Lab for Small-scale Irrigation, CIMMYT, the International Food Policy Research Institute, International Livestock Research Institute and International Rice Research Institute attended the event and shared perspectives on SI in African and South Asian contexts.

Applying principles of SI in mixed crop-livestock systems is key to achieving better food security and improved livelihoods, while minimizing negative impacts on the environment. The full-day program looked at the approaches taken by SI projects of CSISA and Africa RISING, collaborative research opportunities by the Sustainable Intensification Innovation Lab and the Innovation Lab for Small-scale Irrigation and the perspectives of donors who fund SI projects.

Andrew McDonald, CSISA Project Leader, outlines South Asia agricultural systems and the CSISA initiative
Andrew McDonald, CSISA Project Leader, outlines South Asia agricultural systems and the CSISA initiative.

“We need broad systems programs to make impacts truly happen,” said Thomas Lumpkin, Director General, CIMMYT, talking about CSISA’s cropping systems approach at the start of the event. He added, “We should get more value chains involved and look at regional and global levels to extract maximum value from our R4D projects.” Andrew McDonald, CSISA Project Leader, talked about the history and context of CSISA, highlighting its 10-year vision of success that aims to significantly increase the incomes and staple crop productivity of 6 million farm families by 2018.

Christian Witt, Senior Program Officer at BMGF, gave a brief overview of the Foundation’s global and regional strategies in SI, which highlighted significant investments in digital soil mapping in Africa and work with CIMMYT to merge soil data with agronomic research. “We are also enhancing communication within farming communities through informal methods. A good example is our partnership with Digital Green,” he added.

Christian Witt, Bill & Melinda Gates Foundation, talks about emerging agricultural R4D priorities at the foundation.
Christian Witt, Bill & Melinda Gates Foundation, talks about emerging agricultural R4D priorities at the foundation.

The event provided CSISA an opportunity to discuss its current status in India and Bangladesh and to outline the potential future direction of CSISA as a regional initiative, now that CSISA Phase II is being renewed. A series of presentations also outlined the project’s progress and emerging priorities in strategic agronomic, livestock, socio-economic and policy research and rice and wheat breeding.

Following the event, a group of 13 representatives accompanied members of CSISA’s leadership team on a tour of CSISA sites in Bihar and Odisha over the course of a week in January and February. The tour was designed to enable cross-learning among the flagship SI investments of USAID.