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Theme: Capacity development

CIMMYT training courses play a critical role in helping international researchers meet national food security and resource conservation goals. By sharing knowledge to build communities of agricultural knowledge in less developed countries, CIMMYT empowers researchers to aid farmers. In turn, these farmers help ensure sustainable food security. In contrast to formal academic training in plant breeding and agronomy, CIMMYT training activities are hands-on and highly specialized. Trainees from Africa, Asia and Latin America benefit from the data assembled and handled in a global research program. Alumni of CIMMYT courses often become a significant force for agricultural change in their countries.

UAVs provide researchers in NW China with a new view of agriculture

The DJI Spreading Wings S900 Hexo-copter fitted with an MKII Canon SLR Visual Camera flying over winter wheat near Wuzhong City, China. Photo: Jack McHugh/CIMMYT
The DJI Spreading Wings S900 Hexo-copter fitted with an
MKII Canon SLR Visual Camera flying over winter wheat
near Wuzhong City, China. Photo: Jack McHugh/CIMMYT

We have come a long way when it comes to obtaining aerial images of our research sites. My colleagues and I once used helium-filled balloons and twin cameras to obtain infrared and color images in an all-day operation; now we use unmanned aerial vehicles (UAVs) fitted with high-resolution lenses and multispectral cameras to take dozens of images over large areas in a matter of minutes.

Farmers and researchers need to know every square meter of their fields, to determine spatial variability, take remedial action and implement adaptive controls and responses. UAVs can achieve this without anyone setting foot in the field. In an era where we are time- and resource-poor, we can accurately assess the health of entire fields in mere minutes, which could have an enormous impact on agriculture.

However, in Northwestern China, the notion of using UAVs to take aerial pictures in an agricultural setting evokes suspicion, elicits numerous questions and is extremely novel.

The way it was in 2007. Troy Jensen and Amjed Hussain of the University of Southern Queensland, utilizing a helium-filled balloon for aerial imagery of a cabbage research trial in SE Queensland. Photo: Troy Jensen
The way it was in 2007. Troy Jensen and
Amjed Hussain of the University of Southern
Queensland, utilizing a helium-filled balloon
for aerial imagery of a cabbage research trial
in SE Queensland. Photo: Troy Jensen

As a result, we have to provide detailed explanations and gain permission from a number of local authorities before we can undertake what is a simple non-invasive task that would normally go unnoticed on a farm in Australia or Mexico.

CIMMYT-China’s Global Conservation Agriculture Program (GCAP) and the Ningxia Academy of Agricultural Sciences obtained permission from the Wuzhong City Agricultural Mechanization Bureau to fly a UAV. Earlier this month, my colleague Mr. Zhang Xuejian, Director of the Information Research Institute, enlisted a local UAV operator to take images of conservation agriculture, relay cropping and wheat variety trials at a demonstration site near Wuzhong City in Ningxia Hui Autonomous Region.

Although the Information Research Institute has a fixed-wing UAV with sophisticated imagery equipment, the system is somewhat dated and requires extensive documentation, a landing strip and up to six operators. However, the GCAP-Ningxia Academy of Agricultural Sciences collaboration recently demonstrated the flexibility, capability and efficiency of a modern, multi-rotary wing UAV that rapidly produces imagery and readily displays agronomic traits, farm management and genetic responses not easily appreciated or identified at ground level. Given the success of this demonstration, we will seek funding to buy a new aircraft and develop proximal sensing and imagery within the region.

Smallholder farmers need accurate, inexpensive, readily-available data to increase production, but have traditionally not had access to precise spatial information due to time, money and labor constraints. UAVs can collect visual, thermal and hyperspectral data, which when analyzed provide a broad range of information that would otherwise be unavailable. UAV imagery can also focus on specific biotic and abiotic issues such as diseases, crop stress and farm management. UAV technology would provide breeders and agronomists in NW China not only a new view of agriculture, but also a new path to achieving increased production and food security, while conserving natural and human resources.

View-sky

HTMA offers stress-resilient maize hybrids to meet Bangladesh’s growing demand

CIMMYT’s Heat Stress Tolerant Maize for Asia (HTMA) project held a hybrid maize field day during 21-22 April  at the Bangladesh Agricultural Research Institute’s (BARI) Regional Agricultural Research Stations (RARS) in Khoirtola, Jessore and Gazipur. The event was attended by over 60 participants, including local maize farmers, Bangladeshi seed company representatives, agricultural input dealers, Bangladesh government seed system officers and BARI maize researchers.

Rafiqul Islam Mondal, BARI Director General, addressing the participants in HTMA’s hybrid field day held in Jessore, Bangladesh. Photo: BARI.
Rafiqul Islam Mondal, BARI Director General, addressing the participants
in HTMA’s hybrid field day held in Jessore, Bangladesh. Photo: BARI.

Maize is the third most important food crop in Bangladesh after rice and wheat, covering from 3,000 hectares (ha) in 1990 to over 300,000 ha at present. This growth is largely demand driven, as maize is used both as feed (poultry, fish and cattle) and food. Annual maize demand in the country is approximately two million tons, with domestic production meeting only about 14% of that. Almost all maize grown is hybrid maize, and about 6,500 metric tons of hybrid seed are required annually. However, only about 15% of annual seed demand is met by domestic seed production; the rest is imported, mainly from India. Bangladesh must enhance domestic sources of hybrid seed to meet demand more reliably and at a lower cost.

To accelerate hybrid maize production and address climate-change effects, BARI joined HTMA in developing and deploying high-yielding, climate-resilient hybrids for stress-prone ecologies across the region. Under the project, which is funded by the United States Agency for International Development (USAID), every two years a new wave of products is available for on-farm testing and deployment. The most recent hybrids were planted at four locations in Bangladesh, including BARI research stations.

HTMA project details and progress were shared with participants during a pre-field visit session by Sirajul Islam, Chief Scientific Officer and Head of BARI-RARS, Jessore. CIMMYT maize breeder P.H. Zaidi discussed HTMA’s potential impact and importance in addressing climate change effects, especially in Bangladesh. Salahuddin Ahmad, BARI’s Principal Scientific Officer, gave an overview of the 24 HTMA hybrids, plus four popular commercial hybrids and two BARI hybrids that were planted in the field. Participants then visited the field sites and evaluated the HTMA hybrids, scoring each one by preference. Of the 30 hybrids, the top 8 were from HTMA. Many participants, including Nurul Hoque, Additional General Manager of the Bangladesh Agricultural Development Corporation (BADC), Nasir Uddin Khan, DAE Additional Director, Jessore Region, and Jalal Uddin, BARI Director of Research, expressed the need to increase domestic maize production to minimize imports and maintain food security and self-sufficiency.

Sadananda explained the importance of public and private sector partnerships for successful development and deployment of the HTMA hybrids. T.P. Tiwari also stressed the need for maize diversification to achieve sustainable production and the need to develop salt tolerant varieties. B.R. Banik, BARI Training and Coordination Director, said the newly developed HTMA hybrids will help Bangladesh deal with climate change effects currently and in the future.

Rafiqul Islam Mondal, BARI Director General, highlighted HTMA’s progress and the need to explore the potential for cultivating maize in unutilized areas to boost production.

“It is truly exciting to see the enthusiasm of stakeholders,” said Mohammad Amiruzzaman, Chief Scientific Officer of BARI’s Plant Breeding Division, in his concluding remarks. “We will work on finalizing the best-bet products, officially register and then deploy them in collaboration with our seed company partners.”

Other participants included representatives from Lal Teer Seed Ltd., Supreme Seed Company Ltd., ACI Ltd., Krishi-bid Group, Monsanto Bangladesh Ltd., Syngenta, Petrochem Ltd., the Bangladesh Rural Advancement Committee (BRAC), Christian Commission for Development in Bangladesh (CCDB), Katalyst, BADC and the Department of Agricultural Extension (DAE). CIMMYT representatives included T. P. Tiwari, CIMMYT-Bangladesh Country Liaison Officer, P.H. Zaidi, Senior Maize Physiologist and HTMA Project Leader, and A.R. Sadananda, Seed System Specialist.

New technologies to increase coffee-maize system profitability

To demostrate the advances of the project “Increasing the profitability of maize-coffee systems” conducted by CIMMYT in Colombia over the past 10 years in collaboration with the National Federation of Colombian Coffee Producers (FEDERECAFE, Spanish acronym), two field days were held at the Paraguaycito–Quindío (29 April) and La Catalina–Risaralda (7 May) Experiment Stations belonging to CENICAFE, FEDERECAFE’s research unit. At these events, attended by 158 representatives of the Local Coffee Growers’ Committees and the National Federation of Cereal Growers (FENALCE, Spanish acronym), the latest advances in the areas of climate change, agronomy and genetic improvement were presented.

Agronomy

In the field of agronomy, there were demonstrations on how to use a manual maize planter and the GreenSeeker sensor. These inventions are available to farmers today thanks to the work and perseverance of Bill Raun and his colleagues at Oklahoma State University, USA.

In the 1980s, when Bill was working for CIMMYT’s Agronomy Program for Central America, he realized the risks farmers faced when growing maize. The seed was treated with insecticides and fungicides to protect it and promote germination and crop establishment. Farmers would take the seed in their bare hands and put it into the soil, in holes made with the help of a stick; they did not use gloves or any kind of protection.

More than 20 years later, farmers finally have a manual planter. The most important parts of the planter are a plastic tube where the seed is placed, a cylinder that regulates seed drop and a device at the end of the planter that passes the seed from the plastic tube into the soil. During the sowing demonstrations, the attendees observed the excellent germination of a plot sown with the planter the previous week. The planter can also be used for fertilization and is ideal for planting maize on the very steep slopes where coffee is grown and where mechanization is not possible. Most of the region’s coffee growers are small-scale farmers whose land holdings average 1.54 hectares.

Argemiro Moreno, former CENICAFE scientist, spoke on efficient nitrogen use for maize crops in Colombia’s coffee growing region. He also explained the basics of GreenSeeker use to calculate the precise amount of nitrogen that plants need for maximum growth and production and to avoid polluting the atmosphere or the ground water through excess fertilizer use. There was also a demonstration of how to use the GreenSeeker in the field and for converting the readings into fertilizer dosage recommendations (by cell phone at www.nue.okstate.edu).

Genetic improvement––biofortified maize

As Luis Narro, CIMMYT-Colombia, explained during both field days, biofortification uses conventional breeding to develop varieties with higher content of micronutrients such as iron, zinc and provitamin A. Normal maize grain contains, on average, 20 ppm Zn and 2 ppm pro-vitamin A, whereas biofortified maize being developed at CIMMYT with support by HarvestPlus contains 32 ppm Zn (white maize) and 8-10 ppm provitamin A (orange maize).

As a HarvestPlus activity, 81 white experimental hybrids with high zinc content and 81 orange hybrids with high provitamin A content are being evaluated in Colombia’s coffee growing region. Preliminary results at La Catalina Experiment Station indicate that the best hybrid with high Zn content (8.9 t/ha) yielded 10% more than the normal (check) hybrid and showed less ear rot and less tar spot damage. The yield of the best hybrid with high provitamin A content was 5.4 t/ha, similar to that of the normal check.

At the same time, the HarvestPlus team at CIAT, in collaboration with small food product manufacturers in Colombia’s Cauca Valley, are conducting pilot studies aimed at developing food products from biofortified maize, as well as sensory studies and studies on micronutrient retention and on shelf life. Consequently, it’s very possible that cropping and consumption of biofortified maize will be promoted in Colombia’s coffee region as an alternative for improving food security.

* This is the second part of a two-part report; the first was published in the previous issue of the CIMMYT Informa.

Local innovations help meet farmers’ needs in Bihar

During a pilot program with members of the Kisan Sakhi Group in Muzzafarpur, Bihar nearly 350 women farmers were trained on operating the Diesel Engine Powered Open Drum Thresher. In this picture, Suryakanta Khandai (center), postharvest specialist, IRRI, is conducting a demonstration for two of the women’s self-help groups (SHGs) that have expressed interest in purchasing four machines next season.

In India, farmers with large landholdings from prosperous agricultural states like Punjab can buy expensive and sophisticated machines for farm operations. However, resource-poor farmers with smaller landholdings from states such as Bihar may not have funds to buy these machines. “A huge bottleneck exists in terms of time wasted in harvesting and threshing that is preventing timely sowing of crops,” said Scott Justice, agriculture mechanization specialist, CIMMYT.

The Cereal Systems Initiative for South Asia (CSISA) is working to ensure that farmers all along the spectrum of landholdings have access to differently priced and scale-appropriate machinery based on their specific requirements. One of the ways CSISA does this is by improving existing designs of harvest and postharvest machinery to better meet local needs.

For shelling maize, farmers in Bihar could either purchase a very large, highly productive machine that costs approximately US$ 786 or use a handheld maize sheller that is cheap but can only shell 15 – 20 kg per hour. A medium-sized mechanized single cob maize sheller brought to Bihar from Nepal broke the cobs because the sheller had been optimized for Nepal’s hybrid varieties that had longer and thinner cobs. Farmers in Bihar need their cobs to remain intact so they can be used as fuel for their stoves. According to Justice, “These lightweight and affordable shellers are relatively new entrants on the scene. Their simple designs mean that they can be made easily by local manufacturers.” More importantly, they can also be modified as required.

CSISA worked with a local fabricator to modify the existing design and created an electric motor powered double cob maize sheller, which can shell 150 kg maize per hour and consumes only 2 – 4 units of electricity. Priced at US$ 126, the machine is also fairly affordable. “In fact, half the cost of the machine is that of the electric motor alone. For farmers who already own one, the machine would merely cost US$ 63,” said Suryakanta Khandai, postharvest specialist, IRRI, who works for CSISA in Bihar.

Similarly, until recently, farmers in Bihar only had two options for mechanized rice threshing – the very large axial flow thresher that can cost up to US$ 2,700 after subsidy or the compact pedal-powered open drum thresher that has very low capacity and is difficult to operate for extended periods of time.

“Farmers clearly needed a medium-sized, affordable, efficient and portable mechanical rice thresher,” said Khandai. But to build a truly relevant product understanding the shortcomings of the existing options was critical. “The existing models also lacked winnowing or bagging functions, which were included in the new design. Besides giving it wheels, we also decided to use a diesel engine to power the machine to allow for threshing in the field immediately upon cutting, which would help reduce losses.” The result was the diesel engine powered open drum thresher.

It costs US$ 23.96 to hire one person to manually thresh 1 acre of rice in 7 days. Using the diesel engine powered open drum thresher, however, the same area can now be covered in just over four hours at a total cost of US$ 10.54.

Since modifying these medium-sized machines does not offer sufficient profit margin for larger manufacturers and retailers, CSISA approached local fabricators to fill this gap. The maize sheller was customized in cooperation with Dashmesh Engineering, which sells the machine at a profit of US$ 11–13. “Profits help ensure that the fabricators put in efforts on their own to scale out the machines. Other dealers have also expressed interest in the maize sheller, which is great because having multiple fabricators involved ensures that the pricing remains competitive,” said Khandai.

Justice added, “Equipment like powered open drum threshers for rice are very simple but they have not spread very widely. I feel these should now also be promoted with owners of two-wheel tractors and mini tillers in India and Nepal.” Since the thresher can easily be adapted again to be powered by those engines, the cost of the machine can be brought down even further.

Australian visit to CIMMYT-Turkey strengthens decades-long collaboration

The CIMMYT Australia ICARDA Germplasm Evaluation Project (CAIGE) organized a visit for Australian breeders to Turkey during 19 April-3 May. Participants learned about the germplasm evaluation and selection activities by the International Winter Wheat Improvement Program (IWWIP, a joint enterprise of CIMMYT and the Government of Turkey), the CIMMYT-Turkey Soil Borne Pathogen (SBP) program and the Regional Rust Research Center.

Crown rot trials in Konya field. From left to right: Drs. Morgounov, Dababat, Dieters, Trethowan, Ed-wards, Kan, Mullan, and Moody.
Photo: SBP-CIMMYT-Turkey.

The CIMMYT-Turkey collaboration has helped farmers throughout Central and West Asia. It all began in 1965, when a farmer in southern Turkey planted a high-yielding variety from Mexico that yielded five tons per hectare– several times more than the Turkish varieties then being planted. Wheat varieties from Mexico and new agronomic practices allowed Turkey to double its wheat production in just a decade, marking the start of a Turkish “Green Revolution.”

Turkey has since become a leader in wheat research. Turkish scientists with IWWIP have led groundbreaking research on zinc deficiency in soils and developed varieties that not only perform well in such conditions but also contain enhanced levels of zinc in the grain. Turkey is also a focal point for collaborative research on the effect of soil-borne pathogens and pests on wheat, as well as developing resistant varieties.

The five Australian breeders experienced first-hand Turkey’s rich history and innovations in wheat research and development. The group first visited the Bahri Dagdas International Agricultural Research Institute-National Drought Center in Konya, where Mustafa Kan, Institute Director and IWWIP Coordinator, welcomed them and gave an overview of the Institute. Alexei Morgounov, IWWIP Leader, and Mesut Keser, ICARDA’s Office Coordinator in Turkey, also gave presentations. The group then visited the labs and greenhouse facilities, crown rot yield trials and IWWIP breeding programs.

The next day, the group visited the Transitional Zone Agricultural Research Institute in Eskisehir. Director Sabri Cakir gave an overview of the Institute, while Savas Pelin, Head of the Institute’s breeding program in Eskisehir, gave a general presentation of its programs and activities. Participants also attended an overview of SBP’s activities, including screening for nematodes and crown rot in growth rooms, greenhouses and fields.

On the third day, attendees visited the Agricultural Research Institute in Izmir and Turkey’s National Gene Bank. They were introduced to IWWIP’s breeding activities, including germplasm evaluation, synthetic winter wheat development, spring x winter crossing and soil borne pathogen screening. The group also visited the Regional Rust Research Center, led by ICARDA scientist Nazari Kumarzi, where they observed the stripe, leaf and stem rust evaluation nurseries and afterwards visited the national barley breeding program.

In Izmir, visitors reviewed the soil-borne pathogen research, screening methodologies and facilities at CIMMYT-Turkey. CAIGE Project Leader Richard Trethowan inspected the germplasm provided by Australia to CIMMYT-Turkey as part of the crown rot initiative, a sub-grant project with the University of Sydney funded through the Grains Research and Development Corporation (GRDC) aimed at transferring resistant genes into key elite varieties for rapid adoption by breeding programs. Visitors were also briefed about the intensive SBP-IWWIP collaboration, particularly on incorporating resistant sources into high-yielding winter and spring wheats.

The Australian breeders included Richard Trethowan, Professor at the University of Sydney; Daniel Mullan and David Moody, Wheat and Barley Breeders from Intergrain; Mark Dieters, Senior Lecturer at the University of Queensland and Ian Edwards, CEO of Edstar Genetics. CIMMYT participants included Alexei Morgounov, CIMMYT-Turkey Country Representative; Amer Dababat, Soil Borne Disease Pathologist and Gul Erginbas-Orakci, Senior Research Associate.

CSISA mechanization meets farmers’ needs in Bihar, India

“A huge bottleneck exists in terms of time wasted in harvesting and threshing that is preventing timely sowing of crops,” said Scott Justice, agriculture mechanization specialist, CIMMYT. The Cereal Systems Initiative for South Asia (CSISA) is working to ensure smallholder farmers have access to machinery based on their specific requirements by improving existing designs to meet local needs.”

For shelling maize, farmers in Bihar can either purchase a very large, efficient machine that costs approximately US $786 or use a cheap handheld sheller that can shell only 15-20 kilograms per hour. According to Justice, “these lightweight, affordable shellers are relatively new on the scene. Their simple design means that they can easily be made by local manufacturers and can also be modified as required.”

CSISA worked with a local manufacturer to modify the design of a medium-sized sheller and created a double cob maize sheller powered by an electric motor, which can shell 150 kg of maize per hour and consumes only 2-4 units of electricity. Priced at US $126, the machine is fairly affordable. “In fact, half the cost of the machine is that of the electric motor alone. For farmers who already own one, the machine would only cost US $63,” said Suryakanta Khandai, Postharvest Specialist at the International Rice Research Institute (IRRI), who works for CSISA in Bihar.

During a pilot program with members of the Kisan Sakhi Group in Muzzafarpur, Bihar, nearly 350 women farmers were trained to operate the diesel engine-powered, open-drum thresher. In this picture, Suryakanta Khandai (center), IRRI postharvest specialist, conducts a demonstration for two women’s self-help groups interested in purchasing four machines next season. Photo: CSISA
During a pilot program with members of the Kisan Sakhi Group in Muzzafarpur, Bihar, nearly 350 women farmers were trained to operate the diesel engine-powered, open-drum thresher. In this picture, Suryakanta Khandai (center), IRRI postharvest specialist, conducts a demonstration for two women’s self-help groups interested in purchasing four machines next season.
Photo: CSISA

Until recently, farmers in Bihar only had two options for mechanized rice threshing –a very large axial flow thresher that can cost up to US $2,700 with subsidies, or a pedal-powered, open-drum thresher that has very low capacity and is difficult to operate for extended periods.

“Farmers clearly needed a medium-sized, affordable, efficient and portable mechanical rice thresher,” said Khandai. “The existing models lacked grain-separating or bagging functions, which we included in the new design. In addition to giving it wheels, we also decided to use a diesel engine to power the machine to allow for threshing in the field immediately upon cutting, which helps reduce losses.” The result was a diesel-powered, open-drum thresher.

It costs US $23.96 to hire one person to manually thresh one acre of rice and it takes seven days. However, the diesel-powered, open-drum thresher covers the same area in just over four hours, at a total cost of US $10.54.

Since the modified machines do not offer an attractive profit for larger manufacturers and retailers, CSISA approached local companies to fill the gap. The maize sheller was customized in cooperation with Dashmesh Engineering, which sells the machine at a profit of US $11–13. “Profits help ensure that the manufacturers are motivated to scale out the machines,” said Khandai.

Justice added, “Equipment like the diesel-powered, open-drum rice thresher is very simple but has not spread very widely. I feel these should now also be promoted to the owners of two-wheel tractors and mini tillers in India and Nepal.”

WheatMatters Podcast # 1

Photo credit: Xochiquetzal Fonseca/CIMMYT

In this episode of the Wheat Matters podcast we tour CIMMYT’s seed bank and find out why genetic resources are a cornerstone for crop improvement and an essential ingredient to meet current and future food security challenges.

AIP-CIMMYT Conducts the Largest Evaluation of Maize Germplasm in Pakistan’s History

While visiting AIP maize trials, Dr. Muhammad Azeem Khan, NARC Director General, discusses NARC’s seed road map. Photo: Salman Saleem/CIMMYT.
While visiting AIP maize trials, Dr. Muhammad Azeem Khan, NARC Director General, discusses NARC’s seed road map. Photo: Salman Saleem/CIMMYT.

ISLAMABAD  Pakistan’s Agricultural Innovation Program (AIP) tested more than 700 diverse maize lines this past year, as part of its efforts to develop more affordable, well-adapted maize varieties. During two cropping seasons, 15 trials consisting of 680 diverse maize lines were conducted across Pakistan. AIP’s maize variety evaluation is the largest in the history of Pakistan, both in the number of varieties and of testing sites.

Compared to wheat, which has had a stronghold in Pakistan since the Green Revolution of the 1970s, maize development and deployment activities are rather recent. Production of maize, Pakistan’s third most important cereal crop, is projected to keep on increasing over the next several years. Despite growth, 85-90 percent of maize seed is imported hybrid seed, which means the seed price in Pakistan is very high compared to seed prices in other South Asian countries.

“The current seed price of US $6-8/kilogram is too expensive for resource-poor farmers to adopt improved varieties. That is why CIMMYT aggressively embarked on testing such a huge quantity of maize varieties. Pakistan is the new frontier for CIMMYT, and development interventions can have a quick impact,” said AbduRahman Beshir, CIMMYT’s Maize Improvement and Seed Systems Specialist.

At its recently held annual meeting (8-9 April 2015), the AIP-Maize Working Group invited public and private partners to share the field performance results of CIMMYT maize varieties introduced from Colombia, Mexico and Zimbabwe. Some of the entries evaluated during the 2014 spring and summer season outyielded the commercial check by more than 50 percent. Sikandar Hayat Khan Bosan, Federal Minister of Food Security and Research, applauded AIP-Maize’s efforts after visiting the maize stall where AIP-Maize displayed a diversity of maize ears at a recent agricultural expo.

“Pakistan’s maize sector is being activated by AIP-Maize. Location testing followed by provision of parental lines for local seed production is the kind of support we need to have sustainable interventions,” said Shahid Masood, member (Plant Sciences) of the Pakistan Agricultural Research Council (PARC) who presided over a maize working group with more than 45 participants.

Based on a seed delivery road map, CIMMYT has started allocating the best performing varieties to partners, with three varieties already included in Pakistan’s maize register. Imtiaz Muhammad, CIMMYT’s country representative in Pakistan and AIP project leader, urged participants in the maize working group meeting to fast-track the deployment of CIMMYT varieties and distribute seed to resource-poor farmers.

According to Beshir, Pakistan’s yearly bill for imported hybrid maize seed reached US $56 million during 2013/14, which makes maize the highest priced imported seed among all the cereals. “The foundation is now being laid to make Pakistan self-sufficient in maize seed,” he said.

AIP-Maize is currently working with nine public and nine private companies representing the diverse ecologies of Pakistan. The AIP-Maize network is a platform for data and knowledge sharing, which helps to create synergies among stakeholders.

Participants in the annual AIP-Maize Working Group meeting. Photo: Amina Nasim Khan/CIMMYT.
Participants in the annual AIP-Maize Working Group meeting. Photo: Amina Nasim Khan/CIMMYT.

Maize lethal necrosis: a serious threat to food security in eastern Africa and beyond

MLN_WS_participants_w
Participants are shown how to inspect maize fields for MLN symptoms and how to collect samples for laboratory analysis.

Maize lethal necrosis (MLN) has rapidly emerged as one of the deadliest maize diseases in eastern Africa capable of causing complete yield loss under heavy disease pressure. This means that Kenya and neighboring countries which largely depend on maize as their main staple food and source of income are on the verge of a looming food and economic crisis.

The disease is difficult to control for two reasons: firstly, it is caused by a combination of viruses; secondly, it can be spread through seed and by insect vectors that may be carried by wind over long distances. Affected crops suffer various symptoms such as severe stunting, tassel abnormality, small ears with poor seed set, chlorotic leaf mottling, leaf necrosis and premature plant death.

Much more than CIMMYT and East Africa

Sixty phytosanitary regulators and seed industry scientists from 11 countries in eastern and southern Africa attended an MLN diagnostics and screening workshop from March 17–19, 2015, in Naivasha, Kenya. The objective of the workshop was to train scientists on the latest MLN diagnostics and screening methods and to share knowledge on how to control the spread of MLN. Besides DR Congo, Ethiopia, Kenya, Rwanda and Tanzania where the disease has been reported, other participants were from South Sudan and southern Africa (Malawi, Mozambique, South Africa, Zambia and Zimbabwe) that have no confirmed cases of MLN, but where maize is an important crop.

CIMMYT organized the workshop in response to the high demand for development of appropriate diagnostics methods and harmonization of regional protocols. Hence, facilitation by agencies like the Food and Agricultural Organization provided a much-needed regional overview of the MLN threat, in addition to perspectives from the International Centre of Insect Physiology Ecology and the Kenya Plant Health Inspectorate Services (KEPHIS) on MLN insect vectors and diagnostics methods respectively.

The workshop was conducted at the MLN screening facility in Naivasha, the largest of its kind established in response to the MLN outbreak in eastern Africa in 2013. It supports countries in the sub-Saharan region to screen seeds under artificial inoculation. The facility is managed jointly by the Kenya Agricultural and Livestock Research Organization (KALRO) and CIMMYT, and was established with support from the Bill & Melinda Gates Foundation and the Sygenta Foundation for Sustainable Agriculture. Biswanath Das, a maize breeder at CIMMYT, noted that “the site has evaluated more than 20,000 accessions since its inception in 2013 from over 15 multinational and national seed companies and national research programs.” This, he added, “has become a primary resource in the fight against MLN regionally.”

Collective pre-emptive actions for prevention: seeds of hope
Participants received hands-on training to identify symptoms of MLN-causing viruses and how to score disease severity by screening germplasm at the site. For some participants, this was a first. “This is my first time to see an MLN-infected plant. Now I understand the impact of MLN on maize production and the need to set up a seed regulatory facility. South Sudan has no laboratory to test planting materials. My first step will be to talk to my counterparts in the ministry to set up one,” said Taban James, a regulator from the Ministry of Agriculture in South Sudan.

DAS-ELISA_demo_w.jpg
CIMMYT staff demonstrate DAS–ELISA method used for detecting MLN-causing viruses.

The tragic reality is that almost all commercial maize varieties in East Africa are highly susceptible to MLN, based on evaluations done at the screening facility. Therefore, stronger diagnostic and sampling capacity at common border-points was agreed to be a key step towards controlling inadvertent introduction of MLN through contaminated seeds. This was particularly important for participants from southern Africa countries who noted an urgent need for surveillance at seed import ports and border areas to contain the spread.

Currently, Kenya, Uganda and Zimbabwe are the only countries that require imported seed to be certified as free of MLN-causing viruses. KEPHIS and CIMMYT have worked closely to restrict movement of germplasm from Kenya to countries in East Africa with reported MLN cases. Seed production fields are inspected thrice by KEPHIS, in addition to analysis of final seed lots. Plans are underway for CIMMYT in collaboration with the ministries of agriculture in Mexico and Zimbabwe to establish quarantine sites to ease germplasm movement in and out of these countries. Speaking on KEPHIS’ role, Francis Mwatuni, the officer-in-charge of Plant Quarantine and Biosecurity Station said, “We ensure all seed fields are inspected and samples tested for MLN resistance including local and imported seed lots from seed companies, to ensure that farmers get MLN-free seeds.”

The latest trends and options for diagnostics on MLN-causing viruses were covered as well, giving participants hands-on training using ELISA diagnostics systems. They were also briefed on polymerase chain reaction based diagnostics and the latest lateral flow diagnostic kits that are under development that will enable researchers to obtain diagnostic results in the field in minutes.

What next for MLN?
The rapid multiplication of the disease coupled with uncertainties over its spread is the biggest hurdle that scientists and other stakeholders are grappling with. KALRO Chief Researcher, Anne Wangai, who played a key role in discovering the disease in Kenya in 2011 observes that “The uncertainties over the transmission of MLN is a worrying phenomenon that requires stakeholders to urgently find a control point to manage and ensure seeds being given to farmers are MLN-free.”

Breeding remains a key component in the search for long-term solution for MLN, and several milestones have been covered to develop MLN-resistant varieties in East Africa. “CIMMYT has developed five hybrids with good MLN tolerance under artificial inoculation, which have either been released or recommended for release in Kenya, Uganda and Tanzania. Thirteen hybrids are currently under national performance trials in the three countries,” noted Mosisa Regasa, a maize seed system specialist at CIMMYT. He further added that it is critical for the MLN-tolerant hybrids to also have other traits important to farmers, so farmers accept these new hybrids.

Open information sharing forums like the diagnostics workshop are an important step to raise awareness and seek solutions to manage the disease. Sharing best practice and lessons learnt in managing the disease are major steps towards curbing MLN. In pursuit of this end, a major international conference on MLN opens next week.

Links: Slides from the workshop | Workshop announcement |Open call for MLN screening – May 2015

Low-cost innovations to benefit smallholder farmers in Nepal

A new investment by the U.S. Agency for International Development (USAID) in the Cereal Systems Initiative for South Asia in Nepal (CSISA-NP) was launched on 10 April, 2015 at a public event in Kathmandu. The investment by USAID India and USAID Washington, totalling US$ 4 million over four years, aims to work with the private and public sectors to benefit smallholder farmers by integrating scale-appropriate mechanization technologies with resource conservation and management best practices.

“For a country where 75 percent of the population makes its livelihoods in agriculture, these partnerships are absolutely important. Agriculture development, as we know, is one of the surest routes out of poverty,” remarked Beth Dunford, Mission Director, USAID Nepal at the launch. Eight million Nepalis still live in extreme poverty and almost 3 million Nepalis live in recurring food insecurity. “We also know that growth tied to gains in agricultural productivity is up to three times more effective at raising the incomes of the poor than growth from any other sector,” Dunford added.

The new phase of CSISA-NP, an initiative led by the International Maize and Wheat Improvement Center (CIMMYT), will build on successes and lessons learned from the ongoing work of CSISA Nepal, currently funded by USAID Nepal, and will continue to focus on districts in the mid-West and far-West regions of Nepal. It will complement USAID’s Feed the Future program, KISAN, which works to improve agricultural productivity and incomes for over one million Nepalis.

Beth Dunford, Mission Director, USAID Nepal, giving welcome remarks at the CSISA-NP new phase launch. Photo: Anuradha Dhar/CIMMYT
Beth Dunford, Mission Director, USAID Nepal, giving welcome remarks at the CSISA-NP
new phase launch. Photo: Anuradha Dhar/CIMMYT

The new workplan will be implemented in close collaboration with the Ministry of Agriculture and Nepal Agricultural Research Council, to strengthen seed value chains for timely access to improved varieties by farmers, promote sustainable intensification of agricultural systems through increasing lentil cultivation and better-bet management, increase wheat productivity using new technologies and better farming practices and facilitate precise and effective use of nutrients to increase crop yield.

A specific component of the new investment is designed to support and build the capacity of change agents like medium-sized seed companies, agro‐dealers and mechanized service providers. “Building on its success of working with the Indian private sector, CSISA will expand the program in Nepal to facilitate application of specialized, commercially-viable equipment for small and marginal farmers,” highlighted Bahiru Duguma, Director, Food Security Office, USAID India.

“CSISA supports more than 1,600 service providers in eastern Uttar Pradesh and Bihar in India and we want to replicate that success in Nepal of working with local entrepreneurs to help reach farmers with mechanized technologies,” said Andrew McDonald, CSISA Project Leader.

Rajendra Prasad Adhikari, Joint Secretary, Policy and International Cooperation Co-ordination Division, Ministry of Agricultural Development welcomed this initiative and said that this launch is very timely as the agricultural ministry has just developed and endorsed an agricultural mechanization promotion policy and the Nepal Agricultural Development Strategy is in its final shape.

The launch was well attended by representatives from the Nepal Ministry of Agriculture, Nepal Agricultural Research Council, Agriculture and Forestry University and USAID officials and received positive media coverage in Nepal.

Maize workshop sets stage for doubling production in India by 2025

The 58th All India Coordinated Annual Maize Workshop was held at Punjab Agricultural University (PAU) in Ludhiana, India during 4-6 April. The workshop brought together nearly 200 scientists in India working on maize research and development, as well as representatives from seed companies. The All India Coordinated Research Project (AICRP) on Maize was the first crop research project established in India in 1957 and served as a model for all following crop projects in the country.

Felicitation of B.M. Prasanna during the 58th All India Coordinated Maize Workshop (from right to left: J.S. Sandhu, A.S. Khehra, Gurbachan Singh, B.S. Dhillon, B.M. Prasanna and H.S. Dhaliwal). Photos: J.S. Chasms.
Felicitation of B.M. Prasanna during the 58th All India Coordinated Maize Workshop (from right to left: J.S. Sandhu, A.S. Khehra, Gurbachan Singh, B.S. Dhillon, B.M. Prasanna and H.S. Dhaliwal). Photos: J.S. Chasms.

“We need to double maize production and productivity in India through multi-institutional, multi-pronged strategies,” said B.M. Prasanna, director of CIMMYT’s global maize program, during the workshop’s keynote lecture. He went on to explain how “this can be achieved through germplasm enhancement, broadening the phenotyping scale and precision and accelerating breeding through doubled haploid technology, among other improved technologies and management practices.”

“The partnership between the Indian Council of Agricultural Research (ICAR) and CIMMYT over the last several decades has benefited the Indian breeding program immensely, from providing germplasm to receiving support for human resource development,” said O.P. Yadav, Director of the Indian Institute of Maize Research (IIMR). Yadav presented AICRP-Maize’s 2014 achievements, such as the release of 17 new varieties and national maize production reaching its highest level (24 million tons).

A panel discussion co-chaired by Prasanna and J.S. Sandhu, Deputy Director General-Crop Science at ICAR, entitled “Doubling maize production in India by 2025: Opportunities and Challenges” drew representatives from several public and private institutions working on maize. Prasanna and A.S. Khehra, former PAU Vice-Chancellor, were congratulated for their outstanding achievements in maize research, including the release of several improved maize varieties and advances in genetics and molecular breeding.

Inaugural function of the 58th All India Coordinated Maize Workshop (from left to right: H.S. Dhaliwal, O.P. Yadav, A.S. Khehra, J.S. Sandhu, Gurbachan Singh, B.S. Dhillon, S.K. Sharma, I.S. Solanki and B. Singh.)
Inaugural function of the 58th All India Coordinated Maize Workshop (from left to right: H.S. Dhaliwal, O.P. Yadav, A.S. Khehra, J.S. Sandhu, Gurbachan Singh, B.S. Dhillon, S.K. Sharma, I.S. Solanki and B. Singh.)

“Genetic gains must also translate to yield gains in farmers’ fields,” Prasanna declared. “We must effectively integrate improved varieties that meet the needs of farming communities with sustainable intensification practices.”

The workshop closed with an overview of achievements and finalization of a 2015 work plan, with scientists from AICRP-Maize Centres and CIMMYT providing input. Also in attendance were Gurbachan Singh, Chairman of India’s Agricultural Service Recruitment Board; BS Dhillon, Vice-Chancellor of PAU; SK Sharma, Chairman of IIMR’s Research and Advisory Committee; IS Solanki, Assistant Director of ICAR’s General-Food Crops; and S.K. Vasal, retired CIMMYT Distinguished Scientist.

Two-wheeled tractors key to smallholder mechanization in Africa

The Farm Mechanization and Conservation Agriculture for Sustainable Intensification (FACASI) project held its second review and planning meeting, as well as mid-term review, during a five-day event in Hawassa, Ethiopia. This was followed by country site visits by the review team.

“The goal of FACASI is to improve farm power balance, reduce labor drudgery and minimize biomass trade-offs in eastern and southern Africa through accelerated delivery and adoption by smallholders of two-wheeled tractor (2WT)-based technologies,” said J.C. Achora, Knowledge and Information Manager, African Conservation Tillage Network. The meeting highlighted the importance of 2WT technologies to smallholders through five field visits, consisting of a youth community project, a vocational youth training institution, government research centers and manufacturing plants.

“Opportunities for use of two-wheeled tractors exist,” said Achora. “New projects coming up will ignite the demand for the two-wheeled tractors, and could trigger an increase in imports and manufacturing in Africa. Perhaps not too far in the future two-wheeled tractors could be the stepping stone to smallholder farm mechanization in Africa.”

FACASI participants learned and shared experiences on small-scale agricultural machinery, specifically the two-wheeled tractor, in diverse environments. Participants observed and drew lessons from services that support small-farm mechanization and associated business models.

Other places visited included the Hawassa research station for demonstrations of seeders and multi-use shellers and threshers, the Ato Tibebe Selemon Metal works, and the Selam Hawassa Business and Vocational College, which provides disadvantaged youth with practical training in metal fabrication and assembly and electrical installations. The last visit was to the Metals and Engineering Corporation (METEC), which integrates engineering into machines and installs industrial facilities.

Ethiopian seed companies express interest in QPM, seek CIMMYT support

QPM seed production management training in progress. Photos: S. Mahifere/CIMMYT
QPM seed production management training in progress. Photos: S. Mahifere/CIMMYT

Managers of private and public seed companies in Ethiopia have expressed interest to produce and broadly market quality protein maize (QPM) seed, provided that they get technical and other necessary support from the Nutritious Maize for Ethiopia (NuME) project.

The managers attended a three-day workshop on Seed Business Management organized by NuME from March 23–25 in Addis Ababa, Ethiopia. The training was aimed at improving the capacity of seed companies to produce QPM seed at the required quantity and quality for the sustainable adoption of QPM.

Ms. Elsa Asfaha (right), Manager, Alamata Agroprocessing, receives her certificate from Tafesse Gebru (middle), the Chief Executive Officer of the Ethiopian Seed Enterprise, while Adefris Teklewold (left), NuME project leader, looks on.
Ms. Elsa Asfaha (right), Manager, Alamata Agroprocessing, receives her certificate from Tafesse Gebru (middle), the Chief Executive Officer of the Ethiopian Seed Enterprise, while Adefris Teklewold (left), NuME project leader, looks on.

In his keynote address, Dr. Adugna Wakjira, the Deputy Director General of the Ethiopian Institute of Agricultural Research, noted that “many challenges are involved in seed production and delivery systems and it is thus critical that seed companies, both public and private, enhance their capacities to engage in the QPM value chain.”

Adefris Teklewold, NuME project leader, briefed participants about the project and its many accomplishments so far and pledged that “NuME will do all it can to address challenges faced by seed companies in producing QPM seed.”

“All issues and concerns in the seed value chain need to be considered, including seed quality, branding as well as maize lethal necrosis,” Adefris noted.

 

CIMMYT appoints a new regional representative for Africa

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Stephen Mugo
CIMMYT has appointed Stephen Mugo as the new CIMMYT–Africa Regional Representative (CRR) and the CIMMYT–Kenya Country Representative (CCR). He takes over these two roles from the late Wilfred Mwangi, who served CIMMYT for 27 years, the last of them as Africa Regional Liaison Officer before his demise in December 2014. Mugo brings to the position 32 years of experience in agricultural research, 17 of them in service to CIMMYT under different capacities, including his current role as CIMMYT’s leader in the Water Efficient Maize for Africa (WEMA) Project.

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Bekele Abeyo
CIMMYT has two other offices in Africa: the Ethiopia country office with Bekele Abeyo as the CIMMYT–Ethiopia Country Representative (CCR), and the Zimbabwe country office with Mulugetta Mekuria as CCR. Mulugeta also doubles as the Southern Africa Sub-Regional Representative.Together, Stephen Mugo, Bekele Abeyo and Mulugetta Mekuria serve as the CIMMYT contact persons in Africa for donors and governments, and they oversee regional and local office operations.

Mulugetta Mekuria
Mulugetta Mekuria
CIMMYT has 200 staff based in Africa, of whom one-third are internationally recruited and two-thirds are locally recruited. CIMMYT executes nearly 40 percent of its regional targeted activities in Africa. These activities are in collaboration with partners in 24 countries, besides other sister CGIAR centers.

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B.M. Prasanna
CIMMYT’s overall research oversight is managed globally through five research programs – the Genetic Resources Program (led by Kevin Pixley, based in Mexico), the Global Maize Program (led by B.M. Prasanna, based in Kenya), the Global Wheat Program (led by Hans Braun, based in Mexico), the Conservation Agriculture Program (led by Bruno Gerard, based in Mexico) and the Socioeconomics Program (led by Olaf Erenstein, based in Mexico).

Link: Our work in Africa

Outcome of first International Biological Nitrification Inhibition Workshop

IMG_4217_c6538f9393010d859f2db21d5e8a8f18 Suppressing soil nitrification and increasing Nitrogen Use Efficiency (NUE) is critical to reversing the N-fertilizer overuse and minimizing its environmental impact.

Global nitrogen (N) fertilizer consumption has increased  10-fold since 1960s, but food grain production has only tripled during this period, resulting in a decrease in NUE.

Of the 150 million tons of N-fertilizer currently applied to agricultural systems globally, up to 70 percent is not recovered by the crop and often results in negative environmental impact through pathways such as nitrate-leaching and nitrous oxide emissions, according to a report by William Schlesinger..

Nitrate is an important groundwater pollutant and nitrous oxide (N2O) is a powerful greenhouse gas. Annual economic losses from lost N-fertilizer is estimated at $90 billion. If this trend continues, annual N-fertilizer application will double by 2050 and global N2O emissions from agriculture will reach 19 million tons of N y-1 by then, according to Schlesinger.

Biological nitrification inhibition (BNI) is the ability of certain plants to suppress nitrifying activity by releasing nitrification inhibitors from root systems. This phenomenon has been observed in tropical grasses (Brachiaria spp.), food crops (sorghum) and wheat-wild relatives (Leymus spp.).

Japan International Research Center for Agricultural Sciences (JIRCAS) has been working together with three CGIAR Centers (International Center for Tropical Agriculture [CIAT], CIMMYT and International Crops Research Institute for the Semi-Arid Tropics [ICRISAT]) to advance this research and to develop technological components for BNI, including genetic and agronomic aspects.

The International BNI Workshop held at JIRCAS on March 2 and 3, 2015 was attended by 40 researchers representing four CGIAR Centers (CIAT, CIMMYT, ICRISAT and the International Livestock Research Institute [ILRI]) leading four CGIAR Research Programs (CRPs), including the Research Program on Climate Change, Agriculture and Food Security (CCAFS), Wheat (WHEAT), the Research Program on Dryland-Cereals, the Research Program on Livestock and Fish Livestock and Fish) and several Japanese organizations (national agricultural institutes, and universities).

The major conclusions from the workshop are:

  • Reduced nitrification is essential to reduce N2O emissions and to improve NUE in agricultural systems. As part of a comprehensive approach incorporating genetic and agronomic management solutions, BNI-technology will reduce nitrogen losses, facilitate nitrogen retention and improve soil-health in next-generation climate-smart production systems.
  • Developing and deploying BNI-technology requires collaboration among Japanese institutions, CGIAR centers and institutions from developing countries.
  • The four CRPs will include BNI research in their program plans (2017-2026) and seek donor support as part of developing and deploying climate-smart agricultural practices.
  • JIRCAS, together with CGIAR partners, formed a consortium on BNI Research for Sustainable Development, with JIRCAS in a convening and coordinating role.

Links to JIRCAS, participating CGIAR Centers and CRPs in BNI Research Consortium
http://www.jircas.affrc.go.jp/index.html
http://livestockfish.cgiar.org/
http://drylandcereals.cgiar.org/
http://wheat.org/
http://maize.org/
http://ccafs.cgiar.org/
http://ciat.cgiar.org/
http://staging.cimmyt.org/en/
http://www.icrisat.org/

References:

Schlesinger W. 2009. On the fate of anthropogenic nitrogen. PNAS (USA) 106:203-208.