Livestock and climate change: Towards credible figures

Cow in Rajasthan, India

Profile of a cow kept by the Rajasthani agro-pastoralists who have inhabited India’s state of Rajasthan (‘land of kings’ or ‘colours’), from the Great Thar Desert in the northwest to the better-watered regions of the southeast, since parts of it formed the great trading and urban Indus Valley (3000-500 BC) and Harappan (1,000 BC) civilizations (photo credit: ILRI/Susan MacMillan).

We know that livestock produce significant amounts of greenhouse gases. Just how much remains somewhat contentious, with the estimated contributions of livestock to global greenhouse gas emissions ranging from 10 to 51%, depending on who is doing the analyses, and how.

A new commentary, published in a special ‘animal feed’ issue of the scientific journal Animal Feed and Technology, examines the main discrepancies between well known and documented studies such as FAO’s Livestock Long Shadow report (FAO 2006) and some more recent estimates. The authors of the commentary advocate for better documentation of assumptions and methodologies for estimating emissions and the need for greater scientific debate, discussion and scrutiny in this area.

The authors of the new article, ‘Livestock and greenhouse gas emissions: The importance of getting the numbers right,’ are a distinguished group of experts from diverse institutions working in this area, including the Food and Agriculture Organization of the United Nations (FAO, Rome), Wageningen University and Research Centre (Netherlands), the Food Climate Research Network at the Centre for Environmental Strategy (FCRN, University of Surrey), the European Commission’s Joint Research Centre at the Institute for Environment and Sustainability (JRC, Italy), the Netherlands Environmental Assessment Agency (PBL, Bilthoven), Aarhus University’s Department of Agroecology and Environment (Denmark), New Zealand’s Ministry of Agriculture and Forestry (Wellington), the Institute Nationale de la Recherche Agronomique (France), the Agriculture and Agri-Food Canada group at Lethbridge Research Centre (Alberta) and the International Livestock Research Institute (ILRI, Nairobi).

This group of international scientists presents the case of one recent argument as follows.

‘In 2006, the FAO’s Livestock’s Long Shadow report (FAO, 2006), using well documented and rigorous life cycle analyses, estimated that global livestock contributes to 18% of global GHG [greenhouse gas] emissions. According to the study the main contributors to GHG from livestock systems are land use change (carbon dioxide, CO2), enteric fermentation from ruminants (methane, CH4) and manure management (nitrous oxide, N2O).

‘A . . . non-peer reviewed report published by the Worldwatch Institute (Goodland and Anhang 2009) contested these figures and argued that GHG emissions from livestock could be closer to 51% of global GHG emissions. In our view, this report has oversimplified the issue with respect to livestock production. It has emphasised the negative impacts without highlighting the positives and, in doing so, has used a methodological approach which we believe to be flawed.’

Mario Herrero, lead author of the Animal Feed and Technology paper, is a systems analyst and climate change specialist working at the International Livestock Research Institute (ILRI). Herrero argues that Goodland and Anhang, while claiming in the non-scientifically peer-reviewed World Watch Magazine (which is published by Worldwatch Institute) that livestock generate 51% of total anthropogenic greenhouse gas emissions rather than the 18% reported by FAO in 2007, fail to detail the methodologies they used to come up with this new figure, fail to use those methods consistently across different sectors, and fail to follow global guidelines for assessing emissions set by the Intergovernmental Panel on Climate Change and Kyoto Protocol.

Furthermore, Hererro says, the World Watch authors’ solution to livestock’s contribution to global warming—’to eat less animal products, or better still, none at all’—could push some 1 billion livestock keepers and consumers living on little more than a dollar a day into even greater poverty (small livestock enterprises are the mainstay of many poor people) and severe malnourishment (milk is among the few high-quality foods readily available to many poor people, with consumption of modest quantities of dairy making the difference between health and illness, especially in children and women of child-bearing ages).

Goodland and Anhang also fail to enlarge on any counterfactuals, such as what a world without domesticated livestock would look like.

Over a billion people make a living from livestock, says ILRI director general Carlos Seré. Most of them are among the poorest of the poor. What, other than livestock keeping, would most African and Indian farming households turn to in order to meet their needs for scarce protein, fertilizer, employment, income, traction, means of saving, and insurance against crop failure?

While many of us may find the factory farming of animals in rich countries objectionable on several grounds, Seré says, we must be responsible not to conflate industrial grain-fed livestock systems of rich producers with the family farming and herding practices of hundreds of millions of poor producers, most of whom still maintain their animals not on grain but on pasture grass and other crop wastes not edible by humans.

The biggest concern of many experts regarding livestock in developing countries, Seré says, is not their impact on climate change but rather the impact of climate change on livestock production.

The hotter and more extreme tropical environments being predicted threaten not only up to a billion livelihoods based on livestock but also supplies of milk, meat and eggs among hungry communities that need these nourishing foods most. For people living in absolute poverty and chronic hunger, the solution is not to rid the world of livestock, but rather to find ways to farm animals more efficiently and profitably, as well as sustainably.

Tara Garnett, a co-author of the new paper and a research fellow at the Centre for Environmental Strategy at the University of Surrey, in the UK, investigates issues around livestock and greenhouse gas emissions in her highly credible and readable publication Cooking up a Storm: Food, Greenhouse Gas Emissions and Our Changing Climate (2008). Garnett, who also runs the Food Climate Research Network (FCRN), which brings together nearly 2,000 individuals from a broad variety of disciplines to share information on issues relating to food and climate change, agrees with Seré on this.

By 2050, on current projections, Garnett reports, the developing world will still, on average, be eating less than half as much meat as people do in the rich world, and only a third of the milk. There is a long way to go before they catch up with developed world levels.

While there is an increasingly urgent need to reduce demand for meat and dairy products among consumers in developed countries, and also to moderate rapid growth in demand for these foods in emerging, rapidly industrializing, countries, for the world’s poorest people, small-scale livestock enterprises can increase household incomes and improve livelihoods. Greater consumption of meat and dairy products—in addition to a more diverse range of plant-based foods—can play a critical role in combatting malnutrition and enhancing nutritional status.’

Herrero and Garnett and their other co-authors conclude that ‘Livestock undoubtedly need to be a priority focus of attention as the global community seeks to address the challenge of climate change. The magnitude of the discrepancy between the Goodland and Anhang paper (2009) and widely recognized estimates of GHG from livestock (FAO, 2006), illustrates the need to provide the climate change community and policy makers with accurate emissions estimates and information about the link between agriculture and climate.

‘Improving the global estimates of GHG attributed to livestock systems is of paramount importance. This is not only because we need to define the magnitude of the impact of livestock on climate change, but also because we need to understand their contribution relative to other sources. Such information will enable effective mitigation options to be designed to reduce emissions and improve the sustainability of the livestock sector while continuing to provide livelihoods and food for a wide range of people, especially the poor. We need to understand where livestock can help and where they hinder the goals of resilient global ecosystems and a sustainable, equitable future for future generations.

‘We believe these efforts need to be part of an ongoing process, but one that is to be conducted through transparent, well established methodologies, rigorous science and open scientific debate. Only in this way will we be able to advance the debate on livestock and climate change and inform policy, climate change negotiations and public opinion more accurately.’

Read the whole post-print paper by Mario Herrero, P Gerber, T Vellinga, T Garnett, A Leip, C Opio, HJ Westhoek, PK Thornton, J Olesen, N Hutchings, H Montgomery, J-F Soussana, H Steinfeld and TA McAllister: Livestock and greenhouse gas emissions: The importance of getting the numbers right, a special issue on ‘Greenhouse Gases in Animal Agriculture—Finding a Balance between Food and Emissions’ published this month in 2011 in Animal Feed Science and Technology 166–167: 779–782 (doi: 10.1016/j.anifeedsci.2011.04.083).

Read the Goodland and Anhang article in World Watch Magazine: Livestock and Climate Change: What if the key actors in climate change are…cows, pigs, and chickens? November/December 2009.

Mixed crop-and-livestock farmers on ‘extensive frontier’ critical to sustainable 21st century food system

Extensive farming in central Malawi

An extensive agricultural landscape typical of central rural Malawi (photo credit: ILRI/Mann).

Agricultural systems analyst Mario Herrero, who leads a Sustainable Livestock Futures group at the International Livestock Research Institute (ILRI) in Kenya, gave a slide presentation last November at an invitation-only US National Academy of Sciences’ scoping meeting on The role of animal agriculture in a sustainable 21st century global food system, held in Washington DC’s Dupont Circle.

Among the conclusions Herrero makes in his slide presentation, Food security, livelihoods and livestock in the developing world, is the need to change our agricultural investment paradigms so that we invest not only in the high-potential agricultural lands of the past (many of which, he says, are already ‘maxed out’), but also in the agricultural lands of the future.

What are these ‘agricultural lands of the future’? Well, those on which relatively extensive mixed crop-and-livestock systems are being practiced, for one.

For more on this topic, see ILRI’s current corporate report: Back to the future: Revisiting mixed crop-livestock systems, 2010, the foreword of which, by ILRI director general Carlos Seré and ILRI board chair Knut Hove, follows.

ILRI Corporate Report 2009-2011: Cover

ILRI’s Carlos Seré and Knut Hove say it’s ‘mixed farms’,
more than breadbaskets or ricebowls,
that will feed the world over the next two decades.

A hitherto disregarded vast group of farmers—those mixing crops with livestock on ‘in between’ lands—neither high-potential farmlands nor low-potential rangelands—are heavyweights in global food security.

This year’s corporate report by the International Livestock Research Institute (ILRI) looks ‘back to the future’—to the thousand million farmers practicing small-scale mixed crop-and-livestock agriculture in poor countries—the kind of seemingly old-fashioned family farming systems that have become so fashionable in recent years among those wanting to reform the industrial food systems of rich countries.

Scientists at ILRI and seven other leading international agricultural research organizations around the world recently looked at the future of this form of farming and determined that it is ‘mixed farms’—not breadbaskets or ricebowls—that will feed most people over the next two decades.

Their report shows that it is not big efficient farms on high potential lands but rather one billion small ‘mixed’ family farmers tending rice paddies or cultivating maize and beans while raising a few chickens and pigs, a herd of goats or a cow or two on relatively extensive rainfed lands who feed most of the world’s poor people today. This same group, the report indicates, is likely to play the biggest role in global food security over the next several decades, as world population grows and peaks (at 9 billion or so) with the addition of another 3 billion people.

Remarkably, this is the first study ever to investigate the state of the world’s most prevalent kind of farmers—those who keep animals as well as grow crops. A major implication of the new report is that governments and researchers are mistaken to continue looking to high-potential lands and single-commodity farming systems as the answer to world hunger. As the study shows, many highly intensive agricultural systems are reaching their peak capacity to produce food and should now focus on sustaining rather than increasing yields.

A hitherto disregarded vast group of farmers—those mixing crops with livestock on ‘in between’ lands—neither high-potential farmlands nor low-potential rangelands—are heavyweights in global food security.

The authors of this multi-institutional and multi-disciplinary study, most belonging to centres of the Consultative Group on International Agricultural Research (CGIAR), agree with many other experts that we need to bring our focus back to small-scale farms. But this report goes further, distinguishing one particular kind of small-scale farmer that should be our focus: this is the mixed farmer growing crops and raising animals in the world’s more extensive agricultural systems, which are described in detail on the next page.

These ‘mixed extensive’ farms make up the biggest, poorest and most environmentally sustainable agricultural system in the world. It is time we invested heavily in this particular kind of farming system. Here is where there remain the biggest yield gaps. Here is where we can make the biggest difference.

The billions of dollars promised by the international donor community to fund small-scale farming in developing countries are likely to fail unless policies are reoriented towards this particular, most ubiquitous, and till now most neglected, form of agriculture. What this ‘extensive frontier’ needs are the most basic forms of infrastructure and services. With these at hand, the world’s extensive mixed farmers will be in good position to scale up their food production to meet future needs.

Read ILRI’s corporate report: Back to the future: Revisiting mixed crop-livestock systems, 2010.

Watch a 4-minute ILRI photofilm (audio with still pictures) illustrating the importance of small-scale mixed crop-and-livestock farmers: Tribute to the Unsung Heroes of Small-scale Food Production, 2011.

Those wanting more detail on the future of mixed farming should consult the research report by the CGIAR Systemwide Livestock Programme: Drivers of change in crop-livestock systems and their potential impacts on agroecosystems services and human well-being to 2030, 2009.

‘Virtual Kenya’ web platform launched today: User-friendly interactive maps for charting human and environmental health

Map of the Tana River Delta in Nature's Benefits in Kenya

Map of the the Upper Tana landforms and rivers published in Nature’s Benefits in Kenya Nature’s Benefits in Kenya: An Atlas of Ecosystems and Human Well-Being, published in 2007 by the World Resources Institute, the Department of Resource Surveys and Remote Sensing of the Kenya Ministry of Environment and Natural Resources, the Central Bureau of Statistics of the Kenya Ministry of Planning and National Development, and ILRI.

For the last nine months, the World Resources Institute (USA) and Upande Ltd, a Nairobi company offering web mapping technology to the African market, have been working to develop what has been coined ‘Virtual Kenya,’ an online interactive platform with related materials for those with no access to the internet.  The content was developed by the International Livestock Research Institute (ILRI), the Kenya Department of Resource Surveys and Remote Sensing (DRSRS) and the Kenya National Bureau of Statistics (previously the Central Bureau of Statistics). The Wildlife Clubs of Kenya and Jacaranda Designs Ltd developed offline educational materials. Technical support was provided by the Danish International Development Assistance (Danida) and the Swedish International Development Agency (Sida).

The Virtual Kenya platform was launched this morning at Nairobi’s ‘iHub’ (Innovation Hub), an open facility for the technology community focusing on young entrepreneurs and web and mobile phone programers, designers and researchers. Peter Kenneth, Kenya’s Minister of State for Planning, National Development and Vision 2030, was the guest of honour at the launch.

The minister remarked that:

Given that the government has facilitated the laying of fibre optic cabling across the country and is now in the process of establishing digital villages in all the constituencies, the Virtual Kenya initiative could not have come at a better time. I hope that it will accelerate the uptake of e-learning as an important tool in our school curriculum.

Virtual Kenya is designed to provide Kenyans with high-quality spatial data and cutting-edge mapping technology to further their educational and professional pursuits. The platform provides, in addition to online access to publicly available spatial datasets, interactive tools and learning resources for exploring these data.

Users both inside and outside of Kenya will be able to view, download, publish, share, and comment on various map-based products.

The ultimate goal of Virtual Kenya is to promote increased data sharing and spatial analysis for better decision-making, development planning and education in Kenya, while at the same time demonstrating the potential and use of web-based spatial planning tools.

The Atlas
At the moment, the Virtual Kenya platform features maps and information based on Nature’s Benefits in Kenya: An Atlas of Ecosystems and Human Well-Being, published jointly in 2007 by the World Resources Institute (USA), ILRI, DRSRS the National Bureau of Statistics. Publication of the Atlas was funded by Danida, ILRI, Irish Aid, the Netherlands Ministry of Foreign Affairs, Sida and the United States Agency for International Development.

The Atlas overlays geo-referenced statistical information on human well-being with spatial data on ecosystems and their services to yield a picture of how land, people, and prosperity are related in Kenya.

By combining the Atlas’s maps and data on ecosystem services and human well-being, analysts can create new ecosystem development indicators, each of them capturing a certain relationship between resources and residents that can shed light on development in these regions. This approach can be used to analyze ecosystem-development relationships among communities within a certain distance of rivers, lakes and reservoirs; or the relations between high poverty areas and access to intensively managed cropland; or relations among physical infrastructure, poverty and major ecosystem services.

Decision-makers can use the maps to examine the spatial relationships among different ecosystem services to shed light on their possible trade-offs and synergies or to examine the spatial relationships between poverty and combinations of ecosystem services.

Virtual Kenya Platform
The Virtual Kenya platform is designed to allow users with more limited mapping expertise, specifically in high schools and universities, to take full advantage of the wealth of data behind the Atlas. The website also introduces more advanced users to new web-based software applications for visualizing and analyzing spatial information and makes public spatial data sets freely available on the web to support improved environment and development planning.

The Virtual Kenya website provides users with a platform to interactively view, explore, and download Atlas data in a variety of file formats and software applications, including Virtual Kenya Tours using Google Earth. In addition, GIS users in Kenya will—for the first time—have a dedicated online social networking community to share their work, comment and interact with each other on topics related to maps and other spatial data.

For those with limited mapping and GIS experience, Virtual Kenya will increase awareness of resources and tools available online to visualize and explore spatial information. For users and classrooms that do not have access to the Internet yet, other materials such as wall charts, student activity booklets, teachers guide, as well as the DVD with all the Virtual Kenya data and software will be available, giving them the opportunity to interact with tools available on the Virtual Kenya website.

Virtual Kenya email: info@virtualkenya.org

Virtual Kenya on the web:
Website: http://virtualkenya.org
Twitter: @virtualkenya
Facebook: VirtualKenya
YouTube: http://youtube.com/user/VirtualKenya

Read more about Nature’s Benefits in Kenya: An Atlas of Ecosystems and Human Well-Being, or download the Atlas, published by World Resources Institute, ILRI, Kenya Central Bureau of Statistics, and Kenya Department of Remote Surveys and Remote Sensing, 2007.

Editor’s note: The Kenya Department of Resource Surveys and Remote Sensing (DRSRS) was incorrectly named in the original version and corrected on 26 June 2011.

Short film illustrates expanded, agile partnerships behind recent disease research breakthrough

This short (5-minute) film, ‘Battling a Killer Cattle Disease’, produced by the International Livestock Research Institute (ILRI), provides background and context for a recent research breakthrough made at ILRI’s animal health laboratories in Nairobi, Kenya, and at their partner institutions in the UK and Ireland. The research was funded over 7 years in large part by the Wellcome Trust in addition to the Consultative Group on International Agricultural Research (CGIAR).

Trypanosomosis is a wasting disease of livestock that maims and eventually kills millions of cattle in Africa and costs the continent billions of dollars annually.

In 2011, a group of geneticists at these collaborating institutions identified two genes that enable Africa’s ancient N’Dama cattle breed to resist development of the disease trypanosomosis when infected with the causative, trypanosome, parasite.

The team members were able to make use of the latest gene mapping and genomic technologies because they had the genetic systems and experimental populations of livestock in place to do so as these technologies came on stream.

Eventually, these results should make it easier for livestock breeders in Africa to breed animals that will remain healthy and productive in areas infested by the disease-carrying tsetse fly.

The international team that came together in this project is an example of the disciplinary breadth as well as agility needed to do frontline biology today. In this work, the team developed several new research approaches and technologies that were needed to unravel some fundamental biological issues, with likely benefits for many African farmers and herders.

Those interviewed in the film include Harry Noyes, at the University of Liverpool; Alan Archibald, at the Roslin Institute at the University of Edinburgh; Andy Brass, at the University of Manchester; and Steve Kemp and Morris Agaba, at ILRI.

A tribute to the heroes of small-scale food production

Watch ILRI’s new 4-minute photofilm, A tribute to the unsung heroes of small-scale food production.

A hitherto disregarded vast group of farmers—those who farm both crops and livestock—hold the key to feeding the world in coming years. Most of the world’s ‘mixed’ farmers are smallholders tending rice paddies or cultivating maize and beans while raising a few animals. A research report led by the International Livestock Research Institute (ILRI) indicates that this group is likely to play the biggest role in global food security over the next several decades (see ILRI Corporate Report 2009-2010, ‘Back to the Future: Revisiting mixed crop-livestock systems’). This photofilm celebrates these ‘unsung heroes’—both the mixed farmers themselves and their farm animals.

 

Some of our readers will remember that last year a perspective piece by ILRI was published in a special February 2010 issue of Science on food security, “Smart Investments in Sustainable Food Production: Revisiting Mixed Crop-Livestock Systems”, focused on the importance of the same smallholder mixed farmers.

This article was based on results of a study by the Systemwide Livestock Programme of the CGIAR Consortium.

Small farms that combine crop and livestock production supply much of the food staples (41 percent of maize, 86 percent of rice, and 74 percent of millet), as well as most of the meat and dairy products consumed in these countries.

The billions of dollars promised by the international donor community to fund small-scale agriculture farming are likely to fail unless policies are reoriented towards these ‘mixed’ farmers.

The pressures of climate change and finite resources, as well as the increasing demand for milk, meat and eggs across the developing world, will require proper planning, looking beyond ‘business as usual investments,’ and a greater ‘intellectual commitment’ to understanding food systems in the developing world.

Read more on this topic in ILRI’s Corporate Report 2009–2010: Back to the Future: Revisiting Mixed Crop-Livestock Systems, 2009.

Or visit the CGIAR Systemwide Livestock Programme website.

Amid soaring meat costs, officials from East Africa and Middle East seek plan to keep animal diseases from disrupting livestock trade

Orma Boran cattle crossing a river in Kenya

New approach to Rift Valley fever outbreaks aims to ensure food safety as region boosts livestock imports from Africa (photo credit: ILRI/Dolan)

With increased trade in livestock products offering a possible antidote to high food prices, livestock experts from the Middle East and 12 African countries are meeting this week (13-16 June, 2011) in Dubai to develop a strategy that eliminates the need to impose devastating bans on livestock imports from the Horn of Africa, as prevention against the spread of Rift Valley fever. The strategy should expedite the flow of livestock products while increasing safety of the overall livestock trade in the region.

Convened by the African Union’s Interafrican Bureau for Animal Resources (AU-IBAR), the International Livestock Research Institute (ILRI) and the United States Agency for International Development (USAID), the workshop will encourage officials and livestock traders to use a simple ‘Decision Support Planning Tool’ to guide and moderate their responses to Rift Valley fever outbreaks.

The ‘decision support tool’ for Rift Valley fever was developed by 30 experts and decisions-makers from across the Horn of Africa with technical assistance from researchers at ILRI, the United Nations’ Food and Agriculture Organization (FAO), and other partners. The tool will be used by chief veterinary officers and other national decision-makers. Its framework identifies the sequence of events likely to occur as the risk of a disease outbreak increases.

Rift Valley fever is a mosquito-borne virus found in eastern, western and southern Africa, Yemen and Saudi Arabia. Epidemics emerge periodically with prolonged rains. Climate and land-use changes could make outbreaks more frequent. A study done by ILRI economists Karl Rich and Francis Wanyoike indicated that the Rift Valley fever outbreak in 2007 cost Kenya at least USD32 million.

‘We must avoid unnecessary disruptions in agricultural trade between East Africa and the Middle East,’ said Ahmed El Sawalhy, director of AU-IBAR. ‘Livestock products must be safe and action concerning disease outbreaks must be in line with the actual threat.’ To this end, an animal health certification model suitable for pastoral livestock production systems and that promotes OIE standards has been developed by AU-IBAR in partnership with FAO and the Royal Veterinary College, London. The model is based on risk assessment and involves integration of both upstream animal health inspection and certification at entry points, markets and at the quarantines.

Time is also of critical importance in prevention and control of transboundary animal diseases. ‘In the last Kenyan Rift Valley fever outbreak, control measures were implemented late—not until there were definitive signs of an outbreak,’ said Jeffrey Mariner, an epidemiologist at ILRI. ‘This tool links early warning signs to control measures that can be implemented before animals or people begin falling ill. The new tool could reduce the impact of Rift Valley fever, and maybe even prevent some local outbreaks and has the potential to prevent the spread of Rift Valley fever through trade.’

‘The good news,’ says Bernard Bett, an epidemiologist at ILRI, ‘is that the impact of Rift Valley fever can be mitigated with early action during an outbreak, but veterinary officers and  decision-makers need to know what interventions to implement—and when—as the  stages of an epidemic  unfold.’

Rift Valley fever is best prevented through animal vaccination. But vaccines are expensive and few governments are willing to pay for expensive vaccines unless evidence indicates an epidemic is imminent. Regional cooperation is required to build consensus on managing the disease and to prevent trade disruptions.

Larry Meserve, USAID/EA’s regional mission director commented, ‘President Obama’s Feed the Future initiative aims to increase food security throughout Africa. To succeed, we must all help to improve the capacity of leadership in the Horn of Africa to anticipate potentially disastrous events like disease epidemics so that appropriate preventive or mitigating measures are taken before it is too late. Livestock is a vital staple crop in this part of the world, and both the private and public sectors have to do everything possible to prevent unnecessary disruptions in the trade of livestock and other commodities.’

Visit the official workshop blog site: http://rvfworkshop2011.wordpress.com

In the crosshairs of hunger and climate change: New ILRI-CCAFS study maps the global hotspots

Please find a corrected and revised statement below, along with a link to download revised maps here: http://ccafs.cgiar.org/resources/climate_hotspots. All edits to the original article posted on this blog are reflected in RED and BOLDFACE below.

Five per cent reduction in crop season sensitivity to change capacity to cope: Corrected version

Five per cent reduction in crop season sensitivity to change capacity to cope: Corrected 13 Jul 2011 (map credit ILRI/CCAFS/Notenbaert).

A new study out today reveals future ‘hotspots’ of risk for hundreds of millions whose food problems are on a collision course with climate change. The scientists conducting the study warn that disaster looms for parts of Africa and all of India if chronic food insecurity converges with crop-wilting weather. They went on to say that Latin America is also vulnerable.

The red areas in the map above are food-insecure and intensively farmed regions that are highly exposed to a potential five per cent or greater reduction in the length of the growing season. Such a change over the next 40 years could significantly affect food yields and food access for 369 million people—many of them smallholder farmers—already living on the edge. This category includes almost all of India and significant parts of West Africa. While Latin America in general is viewed as having a ‘high capacity’ to cope with such shifts, there are millions of poor people living in this region who very dependent on local crop production to meet their nutritional needs (map credit: ILRI-CCAFS/Notenbaert).

This study matches future climate change ‘hotspots’ with regions already suffering chronic food problems to identify highly-vulnerable populations, chiefly in Africa and South Asia, but potentially in China and Latin America as well, where in fewer than 40 years, the prospect of shorter, hotter or drier growing seasons could imperil hundreds of millions of already-impoverished people.

The report, Mapping Hotspots of Climate Change and Food Insecurity in the Global Tropics, was produced by the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS). The work was led by a team of scientists at the International Livestock Research Institute (ILRI) responding to an urgent need to focus climate change adaptation efforts on people and places where the potential for harsher growing conditions poses the gravest threat to food production and food security.

The researchers pinpointed areas of intense vulnerability by examining a variety of climate models and indicators of food problems to create a series of detailed maps. One shows regions around the world at risk of crossing certain ‘climate thresholds’—such as temperatures too hot for maize or beans—that over the next 40 years could diminish food production. Another shows regions that may be sensitive to such climate shifts because in general they have large areas of land devoted to crop and livestock production. And finally, scientists produced maps of regions with a long history of food insecurity.

Future of Pastoralism in Africa Conference

ILRI scientist Polly Ericksen, lead author of the hotspots study (photo credit: ILRI/MacMillan).

‘When you put these maps together they reveal places around the world where the arrival of stressful growing conditions could be especially disastrous,’ said Polly Ericksen, a senior scientist at ILRI, in Nairobi, Kenya and the study’s lead author. ‘These are areas highly exposed to climate shifts, where survival is strongly linked to the fate of regional crop and livestock yields, and where chronic food problems indicate that farmers are already struggling and they lack the capacity to adapt to new weather patterns.’

‘This is a very troubling combination,’ she added.

For example, in large parts of South Asia, including almost all of India, and parts of sub-Saharan Africa—chiefly West Africa—there are 265 million food-insecure people living in agriculture-intensive areas that are highly exposed to a potential five per cent decrease in the length of the growing period. Such a change over the next 40 years could significantly affect food yields and food access for people—many of them farmers themselves—already living on the edge.

Higher temperatures also could exact a heavy toll. Today, there are 170 million food-insecure and crop-dependent people in parts of West Africa, India and China who live in areas where, by the mid-2050s, maximum daily temperatures during the growing season could exceed 30 degrees Celsius (86 degrees Fahrenheit). This is close to the maximum temperature that beans can tolerate, while maize and rice yields may suffer when temperatures exceed this level. For example, a study last year in Nature found that even with optimal amounts of rain, African maize yields could decline by one percent for each day spent above 30ºC.

Regional predictions for shifts in temperatures and precipitation going out to 2050 were developed by analyzing the outputs of climate models rooted in the extensive data amassed by the Fourth Assessment Report (AR4) from the United Nations Intergovernmental Panel on Climate Change (IPCC). Researchers identified populations as chronically food-insecure if more than 40 per cent of children under the age of five were ‘stunted’—that is, they fall well below the World Health Organization’s height-for-age standards.

CCAFS poverty and climate change hotspots presentation: Wiebke Foerch and Patti Kristjanson of CCAFS

CCAFS staff members Wiebke Foerch, based at ILRI, and Patti Kristjanson, based at the World Agroforestry Centre, hold discussions after ILRI’s Polly Ericksen presents her findings on poverty and climate change hotspots at the World Agroforestry Centre in May 2011 (photo credit: ILRI/MacMillan).

‘We are starting to see much more clearly where the effect of climate change on agriculture could intensify hunger and poverty, but only if we fail to pursue appropriate adaptation strategies,’ said Patti Kristjanson, a research theme leader at CCAFS and former agricultural economist at ILRI. ‘Farmers already adapt to variable weather patterns by changing their planting schedules or moving animals to different grazing areas. What this study suggests is that the speed of climate shifts and the magnitude of the changes required to adapt could be much greater. In some places, farmers might need to consider entirely new crops or new farming systems.’

Crop breeders at CGIAR centres around the world already are focused on developing so-called ‘climate ready’ crop varieties able to produce high yields in more stressful conditions. For some regions, however, that might not be a viable option—in parts of East and Southern Africa, for example, temperatures may become too hot to maintain maize as the staple crop, requiring a shift to other food crops, such as sorghum or cassava, to meet nutrition needs. In addition, farmers who now focus mainly on crop cultivation might need to integrate livestock and agroforestry as a way to maintain and increase food production.

CCAFS Bruce Campbell following Andy Jarvis' seminar on CCAFS

Bruce Campbell, coordinator of the CGIAR program ‘Climate Change, Agriculture and Food Security (CCAFS)’, based in Copenhagen, talks with guests at a seminar given about CCAFS by Andy Jarvis at ILRI’s Nairobi campus on 13 May 2011 (photo credit: ILRI/MacMillan).

‘International trade in agriculture commodities is also likely to assume even more importance for all regions as climate change intensifies the existing limits of national agriculture systems to satisfy domestic food needs,’ said Bruce Campbell, director of CCAFS. ‘We have already seen with the food price spikes of 2008 and 2010 that food security is an international phenomenon and climate change is almost certainly going to intensify that interdependence.’

Ericksen and her colleagues note that regions of concern extend beyond those found to be most at risk. For example, in many parts of Latin America, food security is relatively stable at the moment—suggesting that a certain amount of ‘coping capacity’ could be available to deal with future climate stresses that affect agriculture production. Yet there is cause for concern because millions of people in the region are highly dependent on local agricultural production to meet their food needs and they are living in the very crosshairs of climate change.

The researchers found, for example, that by 2050, prime growing conditions are likely to drop below 120 days per season in intensively-farmed regions of northeast Brazil and Mexico.

Growing seasons of at least 120 days are considered critical not only for the maturation of maize and several other staple food crops, but also for vegetation crucial to feeding livestock.

In addition, parts of Latin America are likely to experience temperatures too hot for bean production, a major food staple in the region.

Mario Herrero, Polly Ericksen and Wiebke Foerch prepare to listen to Andy Jarvis' seminar on CCAFS

Mario Herrero, another ILRI author of the study, with climate Polly Ericksen and CCAFS staff member Wiebke Forech, all based at ILRI’s Nairobi headquarters, wait to hear a presentation from visiting CCAFS scientist Andy Jarvis at ILRI on 13 May 2011 (photo credit: ILRI/MacMillan).

The study also shows that some areas today have a ‘low sensitivity’ to the effects of climate change only because there is not a lot of land devoted to crop and livestock production. But agriculture intensification would render them more vulnerable, adding a wrinkle, for example, to the massive effort under way to rapidly expand crop cultivation in the so-called ‘bread-basket’ areas of sub-Saharan Africa.

Philip Thornton at Andy Jarvis' CCAFS Seminar

Philip Thornton (white shirt, facing camera), of ILRI and CCAFS, and other ILRI staff following a seminar on CCAFS given by Andy Jarvis at ILRI Nairobi on 13 May 2011 (photo credit: ILRI/MacMillan).

‘Evidence suggests that these specific regions in the tropics may be severely affected by 2050 in terms of their crop production and livestock capacity. The window of opportunity to develop innovative solutions that can effectively overcome these challenges is limited,’ said Philip Thornton, a CCAFS research theme leader and ILRI scientist and one of the paper’s co-authors. ‘Major adaptation efforts are needed now if we are to avoid serious food security and livelihood problems later.’
Five per cent reduction in crop season sensitivity to change capacity to cope: Corrected version

Areas where average maximum temperatures are expected to exceed 30⁰C by 2050, corrected version (map credit: ILRI-CCAFS/Notenbaert).

Read the whole report: Mapping hotspots of climate change and food insecurity in the global tropics, by Polly Ericksen, Philip Thornton, An Notenbaert, L Cramer, Peter Jones and Mario Herrero 2011. CCAFS Report no. 5 (final version). CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS). Copenhagen, Denmark. Also available online at: www.ccafs.cgiar.org.

Click here for the CCAFS online media room with more materials, including corrected versions of the news release in English, Spanish, French and Chinese, and also versions of the two maps shown here in high resolution suitable for print media.

All the maps will be made available online later this year; for more information on the maps, please contact ILRI’s Polly Ericksen at p.ericksen [at] cgiar.org or CCAFS’ Vanessa Meadu at ccafs.comms [at] gmail.com.

Note: This study was led by scientists at the International Livestock Research Institute (ILRI) for the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS). CCAFS is a strategic partnership of the CGIAR and the Earth System Science Partnership (ESSP). CCAFS brings together the world’s best researchers in agricultural science, development research, climate science and Earth System science, to identify and address the most important interactions, synergies and tradeoffs between climate change, agriculture and food security. The CGIAR’s Lead Centre for the program is the International Center for Tropical Agriculture (CIAT) in Cali, Colombia. For more information, visit www.ccafs.cgiar.org.

Numbers of wildlife in Kenya’s famous Mara region have declined by two-thirds or more over last 33 years

Landscapes from the Mara

Landscape taken on safari in the Masai Mara, Kenya, July 2009 (photo credit: jschinker‘s Flickr photostream). ‘Sadly, wildlife are apparently being monitored into extinction in the Mara. Without urgent, decisive and resolute actions, more local extinctions may yet occur and the spectacular migration for which the Mara is world famous may continue to dwindle’—Joseph Ogutu.

Some devastating news has just been published in a leading scientific journal about wildlife declines in Kenya.

Scientists have found that wildlife populations in Kenya’s famous Mara region declined progressively after 1977, with few exceptions. Populations of almost all wildlife species have declined to a third or less of their former abundance both in the protected Masai Mara National Reserve and in the adjoining pastoral ranches.

Human influences appeared to be the fundamental cause. Besides reinforced antipoaching patrols, the expansion of cultivation, settlements and fences and livestock stocking levels on the pastoral ranches need to be regulated to avoid further declines in the wildlife resource.

Populations of many wild ungulate species in Africa are in decline largely because of land-use changes and other human activities.

The four authors of this paper, published online last week in the Journal of Zoology (20 May 2011) include lead author Joseph Ogutu, formerly of the International Livestock Research Institute (ILRI) and now at the University of Hohenheim, and last author Mohamed Said, of ILRI.

Read a short brief providing background to this new item.

Read the abstract of the paper: Continuing wildlife population declines and range contraction in the Mara region of Kenya during 1977–2009

For more information, please contact:
Joseph Ogutu in Germany at jogutu2007 [at] gmail.com
Mohamed Said at ILRI Nairobi at m.said [at] cgiar.org
Jan de Leeuw, ILRI team leader, at ILRI Nairobi at j.leeuw [at] cgiar.org

New PNAS-published study discloses the ‘hot spots’, ‘warm spots’ and ‘cold spots’ of global livestock disease risk

Mozambique, Garue, Lhate village

Small-scale livestock-dependent agriculture in developing countries makes up one of three trajectories of global disease risk; here, cattle belonging to a widowed farmer in Garue, Mozambique, are brought in for the night by a herdsboy (photo credit: ILRI/Mann).

‘Current drivers and future directions of global livestock disease dynamics’ is a special feature published in the (online) 16 May 2011 issue of the Proceedings of the National Academy of Sciences (PNAS) of the USA. The authors of the paper are Brian Perry, Delia Grace and Keith Sones.

Irish veterinary epidemiologist Delia Grace leads a team researching animal health and food safety for trade at the International Livestock Research Institute (ILRI), based in Nairobi, Kenya.

In the PNAS paper, the authors write: ‘The current era of globalization is seeing unprecedented movements of people, products, capital and information. Although this has obvious implications for economies and ecosystems, globalization also affects the health of people and animals. This paper reviews changing patterns of livestock disease over the last two decades, discusses the drivers of these patterns, and plots future trajectories of livestock disease risk in an effort to capitalize on our understanding of the recent past and provide a guide to the uncertain future.’

While acknowledging the complexity of disease dynamics, the authors point to three main drivers of changing livestock disease dynamics: ecosystem change, ecosystem incursion, and movement of people and animals. Underlying these dynamics are the growing demand for livestock products (the Livestock Revolution) and increasing human population size.

The authors identify three trajectories of global disease dynamics:
‘(i) the worried well in developed countries (demanding less risk while broadening the circle of moral concern)
‘(ii) the intensifying and market-orientated systems of many developing countries, where highly complex disease patterns create hot spots for disease shifts
‘(iii) the neglected cold spots in poor countries, where rapid change in disease dynamics is less likely but smallholders and pastoralists continue to struggle with largely preventable and curable livestock diseases.’

On the topics of major trends in disease dynamics, the authors point out that ‘From a centuries-long and whole-world perspective, human wealth and health continue to improve, and animal health parallels this, showing an overall dramatic decline of infectious disease and shift to noncommunicable diseases. (This has been called the second epidemiological transition; the first epidemiological transition was 10,000 y ago, when human settlement led to a surge in zoonoses and crowd-related diseases.)’

However, the authors also say that ‘Although control and management of many endemic diseases in rich countries have improved, new diseases such as BSE and HPAI have emerged. Some consider that we face a third epidemiological transition of disastrous consequence in which globalization and ecological disruption drive disease emergence and reemergence; as occurred in the first epidemiological transition (associated with neolithic sedentarization and the domestication of livestock), the worst of the emerging diseases are likely to be zoonotic.’

The authors go on to consider ‘the drivers with greatest influence on livestock disease dynamics, namely increasing human population size and prosperity and the related demand-driven Livestock Revolution. . . . [W]e identify three overarching sets of animal diseases dynamics and associated control. Each system is facing different risks to livestock health, each has different determinants of disease status and capacity to respond, and each requires different approaches to resolve them.’

‘In the background,’ they say, ‘is the significant component of the world’s livestock enterprises in the hands of the very poor, for whom intensification is just not a realistic option and who are likely to be most vulnerable to disease resurgence. . . .

‘Although we call these [very poor livestock] systems cold spots for disease dynamics and emergence, they are inevitably hot spots for endemic diseases, periodic epidemics (such as Newcastle disease, which regularly wipes out village flocks), and neglected zoonoses, which significantly impact on human health. Because of the low densities of livestock, their remoteness, and the slow change in husbandry practices, these are probably not hot spots for emerging diseases. . . .

‘This review is prognostic rather than therapeutic, presenting implications for livestock disease in the 21st century. In an increasingly globalized world, deepening of the existing balkanization of livestock health status will create inevitable instability. The main challenges are (i) to speed the convergence of livestock health between the intensifying and intensified regions through improved coordination, communication, and harmonization and (ii ) to improve resilience of smallholder livestock systems, including the support of viable exits from livestock keeping.’

Read the whole paper in the Proceedings of the National Academy of Sciences: Current drivers and future directions of global livestock disease dynamics, by Brian Perry, Delia Grace and Keith Sones, 16 May 2011.

Read an ILRI brief: Why animals matter to health and nutrition, February 2011.

Read another ILRI News Blog article related to this topic: Adapting agriculture to improve human health—New ILRI policy brief, 21 February 2011.

Read an ILRI news release: Livestock boom risks aggravating animal ‘plagues,’ poses growing threat to food security and health of the world’s poor, 2 February 2011.

Scientists identify livestock genes to unlock protection against one of Africa’s oldest animal plagues

Cow suffering from trypanosomosis

Cow suffering from trypanosomiasis (photo credit: ILRI/Elsworth).

An international research team using a new combination of approaches has found two genes that may prove of vital importance to the lives and livelihoods of millions of farmers in a tsetse fly-plagued swathe of Africa the size of the United States. The team’s results were published today in the Proceedings of the National Academy of Sciences (PNAS).

The research, aimed at finding the biological keys to protection from a single-celled trypanosome parasite that causes both African sleeping sickness in people and a wasting disease in cattle, brought together a range of high-tech tools and field observations to address a critical affliction of some of the world’s poorest people.

With increased surveillance and control, sleeping sickness infections in people have dropped ten-fold in the last 13 years, from an estimated 300,000 cases a year in 1998 to some 30,000 in 2009, with the disease eventually killing more than half of those infected. Although best known for causing human sleeping sickness, the trypanosome parasite’s most devastating blow to human welfare comes in an animal form, with sick, unproductive cattle costing mixed crop-livestock farmers and livestock herders huge losses and opportunities. The annual economic impact of ‘nagana,’ a common name in Africa for the form of the disease that affects cattle (officially known as African animal trypanosomiasis), has been estimated at US$4–5 billion.

In a vast tsetse belt across Africa, stretching from Senegal on the west coast to Tanzania on the east coast, and from Chad in the north to Zimbabwe in the south, the disease each year renders millions of cattle too weak to plow land or to haul loads, and too sickly to give milk or to breed, before finally killing off most of those infected. This means that in much of Africa, where tractors and commercial fertilizers are scarce and prohibitively expensive, cattle are largely unavailable for tilling and fertilizing croplands or for producing milk and meat for families. The tsetse fly and the disease it transmits are thus responsible for millions of farmers having to till their croplands by hand rather than by animal-drawn plow.

‘The two genes discovered in this research could provide a way for cattle breeders to identify the animals that are best at resisting disease when infected with trypanosome parasites, which are transmitted to animals and people by the bite of infected tsetse flies,’ said senior author Steve Kemp, a geneticist on joint appointment with the Nairobi-based International Livestock Research Institute (ILRI) and the University of Liverpool.

This genetics of disease resistance research was led by scientists from ILRI in Africa and from the UK universities of Liverpool, Manchester and Edinburgh, and involved researchers from other institutions in Britain, Ireland and South Korea.

The researchers drew on the fact that while the humped cattle breeds characteristic of much of Africa are susceptible to disease-causing trypanosome parasites, a humpless West African breed, called the N’Dama, is not seriously affected by the disease. Having been domesticated in Africa some 8,000 or more years ago, this most ancient of African breeds has had time to evolve resistance to the parasites. This makes the N’Dama a valued animal in Africa’s endemic regions. On the other hand, N’Dama cattle tend to be smaller, to produce less milk, and to be less docile than their bigger, humped cousins.

African agriculturalists of all kinds would like to see the N’Dama’s inherent disease resistance transferred to these other more productive breeds, but this is difficult without precise knowledge of the genes responsible for disease resistance in the N’Dama. Finding these genes has been the ‘Holy Grail’ of a group of international livestock geneticists for more than two decades, but the genetic and other biological pathways that control bovine disease resistance are complex and have proven difficult to determine.

The PNAS paper is thus a landmark piece of research in this field. The international and inter-institutional team that made this breakthrough did so by combining a range of genetic approaches, which until now have largely been used separately.

‘This may be the first example of scientists bringing together different ways of getting to the bottom of the genetics of a very complex trait,’ said Kemp. ‘Combined, the data were like a Venn diagram overlaying different sets of evidence. It was the overlap that interested us.’

They used these genetic approaches to distinguish differences between the ‘trypano-tolerant’ (humpless) N’Dama, which come from West Africa, and ‘trypano-susceptible’ (humped) Boran cattle, which come from Kenya, in East Africa. The scientists first identified the broad regions of their genomes controlling their different responses to infection with trypanosome parasites, but this was insufficient to identify the specific genes controlling resistance to the disease. So the scientists began adding layers of information obtained from other approaches. They sequenced genes from these regions to look for differences in those sequences between the two breeds.

The team at Edinburgh conducted gene expression analyses to investigate any differences in genetic activity in the tissues of the two cattle breeds after sets of animals of both breeds were experimentally infected with the parasites. Then, the ILRI group tested selected genes in the lab. Finally, they looked at the genetics of cattle populations from all over Africa.

Analyzing the vast datasets created in this research presented significant computational challenges. Andy Brass and his team in the School of Computer Science at the University of Manchester managed to capture, integrate and analyze the highly complex set of biological data by using workflow software called ‘Taverna,’ which was developed as part of a UK e-Science initiative by Manchester computer scientist Carole Goble and her ‘myGrid’ team.

‘The Taverna workflows we developed are capable of analyzing huge amounts of biological data quickly and accurately,’ said Brass. ‘Taverna’s infrastructure enabled us to develop the systematic analysis pipelines we required and to rapidly evolve the analysis as new data came into the project. We’re sharing these workflows so they can be re-used by other researchers looking at different disease models. This breakthrough demonstrates the real-life benefits of computer science and how a problem costing many lives can be tackled using pioneering E-Science systems.’

To bolster the findings, population geneticists from ILRI and the University of Dublin examined bovine genetic sequences for clues about the history of the different breeds. Their evidence confirmed that the two genes identified by the ILRI-Liverpool-Manchester groups were likely to have evolved in response to the presence of trypanosome parasites.

‘We believe the reason the N’Dama do not fall sick when infected with trypanosome parasites is that these animals, unlike others, have evolved ways to control the infection without mounting a runaway immune response that ends up damaging them,’ said lead author Harry Noyes, of the University of Liverpool. ‘Many human infections trigger similarly self-destructive immune responses, and our observations may point to ways of reducing such damage in people as well as livestock.’

This paper, said Kemp, in addition to advancing our understanding of the cascade of genes that allow Africa’s N’Dama cattle to fight animal trypanosomiasis, reaffirms the importance of maintaining as many of Africa’s indigenous animal breeds (as well as plant/crop varieties) as possible. The N’Dama’s disease resistance to trypanosome parasites is an example of a genetic trait that, while not yet fully understood, is clearly of vital importance to the continent’s future food security. But the continued existence of the N’Dama, like that of other native ‘niche’ African livestock breeds, remains under threat.

With this new knowledge of the genes controlling resistance to trypanosomiasis in the N’Dama, breeders could screen African cattle to identify animals with relatively high levels of disease resistance and furthermore incorporate the genetic markers for disease resistance with markers for other important traits, such as high productivity and drought tolerance, for improved breeding programs generally.

If further research confirms the significance of these genes in disease resistance, a conventional breeding program could develop a small breeding herd of disease-resistant cattle in 10–15 years, which could then be used over the next several decades to populate Africa’s different regions with animals most suited to those regions. Using genetic engineering techniques to achieve the same disease-resistant breeding herd, an approach still in its early days, could perhaps be done in four or five years, Kemp said. Once again, it would be several decades before such disease-resistant animals could be made available to most smallholder farmers and herders on the continent.

‘So it’s time we got started,’ said Kemp.

###

See this news and related background material at ILRI’s online press room.

The International Livestock Research Institute (www.ilri.org) works with partners worldwide to help poor people keep their farm animals alive and productive, increase and sustain their livestock and farm productivity, and find profitable markets for their animal products. ILRI’s headquarters are in Nairobi, Kenya; we have a principal campus in Addis Ababa, Ethiopia, and 13 offices in other regions of Africa and Asia. ILRI is part of the Consultative Group on International Agricultural Research (www.cgiar.org), which works to reduce hunger, poverty, illness and environmental degradation in developing countries by generating and sharing relevant agricultural knowledge, technologies and policies. This research is focused on development, conducted by a Consortium (http://consortium.cgiar.org) of 15 CGIAR centres working with hundreds of partners worldwide, and supported by a multi-donor Fund (www.cgiarfund.org).

The University of Liverpool (www.liv.ac.uk) is a member of the Russell Group of leading research-intensive institutions in the UK. It attracts collaborative and contract research commissions from a wide range of national and international organizations valued at more than £110 million annually.

The University of Manchester (www.manchester.ac.uk), also a member of the Russell Group, is the largest single-site university in the UK. It has 22 academic schools and hundreds of specialist research groups undertaking pioneering multi-disciplinary teaching and research of worldwide significance. According to the results of the 2008 Research Assessment Exercise, the University of Manchester is now one of the country’s major research universities, rated third in the UK in terms of ‘research power’. The university has an annual income of £684 million and attracted £253 million in external research funding in 2007/08.

Research proposal for ‘More meat, milk and fish by and for the poor’ submitted for funding

CGIAR Research Program 3.7 on livestock and fish

CGIAR Research Program 3.7 on livestock and fish: Opening slide in a series of 16 slides presented by ILRI director general Carlos Seré to the CGIAR Fund Council 6 April 2011 (credit: ILRI).

Carlos Pérez del Castillo, on behalf of the Consultative Group on International Agricultural Research (CGIAR) Consortium Board, which he chairs, wrote the following earlier this year in a cover letter to submission of a research proposal for consideration and approval by the CGIAR Fund Council.

‘The Consortium Board (CB) of the CGIAR has the pleasure to submit to the Fund Council (FC), for its consideration and approval, the CGIAR Research Program (CRP) 3.7, entitled “More Meat, Milk and Fish by and for the Poor.”

‘This proposal, submitted by ILRI (lead center), CIAT, ICARDA and WorldFish, focuses on improving productivity and profitability of meat, milk and fish for poor producers. This CRP constitutes a key link in the overall chain of impacts of the Strategy and Results Framework of the CGIAR. The CB considers that this research area, which has received relatively low attention from donors up to now, is of strategic importance for the livelihoods of the poor in developing countries. The challenge in this CRP is to set up market chains that fully address the special needs and circumstances of the poor smallholders and fishermen.

‘An additional challenge, fully in line with the spirit of the reform, is to create new research synergies by working on productivity improvement for livestock and fish in a more integrated manner than before the reform. The Board particularly appreciates the genuine integration of activities across the participating CGIAR centers that are proposed, and the overall quality of this proposal. We think that the proponents of this CRP have laid the ground for very innovative breakthroughs in research for development. . . .

‘The CB considers that the impact pathways described in the various log frames presented in the proposal are convincing. The identification of the eight target value chains is likewise a good mechanism for clearly focusing the work on addressing development challenges. The CB concurs with the referee who states that this is a very innovative dimension of the proposal, and a very effective one as well. ‘Concerning quality of science, the Board concurs with the referees that it is sound. The Board appreciates the explanation of the value addition of ILRI and WorldFish working alongside on genetic issues, as well as the description of the value chain development work. For the CGIAR, these are novel, and much needed, approaches.’

Read the full proposal: ILRI: CGIAR Research Program 3.7: More meat, milk and fish by and for the poor—Proposal  submitted to the CGIAR Consortium Board by ILRI on behalf of CIAT, ICARDA and the WorldFish Center, 5 March 2011.

CGIAR Research Program 3.7 on livestock and fish

CGIAR Research Program 3.7 on livestock and fish: First in a series of 16 slides presented by ILRI director general Carlos Seré to the CGIAR Fund Council 6 April 2011 (credit: ILRI).

View the whole slide presentation on this proposal made by ILRI director general Carlos Seré to the CGIAR Fund Council on 6 April 2011 in Montpellier, France.

More on the CRP and its development process

Comprehensive dialogue on agricultural development in Ethiopia published

Cover of 'Dialogue on Ethiopian Agricultural Development'

Cover of the ILRI-published proceedings of a 2009 Dialogue on Ethiopian Agricultural Development (cover image credit: ILRI/Mann).

Proceedings of a comprehensive review of the history and current state of Ethiopia’s agricultural development, made in a 2009 ‘Dialogue on Ethiopian Agricultural Development’ held in Addis Ababa have been published by the International Livestock Research Institute (ILRI).

The 2009 Dialogue was jointly organized by Ethiopia’s Ministry of Agriculture and Rural Development and ILRI to honour Gebisa Ejeta, winner of the 2009 World Food Prize. Held on 12 November 2009 at the United Nations Conference Centre, the Dialogue was opened by Ethiopian President Ato Girma Woldegiorgis.

Gebisa received the prestigious prize on 15 October 2009 at Iowa’s state capital, Des Moines, USA. His research with sorghum hybrids resistant to drought and the devastating Striga weed have dramatically increased the production and availability of one of the world’s five principal grains and enhanced the food supply of hundreds of millions of people in sub- Saharan Africa.

Gebisa’s high academic standing in his undergraduate years paved the way to financial assistance and entrance into higher education institutions, leading to his bachelor’s degree in plant science in 1973 from the Alemaya College of Agriculture. In 1973 his mentor Berhane Gebre-Kidan introduced Gebisa to a renowned sorghum researcher, John Axtell of Purdue University, who invited him to assist in collecting sorghum species from around Ethiopia. Axtell was so impressed with Gebisa that he invited him to become his graduate student at Purdue University. Gebisa entered Purdue University in 1974, earning his PhD in plant breeding and genetics. He later became a faculty member at Purdue, where today he holds a distinguished professorship.

Gebisa’s dedication to helping poor farmers feed themselves and their families and rise out of poverty has propelled his life’s work. At the Dialogue, he spoke on science-based agricultural development with particular emphasis on Ethiopia. Abera Deressa, state minister of the Ministry of Agriculture and Rural Development; Solomon Assefa, director general of the Ethiopian Institute of Agricultural Research; Belay Kassa, president of Haramaya University, made presentations on the challenges, opportunities and achievements of agricultural research in Ethiopia and the role of agricultural universities. These presentations were followed by others, including one by Carlos Seré, director general of ILRI, and a panel discussion by representatives of key institutions and universities.

This ILRI proceedings volume includes all the papers presented and slide presentations given and transcripts of the panel discussion. Some excerpts of the presentations follow.

World Food Prize Laureate and Purdue University Distinguished Professor Gebisa Ejeta
on enhancing science-based development in Ethiopia
‘. . . African farming has not been significantly influenced by advances in the agricultural sciences that have benefited the rest of the world. Contributions from improved genetic stocks of plants and animals have been limited. Currently less than 20% of African farms use modern seed, and even fewer have access to improved stocks of livestock. Use of modern plant and animal husbandry has been very limited. African farmers grow their crops and raise their animals using traditional practices that have been passed through the generations. African farming has been organic with a continental average use of inorganic fertilizers still standing well below 10 kg/ha. Uses of other chemical inputs for control of weed, pest, and diseases in Africa have been nearly insignificant. The strongest limitations are imposed by lack of knowledge of modern farming practices. And when smallholder farmers develop some awareness through organized public interventions, they often lack the financial means to purchase inputs and tools that enhance efficiency and lessen the family burden on their livelihoods. Overall, the vital institutions of agricultural research and extension services in nearly all African countries lack the needed full capacity and institutional infrastructure to reach out to smallholder farmers and to readily generate and dispense badly needed new science-based technology or to effectively deploy those from past findings. . . .’

Haramaya University President Belay Kassa
on Ethiopian agriculture and institutions of higher learning

‘. . . Ethiopia is one of the largest countries in Africa both in terms of land area (1.1 million km2) and human population (estimated at 82 millions in 2010). Agriculture is the basis of the Ethiopian economy. It accounts for about 40% of the GDP and 90% of the total export revenue and employs 85% of the country’s labour force (FDRE 2010). Ethiopian agriculture is virtually small-scale, subsistence-oriented and crucially dependent on rainfall. About 90% of the country’s agricultural output is generated by subsistence farmers who use traditional tools and farming practices ( MoFED 2008; Dercon et al. 2009). Low productivity characterizes Ethiopian agriculture. The average grain yield for various crops is less than two tonnes per hectare (Byerlee et al. 2007; Dercon et al. 2009). The livestock subsector plays an important role in the Ethiopian economy. The majority of smallholder farms depend on animals for draught power, cultivation and transport of goods. The subsector makes also significant contribution to the food supply in terms of meat and dairy products as well as to export in terms of hides and skins which make up the second major export category. However, the productivity of the subsector is decreasing as a result of poor management systems, shortage of feed and inadequate health care services (FDRE 2010). Despite the importance of agriculture to the Ethiopian economy, food insecurity has been an enormous challenge to the nation since the early 1970s. In this connection, it is important to note that over the last three decades Ethiopian agriculture has been unable to produce sufficient quantities to feed the country’s rapidly growing population (Gill 2010). As a result, the country has been increasingly dependent on commercial food imports and food aids. . . . Available evidence shows that yields of major crops under farmers’ management are still far lower than what can be obtained under research managed plots (Abate 2006; EIAR 2007). This is a clear indication of the gap, which exists between researchers and farmers. The absence of effective linkage between agricultural research and extension systems has repeatedly been reported as one of the major reasons for the low productivity of Ethiopian agriculture. There had been no forum where this linkage problem had not been raised as a result of which it has become a concern among policymakers, researchers, development workers and funding organizations (Belay 2008). . . .’

ILRI Director General Carlos Seré
on the impact of climate change on agriculture and food security in Ethiopia
Carlos Seré, director general of the International Livestock Research Institute (ILRI), whose principal campuses are located in Ethiopia and Kenya, spoke of the need to enhance the capacity of societies to learn quickly and respond to climate and other changes. ‘I do not think there is a trade-off between climate change and food security,’ Seré said. ‘Our agricultural and climate challenges have much in common. Agriculture has to be central to climate change discussions.’ The ILRI director general remarked on Ethiopia’s rare agricultural, biological, human and institutional diversity: ‘There will be a lot of variability in how the climate changes. Ethiopia has greatly diverse farming regions. It has great biodiversity. How can we use cutting edge science to understand that diversity and use it better? Lessons learned in one place may be valuable in another. We need to empower people at the local level to provide solutions. Science can quicken this work. The centres of the CGIAR have been working side by side with the Ethiopian Institute of Agricultural Research and other institutions in this country. We stand ready to deepen our cooperation with the diversity of institutions in Ethiopia.’

Find all these presentations and more in Dialogue on Ethiopian Agricultural Development, held at United Nations Conference Centre, Addis Ababa, Ethiopia, 12 November 2009, published by ILRI in 2011.