Livestock, climate and poverty: A short history of work begun to unravel the complexity, and set useful priorities

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Farming in eastern Africa (photo on Flickr by CIAT/Neil Palmer).

The story of human settlement and human evolution is very much tied to the fact that the earth’s climate has always been changing, and will continue to do so.

So begins a new brief developed by agricultural systems and climate change scientist Philip Thornton and his colleagues at the International Livestock Research Institute (ILRI), based in Nairobi, Kenya.

The brief goes on to say the following.

What is known about the likely impacts of climate change on resource-poor livestock keepers in the developing world? Relatively little, and the International Livestock Research Institute (ILRI) and the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) are working to improve this knowledge.

‘This Brief outlines how a group of scientists at ILRI reviewed some elements of the complex relationship between livestock and climate change in developing countries with a forward-looking approach. The objective was to help set research priorities: to inform the debate as to what research for development organizations such as ILRI could and should be doing in the area of climate change work that could add value to the large amounts of work already being carried out by the Global Change community on cropping systems and natural resources management. . . .

Resource-poor livestock keepers: Mitigate and adapt
‘Changes in climate and climate variability will affect livestock production systems in all parts of the world, and will inevitably impact the 1.3 billion poor people whose livelihoods are wholly or partially dependent on livestock. At the same time, livestock production is a major contributor to greenhouse gas emissions.

Therefore, livestock keepers will have to mitigate emissions as well as adapt to change.

‘The adaptation and mitigation that are necessary may require significant changes in production technology and livestock production systems, which could affect productivity, incomes and livelihoods. Livestock production systems are highly heterogeneous, however, and different production systems have different capacities to adapt or to take on board the policy and regulatory changes that may be required in the future.

‘In developed countries, livestock systems are generally adaptable and resilient. In developing countries, in contrast, households that are dependent on livestock keeping may be much more vulnerable to changes in climate and climate variability, with the potential for increased poverty and decreased food security. At the same time, there may be considerable growth potential in the smallholder livestock sector, given projected increases in demand for livestock products globally and for biofuels and the land-use changes these may bring about. . . .

‘No formal evaluation has been undertaken, but this work certainly had some impact in addressing the lack of information on livestock in several integrated global assessments, despite livestock’s being recognized as one of the major drivers of global change. New partnerships have been forged with others working in the realm of global assessment. . . .

Way forward
‘[T]here is a need for improvement in the kind of indicators that are produced to gauge changes in social factors. Currently, impacts are usually expressed in terms of available calories and prices, for example, but there may be many other critical factors to assess future changes beyond food availability and commodity prices. Second . . . [is] the need to undertake priority-setting analyses on a regular basis, linked with other types of foresight and scenario processes . . . [and] explicitly linking priority setting with monitoring and evaluation, to provide more coordinated planning and implementation of research for development to improve its influence and to better demonstrate its value to the resource-poor of the developing world.’

Read the whole brief: Climate change: Do we know how it will affect smallholder livestock farmers? by Philip Thornton, Jeannette van de Steeg, An Notenbaert and Mario Herrero, a GFAR ‘The Futures of Agriculture’ Brief No. 43, May 2013.

This brief is based on two publications by ILRI scientists:
(1) Thornton P K, Notenbaert A, van de Steeg J and Herrero M, 2008, The livestock-climate-poverty nexus: A discussion paper on ILRI research in relation to climate change, published by ILRI, Nairobi, Kenya, 80 pp.

(2) Thornton P K, van de Steeg J, Notenbaert A and Herrero M, 2009. The impacts of climate change on livestock and livestock systems in developing countries: A review of what we know and what we need to know, Agricultural Systems 101: 113–127.

Note
This brief series was developed in preparation for the Foresight Breakout Session of the Global Conference on Agricultural Research for Development (GCARD 2012) and the Global Foresight Hub. The briefs were written to communicate to a wider audience, such as policy makers, civil society organizations, researchers, and funders.

Taking stock: Global livestock production systems are (finely and finally) differentiated

Mixed crop-livestock systems in the developing world produce significant amounts of milk and meat

Mixed crop-livestock systems in the developing world produce significant amounts of milk and meat (figure credit: ILRI/Herrero, 2010).

A new book years in the making on the seemingly abstruse topic of  ‘livestock system classifications’ has just been published by the United Nations Food and Agriculture Organization (FAO) and the International Livestock Research Institute (ILRI).

To find out why classifying livestock systems is not an academic matter (hint: it can help fill the gap between the potential and actual yields of our food production systems), but rather matters rather urgently, particularly to the futures of more than 1 billion poor people who depend on livestock for their livelihoods, read on. And note that the book includes lots of new maps to pore over.

Global datasets are becoming increasingly important for priority setting and targeting by organizations with a global mandate for agriculture and agricultural research for development in developing countries. Until now, the best estimates of livestock production systems were those produced by ILRI in 2002. These have now been updated and improved upon by FAO and ILRI.

What’s the book about? From the blurb
‘Informed livestock sector policy development and priority setting is heavily dependent on a good understanding of livestock production systems. In a collaborative effort between the Food and Agriculture Organization and the International Livestock Research Institute, stock has been taken of where we have come from in agricultural systems classification and mapping; the current state of the art; and the directions in which research and data collection efforts need to take in the future.

‘The book also addresses issues relating to the intensity and scale of production, moving from what is done to how it is done. The intensification of production is an area of particular importance, for it is in the intensive systems that changes are occurring most rapidly and where most information is needed on the implications that intensification of production may have for livelihoods, poverty alleviation, animal diseases, public health and environmental outcomes.

‘A series of case studies is provided, linking livestock production systems to rural livelihoods and poverty and examples of the application of livestock production system maps are drawn from livestock production, now and in the future; livestock’s impact on the global environment; animal and public health; and livestock and livelihoods. . . .’

Why this book? From the Introduction
‘Many organizations are involved in assembling and disseminating global spatial datasets that can be used for a wide variety of purposes. Such datasets are becoming increasingly important for priority setting and targeting by organizations with a global mandate for agriculture and agricultural research for development, such as the United Nations (UN) Food and Agriculture Organization (FAO), the international centres of the Consultative Group on International Agricultural Research (CGIAR), regional and subregional research organizations, and donors who need to target their investments and measure their impacts on beneficiaries. The world in which we live is extremely dynamic, and this is reflected in the ways in which the world feeds itself and people meet their livelihood requirements. There can be considerable heterogeneity in the determinants of rural poverty (Snel and Henninger, 2002; Kristjanson et al., 2005). An implication of this is that poverty alleviation efforts increasingly need to be targeted at relatively small groups of people, and this calls for a finer grain in the definition of intervention domains than has perhaps been considered in the past.

‘Currently, one of the biggest gaps in the availability of global datasets is a spatial agricultural systems classification that provides appropriate detail on the distribution of crops and livestock in different places.

This publication addresses this gap by bringing together some recent developments in agricultural production system mapping and highlighting some of the difficult problems involved. The book also identifies further work that is required to develop a dynamic global agricultural production systems classification that can be mapped, ground-truthed, and refined through time. . . .

‘The outputs described here should find immediate application among development organizations, donors and research institutes, in targeting investment and technology or policy interventions that are effective in promoting sustainable livelihoods of the poor in developing countries.

Why map livestock production systems?
‘Farming of crops and livestock cannot be considered independently of one another nor should they be considered in isolation. Established links between livestock numbers, cultivation levels and human populations suggest that greater attention should be paid to quantifying and mapping these associations (Bourn and Wint, 1994). The interdependence of crops and livestock in mixed farms and the different contributions made to livelihoods (Powell et al., 1995) suggest that these two aspects of farming should be considered together. The nature of such interactions is heavily shaped by environmental factors and, increasingly, by economic forces.

‘A detailed knowledge of the distribution of livestock resources finds many applications, for example, in estimating production and off-take, the impacts of livestock on the environment, livestock disease risk and impact, and the role that livestock plays in people’s livelihoods (Robinson et al., 2007; FAO, 2007a). But livestock is not all equal. In different contexts it serves quite different functions, plays different roles in people’s livelihoods, varies in herd structure and breed composition, and is fed and managed in different ways. For most applications some sort of practical stratification is needed: milk yields are not the same from cows reared in extensive, low-input pastoral systems as they are from specifically-bred dairy cows raised intensively. In the same way, the risks posed by livestock diseases vary considerably depending on whether animals are kept in high-density housing or grazed over large areas of rangeland, for example. At its simplest, combining information on production systems with livestock statistics allows livestock numbers to be disaggregated by production system (see, for example, the appendices in FAO, 2007a). Compared with simple national totals, this gives a more meaningful breakdown of how livestock are distributed across the globe. . . .’

What are the new numbers? From the conclusions
‘In terms of the numbers of poor and our estimates of the numbers of poor livestock keepers, based on national, rural poverty lines for 2010, the critical regions are still South Asia and sub-Saharan Africa. Some 71 percent of the estimated 430 million poor livestock keepers live in these two regions, up from 66 percent a decade earlier. While the rangeland systems contain relatively few poor, most of these households are dependent on livestock for their livelihoods. Half of the poor livestock keepers in rangeland systems globally are located in sub-Saharan Africa: nearly 60 million, based on national, rural poverty lines. The mixed systems contain large numbers of poor (over one billion), and the number of poor people who depend to some extent on livestock is considerable: the mixed irrigated and mixed rainfed systems are estimated to host more than 300 million poor livestock keepers based on national and international US$1.25 per day poverty lines, and double that many based on the international US$2.00 per day poverty lines.

‘Despite their obvious limitations and coarseness, the data presented on locations and densities of poor livestock keepers can still provide information of considerable use. The current information continues to be used at ILRI to prioritize and focus livestock research, and to help identify ‘hotspots’ at the global and regional levels that can then be investigated in more detail at higher resolution. Such hotspots can be defined in various ways depending on the purpose: as areas of high population densities of poor livestock keepers, or areas of high densities of poor people coupled with high levels of biodiversity or natural resource degradation, for example. Such information is critical for informing action agendas concerning livestock, development, and global change. . . .’

How did the book come about? From the foreword
‘This book has grown out of a long-standing collaboration between the Food and Agriculture Organization of the United Nations (FAO), and the International Livestock Research Institute (ILRI). It emerged from a meeting of international organizations held at the Earth Institute at Columbia University in 2004, at which FAO and the Consultative Group on International Agricultural Research were charged with closing a gap in our understanding of the distribution of agricultural production systems. The book took further shape following a workshop convened by FAO in Bangkok in 2006, during which the custodians of many of the key datasets needed to produce maps of global livestock production systems were brought together with experts and researchers in agricultural production systems. It brings together the results of several years’ of activity by FAO and ILRI, along with colleagues from the International Food Policy Research Institute, the International Institute for Applied Systems Analysis and many other organisations not explicitly linked to the production of the book.’

Download the whole publication here: Global livestock production systems, by TP Robinson, PK Thornton (ILRI), G Franceschini, RL Kruska (former ILRI), F Chiozza, A Notenbaert (ILRI), G Cecchi, M Herrero (ILRI), M Epprecht, S Fritz, L You, G Conchedda and L See, 2011, Rome: Food and Agriculture Organization of the United Nations (FAO) and International Livestock Research Institute (ILRI), 152 pp.

Livestock and­ the environment: As the hard trade-offs look to get only get harder, more nuanced approaches to livestock development are needed

Boy and goats in Rajasthan

Ramand Ram with goats in his family’s plot in Rajasthan, India. Intensifying mixed crop-and-livestock farming and helping livestock keepers diversify their sources of income can protect livestock livelihoods (photo credit: ILRI/Mann).

Researchers say that poor countries can protect both livestock livelihoods and environments by promoting measures such as sustainably intensifying mixed crop-and-livestock farming, paying livestock keepers for the ecosystem services they provide, helping pastoralists diversify their sources of income and managing the demand for livestock products.

Researchers from the International Livestock Research Institute (ILRI), the Food and Agricultural Organization of the United Nations and the Animal Production Systems Group at Wageningen University, in the Netherlands, report in a proceedings published last November (2010) that there are ‘significant opportunities in livestock systems for improving environment management while also improving the livelihoods of poor people.’

The publication, titled The Role of Livestock in Developing Communities: Enhancing Multifunctionality, was co-published by the University of the Free State South Africa, the Technical Centre for Agricultural and Rural Cooperation and ILRI. The authors say that even though livestock production is already harming some environments, with such damage likely to increase in some regions in coming years due to an increasing demand from rapidly expanding populations in the developing world, new research-based options for livestock production can help improve both the livelihoods and environments of hundreds of millions of very poor people who raise farm animals or sell or consume their milk, meat and eggs.

The researchers propose shifting the debate on livestock and environment from one that focuses solely on the negative impacts of livestock production to one that embraces the complexity of livestock ‘goods’ and ‘bads’, particularly in developing countries, where livestock serve as a lifeline to many poor people.

The researchers say a good understanding of the environmental impacts of livestock production depends on distinguishing these impacts by region and production system and by addressing environmental problems along with problems of food insecurity and inequity.

The authors, who include ILRI scientists Mario Herrero, Phil Thornton, An Notenbaert, Shirley Tarawali and Delia Grace, recommend making a ‘fundamental shift’ in how demand for livestock products is seen and in adapting production systems to meet this demand. They suggest, for example, that policymakers consider ways of reducing demand for livestock products in (mostly industrialized) countries where (1) people are damaging their health by consuming too much meat, eggs and milk and (2) intensive ‘factory’ farming is damaging the environment.

The scientists also recommend finding ways of improving water management in livestock production. Recent findings show that livestock water use represents 31 per cent of the total water used for agriculture. The authors report that ‘in rangeland systems, water productivity can be improved by better rangeland management, which has the potential to reduce water use in agriculture by 45 per cent by 2050.’ Another promising idea is to begin paying livestock farmers for the rangeland water purification and other ecosystem services they maintain for the good of the wider community.

To reduce greenhouse gases from livestock systems, the authors recommend that efforts be put in place to intensify production systems in developing countries to produce more livestock products per unit of methane gas. ‘We need to provide significant incentives so that the marginal rangeland areas, often rich in biodiversity, can be protected for the benefit of farmers.’ Other options for reducing livestock-associated greenhouse gasses include improving animal diets, controlling animal numbers and shifting the kinds of breeds kept.

Although diseases transmitted between livestock and people also need to be addressed by research, the book notes that the ‘net effects of livestock on human health are positive,’ particularly due to livestock’s role in providing nourishing food for the poor and the contribution livestock herders make to regulating vast rangeland ecosystems, with their wildlife populations, which often helps prevent animals diseases from spilling over to human populations. Better use of disease control methodologies and investments will also help prevent the spread of these diseases.

The authors acknowledge that such changes in the way that livestock production is viewed will require a ‘subtle balancing act’ and commitments by a wide range of players in the scientific, development and policymaking communities. But without a more nuanced understanding of livestock production in the face of hard trade-offs between livestock and the environment, we could jeopardize the livestock livelihoods of many of the world’s ‘bottom billion’.

This article is summary of the chapter ‘The Way Forward for Livestock and the Environment’ in the The Role of Livestock in Developing Communities: Enhancing Multifunctionality.

Download the full text

For more information read this related ILRI News article.

Location, location, location: Geographic techies explore ways of navigating a better future

If, as the popular science saying goes, we can understand only what we can measure, what shall we say about what we can locate on a map? Is that, too, a foundation for real understanding, or is mapping more like taxonomy, more critical to scientific knowledge (categorization) than to scientific understanding (causation)?

A group of some 80 international and developing-country experts in the use of geographical information systems (GIS), remote sensing and other high-tech tools developed in the field of what was once innocently called ‘geography’ met in Nairobi last week (8–12 June 2010) to see if they couldn’t, by working together better, speed work to reduce world poverty, hunger and environmental degradation. (Oddly, this gathering of people all about ‘location’ tend to use a forest of acronyms — GIS, ArcGIA, CSI, ESRI, ICT-KM, AGCommons, CIARD, CGMap  — in which the casual visitor is likely to get lost.)

The participants at this meeting, called the ‘Africa Agricultural GIS Week’, aimed to find ways to offer more cohesive support to the international community that is working to help communities and nations climb out of poverty through sustainable agriculture.

The world’s big agricultural problems – too little food to feed the 6-plus and growing billions of people on the planet, too extractive (unsustainable) ways of producing food, too little new land left to put to food production, too few viable agricultural markets serving the poor, too high food prices for the urban poor, too extreme and variable climates for sustaining rural agricultural livelihoods – appear to be fast closing in on us. Our global agricultural problems are of an increasingly connected and complex nature. Most experts agree that silver-bullet solutions are not the answer. We must tackle these problems holistically or, in the jargon of agricultural science, from a systems-based perspective.

And that, perhaps, is where these high-tech geographers can most help us navigate the future of small-scale food production.

VISH NENE, Director of the Biotechnology Theme

At the opening of this Week’s events, held at the Nairobi campus of the International Livestock Research Institute (ILRI), Vish Nene, a molecular biologist who directs ILRI’s Biotechnology Theme, spoke on behalf of ILRI’s director general, Carlos Seré, who was on mission travel abroad. Nene welcomed Kenya’s Assistant Minister of Agriculture and MP, Hon Japhet Mbiuki, who gave a keynote speech on behalf of Kenya’s Minister for Agriculture, Hon Dr Sally Kosgei.

Nene said that ILRI was particularly pleased to be hosting this meeting, as it has a long track record in the use of GIS in its research portfolio, having developed a GIS Unit first some 22 years ago and being a leader today in large-scale, fine-resolution, mapping of the intersection of small-scale livestock enterprises and global poverty.

An M.O. Notenbaert, Scientist, GIS Analyst, Targeting and Innovation

The second day of the Week, An Notenbaert, a GIS expert at ILRI, gave the participants an overview of what ILRI has been doing in the area of geospatial research, and what particular kinds of geospatial services and expertise ILRI could offer new ‘mega-programs’ of the Consultative Group on International Agricultural Research (CGIAR).

Notenbaert sketched two of ILRI’s research projects that require a ‘spatial’ foundation.

Protecting remote herders with their first drought-related livestock insurance

The first ILRI project Notenbaert described is one that this year is piloting ‘index-based livestock insurance’ for remote Kenyan livestock herders. This project, she said, is all about managing risks in dry, harsh lands, where most people’s livelihoods still depend on livestock herding. Because traditional livestock insurance is impractical for the dispersed herding populations of Kenya’s northern frontier, ILRI researchers initiated a study on the feasibility of using information not about the number of livestock deaths in droughts over the years, but rather an indicator associated with such drought-related animal deaths. ‘We are using satellite images of vegetation of the region to come up with a livestock mortality index,’ she said. ‘This is quite a neat application of remote sensing data.’

The pilot project was launched in Kenya’s Marsabit District in January 2010. Livestock owners in the district have bought insurance premiums that will pay out not when their animals die (which would require a logistically complex and expensive procedure to verify animal deaths), but rather when satellite images show that livestock forage has dipped below a predetermined threshold, with the likely result of many animals dying.

Down-scaling climate projections for more useful information for policymakers

The second ILRI project Notenbaert described to the assembled group of spatial experts is working to make more local, and thus more useful, assessments of the impacts of climate change on poor communities in the tropics.

Little information, for example, is available on climate change in East Africa, whether at country or local levels. While a projected increase in rainfall in East Africa to 2080, extending into the Horn of Africa, is robust across the ensemble of Global Circulation Models available, other work suggests that climate models have probably underestimated the warming impacts of the Indian Ocean and thus may well be over-estimating rainfall in East Africa during the present century.

In 2006, ILRI researchers estimated changes in aggregate monthly values for temperature and precipitation. Possible future long-term monthly climate normals for rainfall, daily temperature and daily temperature diurnal range were derived by down-scaling the outputs of Global Circulation Models to WorldClim v1.3 climate grids at a resolution of 18 square kilometres. Outputs from several Global Circulation Models and scenarios made by the Special Report on Emissions Scenarios (Intergovernmental Panel on Climate Change, 2000) were used to derive climate normals for 2000, 2005, 2010, 2015, 2020, 2025 and 2030 using the down-scaling methodology described in 2003 by ILRI researchers. Although the figures derived for Kenya correspond with findings of long-term wetting, the ILRI researchers also found the regional variations in precipitation to be large, with the coastal region likely to become drier, for example, while Kenya’s highlands and northern frontier are likely to become wetter.

For more information, see:

Africa Agriculture GIS Week

Index-based Livestock Insurance

Climate Projection Data Download

AGCommons: Location-specific information services for agriculture

Coherence in Information for Agricultural Research for Development