Collective action ‘in action’ for African agriculture

Household takes refuge from the rain in central Malawi

Collaborative agricultural research in Africa gets a welcome boost; village farm household in central Malawi (photo credit: ILRI/Mann).

In recent months, an,  initiative of the Consultative Group on International Agricultural Research (CGIAR) called the Regional Plan for Collective Action in Eastern & Southern Africa (now simply called the ‘Regional Collective Action’) updated its ‘CGIAR Ongoing Research Projects in Africa Map’: http://ongoing-research.cgiar.org/ This collaborative and interactive map will be launched in the coming weeks through fliers, displays and presentations at agricultural, research and development meetings that have Africa as a focus. Although much of Africa’s agricultural research information has yet to be captured in this map, 14 centres supported by the CGIAR have already posted a total of 193 research projects and much more is being prepared for posting.

The newsletter of the Regional Collective Action—Collective Action News: Updates of agricultural research in Africa—continues to elicit considerable interest and feedback. Recent issues reported on the CGIAR reform process (November 2009) and agriculture and rural development at the recent climate change talks in Copenhagen (December 2009). The January 2010 issue reflects on the achievements of the Regional Collective Action since its inception three years ago (https://www.ilri.org/regionalplan/documents/Collective Action News January 2010.pdf).

Several high-profile African networks, including the Forum for Agricultural Research in Africa (FARA), the Food, Agriculture and Natural Resources Policy Analysis Network (FANRPAN) and the Association for Strengthening Agricultural Research in Eastern and Central Africa (ASARECA), are helping to disseminate the newsletter of the Regional Collective Action as well as information about its consolidated multi-institutional research map. Coordinators have now been appointed to lead each of four flagship programs of the Regional Collective Action.

Flagship 1 conducts collaborative work on integrated natural resource management issues and is coordinated by Frank Place at the World Agroforestry Centre (ICRAF).
Flagship 2 conducts research on agricultural markets and institutions and is led by Steve Staal of ILRI.
Flagship 3 conducts research on agricultural and related biodiversity and is led by Wilson Marandu of Bioversity International with support from Richard Jones of the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT).
Flagship 4 conducts research on agriculturally related issues in disaster preparedness and response and is led by Kate Longley and Richard Jones of ICRISAT.

These four flagships programs of the Regional Collective Action are expected to play crucial roles in advancing collaborative discussions and activities in the new CGIAR, which is transforming itself to better link its agricultural research to development outcomes. ILRI’s Director of Partnerships and Communications, Bruce Scott, represented the CGIAR Centres at the December Meeting of the ASARECA Board of Trustees.

‘ASARECA continues to value the work of the CGIAR Centres in this region and welcome the Regional Collective Action,’ Scott said. With the four Flagship Programs off and running, the interactive Regional Research Map live on the web, and Collective Action News reporting on regional agricultural issues regularly, collaborative agricultural science for development in Africa appears to have got a welcome boost.

Improving cattle genetics with in vitro embryo production technology

Livestock scientists from ILRI and the Clinical Studies Department of the University of Nairobi (UON) recently succeeded in breeding Kenya’s first test-tube calf using a technique called in vitro embryo production (IVEP). IVEP makes it possible to rapidly multiply and breed genetically superior cattle within a short generation interval.
Why is this important?
For several reasons. First, livestock is the fastest growing sub-sector in the world, as increasing trends of 114% in demand for meat and 133% for milk attest. To improve on food security, it is essential to double livestock production in the developing world by 2020. IVEP is clearly one of the most efficient ways to accomplish this.

Second, let’s consider the problem of environmental impact. Doubling livestock production through traditional breeding techniques increases pressure on natural resources—water, land and biodiversity. So the need for enhanced efficiency without degrading natural resources is urgent. Again, IVEP, which requires only laboratory equipment in the production process, comes to the rescue.

Third, there is the biodiversity issue. Matching genotypes to environment is crucial. Scientists need to take several factors into consideration—among them adaptation, tolerance for disease, tolerance for new environments and alignment to market development. Although plenty of genetic diversity exists, thus far we’ve done little with it. Once more, IVEP could be the answer.

Fourth, IVEP has significant commercial potential because farmers can rent their best cows as donors and their lower-quality cows as surrogates.

Most importantly, we need to look closely at the constraints faced by small-scale livestock keepers.

  • Cattle genotypes and production environments, as often as not, do not match. Result:  low productivity.
  • Heifer replacement programs take a long time and are rarely done properly. Result: supply is low, prices are high.
  • Sex ratios are often disadvantageous. Result: too many males and high production costs.
  • The commercial relevance of many indigenous breeds is not optimised. Result: farmers incur unsupportable losses.
  • Programs for breed conservation and preservation are often improper. Result: some breeds are threatened by extinction and no gene pool for replacement exists.

IVEP does not—and should not—completely replace traditional reproductive technologies such as conventional embryo transfer (ET) and artificial insemination. Each of these techniques has its place, and each of them utilizes tissues, embryos and semen for improvement and reconstruction of cattle breeds. The difference is that while the traditional ET techniques involve more animals and are wholly done in the field, IVEP is undertaken in the lab and involves fewer surrogate animals in the field. IVEP eliminates the tedious steps of synchronizing donor cows.

Specifically, IVEP technology as a breeding tool has the distinct advantage of maximizing utilization of appropriate dam and sire genotypes by:

  • increasing efficiency of multiplication in breeding;
  • permitting  determination of sex of the offspring; and
  • permitting pre-testing of actual fertility status of the bull.

Thus, while natural mating or artificial insemination are necessarily slow and inefficient, producing only 10-15 offspring per life span of a cow …

…IVEP can produce up to 300 offspring per life span.

The SIFET Project: a successful IVEP program
The Sexed semen in-vitro fertilization and embryo transfer (SIFET) project was designed to exploit and promote the potential of applying IVEP reproductive technique to:

  • develop, multiply and disseminate female crossbreeds that appropriately match with production environment;
  • provide a system to preserve top bovine genotypes in cases of accidental culling in a recycle-like scheme (slaughterhouse collection); and
  • identify, multiply and conserve selected superior desirable breed traits.

The project involved collecting ovaries from slaughter houses or picking ovum from live cows. When the genetic material is brought to the lab, oocytes with high developmental competence are selected and morphological evaluation done. Once the ideal oocytes are identified, they are matured in vitro for 22-24 hours. The subsequent in vitro fertilization process is conducted for a period of 18-22 hours with a high sperm concentration. The fertilization itself requires removal of seminal plasma and extenders, separation of motile sperms from dead ones and induction of sperm capacitation. Once the embryos are formed, they are cultured in the lab for 7 days and then transferred to surrogates.

A conception rate of about 40% has been achieved, with calves born without abnormalities.

Conclusions

  1. IVEP technology is feasible in Kenya.
  2. Commercialization of the process should be facilitated as soon as supportive policies and proper legal/regulatory frameworks are in place

Challenges
Poor field heat detections leading to poor uterine synchrony and lower conceptions are concerns, as is the high genotype variability characteristic of animals brought to slaughterhouses.

Way forward and prospects
Looking ahead, the collaborating scientists anticipate bringing ovum pick-up (OPU) and cryopreservation into the picture as well as capacity building.

Clearly, such programs can help match breeds to appropriate production systems to ensure sound breeding programs. Where and when necessary, new breeds can be introduced within a relatively short period of time. Above all, embryos are far easier to transport across continents than live animals.

Through IVEP technology and well-planned crossbreeding programs such as SIFET that integrate the use of indigenous cows as donors and surrogates while using semen from appropriate (more productive and reasonably adapted) dairy breeds such as Jerseys, F1 heifers suited to the smallholder farmers’ conditions can be produced.

Niche markets for the technology and its F1 products should be further explored and exploited, notably with regard to the potential of forestalling the threat to key wildlife species.

Acknowledgements
Funding for the project was made available by Heifer Project International. UON provided the technical team and recipient animals. Administration and laboratory facilities were provided by ILRI. The cooperation of the abattoirs (the source of ovaries) and the animal owners are gratefully acknowledged. The capacity building program through a joint CNPq grant for the Embrapa-UON-ILRI partnership, as well as support from Dr Luiz Carmago and Dr Joao Viana of Embrapa, are highly appreciated.

The collaborating scientists are Mwai Okeyo, Henry Mutembei and Bridgit Syombua from ILRI; and  Erastus Mutiga, Victor Tsuma and Henry Mutembei from Clinical Studies, UON.

For more information, contact Dr Okeyo Mwai, Animal Geneticist/Breeder, Biotechnology Theme, ILRI, at o.mwai@cgiar.org.

American TV show ’60 Minutes’ features ILRI research in Masai Mara

Reid_2002

The work of ecologist Robin Reid, who spent 15 years conducting pastoral research at the Nairobi headquarters of the International Livestock Research Institute (ILRI) and is now Director for Collaborative Conservation at Colorado State University, in Fort Collins, is featured in a current segment of the American television program ’60 Minutes’, which aired last Sunday, 3 October 2009. You can view the segment on the 60 Minutes website here:
http://www.cbsnews.com/video/watch/?id=5362301n

This story of the great annual wildebeest migration, the last such spectacle of big mammals on the move, focuses on two things—the danger that destruction of Kenya’s Mau Forest presents to the Mara River, the artery that keeps the wildlife and livestock in the Masai Mara region alive, and the hope for sustaining both wildlife populations and the Maasai’s pastoral livelihoods presented by new public-private initiatives called wildlife conservancies.

Poverty reduction lies behind both the danger and the hope.

Kenyan governments have allowed poor farmers to inhabit the Mau Forest, high above the Mara Game Reserve, which provides the waters for the Mara River. These farmers fell the trees to grow crops and make a living. The current government has recently acted to evict these communities to protect this important watershed.

Downstream, meanwhile, Maasai livestock herders, who have provided stewardship for the wildlife populations they live amongst for centuries, are bearing the brunt of the declining water in the Mara River, which threatens both their livestock livelihoods and the populations of big mammals and other wildlife that have made the Mara Game Reserve famous worldwide. Robin Reid says that should the Mara River disappear entirely, some experts estimate some 400,000 animals would likely perish in the very first week.

The new wildlife conservancies being developed in the lands adjacent to the Reserve are also about poverty reduction. They are an ambitious attempt by the local Maasai and private conservation and tourist companies to serve the needs both of the local livestock herders and the many people wanting to conserve resources for the wildlife. The conservancies are paying the Maasai to leave some of their lands open for wildlife. They appear to be working well, with the full support of the local Maasai. Dickson ole Kaelo, who is leading the conservancy effort, was recently a partner in an ILRI research project called Reto-o-Reto, a Maasai term meaning ‘I help you, you help me’. Dickson was a science communicator in that 3-year project, which found ways to help both the human and wildlife populations of this region. In his new role as developer of conservancies, Dickson and his community have managed to bring nearly 300 square miles of Mara rangelands under management by the conservancies, which pay equal attention to people and animals.

The long-term participatory science behind this story is demonstrable proof that, difficult as they are to find and develop, ways to help both people and wildlife, both public and private goods, exist, if all stakeholders come together and if the political will and policy support are forthcoming.

In other, drier, rangelands of Kenya, now experiencing a great drought that is killing half the livestock herds of pastoralists, some experts are predicting an end to pastoral ways of life. Other experts are predicting the end of big game in Kenya. Both, ILRI’s research indicates, are tied to one another. It appears unlikely that either will be saved without the other.

Feeding tomorrow’s hungry livestock

In January 2008 ILRI shipped 4000 samples of tropical fodders and forages to Norway’s Svalbard Global Seed Vault for its offical opening today (26th February). This ‘natural freezer’ will help conserve future feed supplies.
 

Dramatic losses of plant diversity, including fodders and forages that feed livestock, are one of the greatest challenges facing sustainable development today. Soaring human populations are eroding the world’s plant genetic diversity and other natural resources. Increasing demands for human food, along with urbanization, pollution and land degradation, are squeezing out hardy fodder and forage plants that allow half a billion poor people to keep livestock. These fodders and forages are vital today. In future, they may become the only way poor livestock keepers are able to adapt to climate and other changes.

A genebank maintained by ILRI, in Ethiopia, is part of a global effort to help save food and feed plant diversity before it is too late. ILRI is conserving and studying animal feed crops to help ensure future food supplies.

ILRI and other members of the Consultative Group on International Agricultural Research (CGIAR) are storing their vast seed collections in the new Svalbard global seed vault in Norway as a safety backup. This natural freezer, located in the Arctic Circle, will preserve seeds of these plant varieties for many years. This effort is part of a global commitment under the International Treaty on Plant Genetic Resources for Food and Agriculture. The benefits are universal.
ILRI’s forage diversity project leader, Jean Hanson, says, ‘The 18,000 seed and plant samples held in trust in the ILRI genebank are tested to help scientists deliver appropriate fodders and forages for millions of poor milk and meat producers.

‘In January 2008 ILRI shipped 4000 samples of tropical fodders and forages to Norway’s Svalbard Global Seed Vault. These samples duplicate specimens from ILRI’s vast collection of African forages, the largest and most diverse in the world.’

ILRI genebank: A global public good

ILRI maintains both an active and base genebank in Addis Ababa, Ethiopia.

The active genebank is used for current research and distribution of seeds. Seeds are dried in a dehumidified drying room and packed in laminated aluminium foil bags for storage in the active genebank at 8°C. All seeds in the active collection are freely available in small quantities to bona-fide forage research workers and distributed both directly and through networks.

The base genebank is used for long-term security storage of original germplasm collections. The base genebank acts as a repository of materials that have been reasonably characterized and which may or may not have current interest or use by plant breeders. Collected materials are preserved until such time as there are enough resources available for them to be characterized and evaluated. Materials are stored in the base genebank at -20°C.

ILRI’s director general, Carlos Seré summarizes, ‘We know that weather is set to become more extreme, increasing flooding, soil erosion and salinity, droughts and other causes of land degradation.

‘Climate change will also spread diseases among livestock feed plants as well as crop plants. These changes are already increasing world food prices and threatening lives of the poor.

‘The options scientists are generating through plant genetic diversity research will help small farmers adapt quickly to their changing local environments and markets.’

‘In future, the genes scientists are investigating may provide resistance to drought, disease or salinity, not only in fodder plants but also in maize, rice and other important cereal crops’ concludes Sere.

View film on conserving forage genetic resources

 

 Feeding tomorrow’s hungry livestock: ILRI 3 minute film

Request DVD

Cover image of ILRI’s ‘Managing fodder and forage genetic resources’ DVD

Emai: g.ndungu@cgiar.org to request a copy of this 10 minute film.

Further Information:

ILRI’s forage diversity project leader, Jean Hanson, has been invited to join the International Advisory Council for the Svalbard Global Seed Vault. The council is being established to provide guidance and advice, and will include representatives from FAO, the CGIAR, the International Treaty on Plant Genetic Resources (ITPGR) and other institutions. 

Forage diversity activities at the International Livestock Research Institute (ILRI)

Forage diversity as a global public good

For research-related enquiries contact:

Jean Hanson
Forage diversity project leader
International Livestock Research Institute (ILRI)
Addis Ababa, ETHIOPIA
Email:
j.hanson@cgiar.org
Telephone: +251 11 617 2000

The time is now: Safeguarding livestock diversity

ILRI’s Annual Report: ‘The Time is Now: Safeguarding livestock diversity’ has just been released. The report on 2006 work focuses on how research is helping to characterize, use and conserve the world’s rapidly diminishing livestock genetic diversity.

The mission of the International Livestock Research Institute (ILRI) is to help people in developing countries move out of poverty. The challenge is to do so while conserving the natural resources on which the poor directly depend. Among the natural resources important to the world’s poor are the ‘living assets’ people accumulate in the form of their farm animals.

ILRI works with the UN Food and Agriculture Organization (FAO) and many other partners to improve management of livestock genetic resources in developing countries. This year, FAO produced the world’s first inventory on animal genetic resources ‘The State of the World’s Animal Genetic Resources’, highlighting that many breeds of livestock are at risk of extinction, with the loss of an average of one livestock breed every month. The FAO report estimates that 70% of the entire world’s remaining unique livestock breeds are found in developing countries.

ILRI’s Director General Carlos Seré says: ‘Although our information on the world’s remaining livestock genetic resources is imperfect, experts agree that we need to take action now rather than wait for substantially better information to become available.

‘The accelerating threats to livestock diversity in recent years demand that we act now before a substantial proportion of those resources are lost to us forever. The time is now’, says Seré.

At a recent keynote address, the UN Under-Secretary General and Executive Director of the United Nations Environment Program (UNEP), Achim Steiner, echoed these concerns and highlighted the implications of loss of the world’s animal genetic diversity:

‘I, like so many others, was shocked to read of the decline of genetic diversity in livestock outlined by ILRI and FAO in September (2007) at the First International Technical Conference on Animal Genetic Resources.

‘The increasing over-reliance on a handful of breeds such as Holstein-Friesian cows, White Leghorn chickens and fast-growing Large White pigs mirrors the trend in agricultural crops.

‘Mono-cultures, whether it be in agriculture or in the narrowing of human ingenuity and ideas, will not serve humanity well in a world of over six billion shortly moving to perhaps 10 billion.

‘(Mono-cultures) will not enhance stability and adaptation in a climatically challenged world’, concluded Steiner.

Download ILRI’s 2006 Annual Report: ‘The Time is Now: Safeguarding Livestock Diversity’: https://cgspace.cgiar.org/bitstream/10568/2479/1/AnnualRep2006_Safeguard.pdf

Related articles and resources on animal genetic resources

A ‘Livestock Meltdown’ Is Occurring As Hardy African, Asian, and Latin American Farm Animals Face Extinction: https://newsarchive.ilri.org/archives/550

FAQs about saving livestock genetic resources: https://newsarchive.ilri.org/archives/552

Films on animal genetic resources

• 3-minute film on conserving livestock for people

Livestock breeds that have helped people survive countless challenges throughout history are now dying out at an extraordinary rate. Globally, governments are discussing this problem, meanwhile this film sets out 4 approaches that can help now.

http://blip.tv/ilri/conserving-livestock-genetic-resources-for-people-summary-1369699

• 30-second film highlight on Sheko cattle

Sheko cattle come from Southern Ethiopia and there are only 2500 left in the world. They are adapted to withstand trypanosomosis, a disease that kills cattle and people.

http://blip.tv/ilri/three-endangered-african-livestock-breeds-1370212

• 30-second film highlight on Ankole cattle

Ankole cattle come from East Africa. These hardy, gentle, animals are threatened by expanding human populations and market demands. At current rates they will disappear in 50 years.

http://blip.tv/ilri/ankole-cattle-one-of-africa-s-disappearing-livestock-breeds-3982895

• 30-second film highlight on Red Maasai sheep

Red Maasai sheep come from East Africa and do not get sick when infected by intestinal worms. However, the numbers of pure Red Maasai sheep are declining.

http://blip.tv/ilri/three-endangered-african-livestock-breeds-1370212

The time is now

The world’s first Global Plan of Action for Animal Genetic Resources was agreed at a recent FAO conference in Switzerland from 3 to 7 September. While international negotiations continue, much can be done now, before it’s too late.
 

The First International Technical Conference on Animal Genetic Resources for Food and Agriculture, held in Interlaken in September, was a week-long series of negotiations organized by the Food and Agriculture Organization of the United Nations (FAO) and hosted by the Government of Switzerland to consider the current state of the world’s animal genetic resources and to reach international agreement on the best ways forward to protect these resources for long-term use. The conference opened with the launch of the world’s first report on the status of farm animal genetic resources, The State of the World’s Animal Genetic Resources. By the end of the conference, the world’s first Global Plan of Action for Animal Genetic Resources had been agreed by representatives from 109 countries. The global plan identifies four high-priority areas for animal genetic resources: characterization, inventory and monitoring of trends and risks, sustainable use and development, conservation and policies, institutions and capacity building.
Progress made at the Interlaken Conference includes:

  • Agreement on a global plan for identifying and conserving valuable livestock species
  • Agreement that livestock keepers rights are fundamental and need to be considered as part of an inclusive and equitable global plan
  • Agreement that incentives need to be provided to help the traditional custodians of indigenous animal genetic resources—usually small-scale livestock keepers—continue to keep their native breeds.

Overview of the Interlaken conference
On the first day of the conference, ILRI’s director general, Carlos Seré, presented a paper on ‘Dynamics of Livestock Production Systems, Drivers of Change and Prospects for Animal Genetic Resources’. He identified key drivers of change, how they were influencing current trends and future prospects, and their impacts on the management of animal genetic resources for food and agriculture.
Seré identified four drivers: economic development and globalization, changing market demands, environmental impacts and trends in science and technology. He described the trends in livestock production in industrial, crop-livestock and pastoral systems, emphasizing that while the trends are occurring in both developing and industrialized countries, the outcomes are different. In the developing world, some trends are reducing the ability of livestock keepers to improve their livelihoods, reduce their poverty and manage their natural resources. The industrial livestock production systems of developed countries have already greatly narrowed the livestock genepool, reducing our ability to deal with future uncertainties, such as climate change and zoonotic diseases.

Local breeds being crowded out
During the presentation, the ILRI director general cited replacement of indigenous tropical breeds with exotic animals as a key reason for the erosion of genetic diversity. Local breeds are estimated to be disappearing at the rate of one a month. This concern was echoed by the representative from the League for Pastoral Peoples and Endogenous Livestock Development. Ilse Köhler-Rollefson stated that policies relating to the introduction of exotic breeds and subsidies were helping large-scale production systems but hurting pastoralists.
Seré stressed that conserving our livestock genetic resources required appropriate institutional and policy frameworks and concerted international efforts. As these negotiations will take time, Seré proposed four complementary actions to improve the management of animal genetic resources and maintain our genetic options for the future. These are: provide incentives for in situ conservation of local breeds (‘keep it on the hoof’); facilitate movement of breeds within and between countries (‘move it or lose it’); match breeds to environments (‘livestock landscape genomics’); and establish genebanks (‘put some in the bank’).
These four strategies are practical steps that can help conserve indigenous tropical breeds. Seré cautioned that if actions are not taken now, it could be too late for some breeds that will soon be lost to the world forever.

Media help to raise awareness of ‘livestock meltdown’
There was extensive media coverage of the FAO Interlaken conference, with regional and international press and radio and local African TV all helping to raise awareness of the ‘livestock meltdown’ taking place.

Local livestock breeds at risk: Nature (3 September 2007) reported that indigenous animals are dying out as commercial breeds sweep the world.

‘Many of the world’s indigenous livestock breeds are in danger of dying out as commercial breeds take over, according to a worldwide inventory of animal diversity.
‘Their extinction would mean the loss of genetic resources that help animals overcome disease and drought, particularly in the developing world, say livestock experts.’

Read the full article at http://www.nature.com/news/2007/070903/full/070903-2.html (subscription required).

FAQs about saving livestock genetic resources

01.   What did ILRI/FAO find and how did you find it?
How: A global assessment of livestock genetic resources has been coordinated by the Food and Agriculture Organization of the United Nations (FAO). The assessment aimed to determine the status of the world’s livestock resources – what exists and where, what are their characteristics and the risks they may be facing, and what is the capacity of nations to deal with these. As an international organization addressing poverty through sustainable livestock production, the International Livestock Research Institute (ILRI) develops research tools for characterizing livestock breeds of the developing world and assessing their diversity.

What?: The ‘assessment of the State of the World’s livestock resources’ (as this initiative was called) had the following findings:

  • Over 7000 breeds (representing mammalian and avian species) have been developed over the last 12,000 years, since the first livestock species was domesticated.
  • There are 40 livestock species used for food and agriculture, 5 of which – cattle, sheep, goats, pigs and chickens – account for most of the world’s food and agriculture production.
  • Some 696 breeds have become extinct since the early 1900s.
  • A total of 1,487 breeds are at risk, of which 579 are at critical levels (requiring immediate action).
  • Key causes of threat were identified (see examples below).
  • Lack of information on the world’s livestock resources—what livestock breeds and populations exist and  where, what are their characteristics, do they possess unique genetic diversity—was found to be a key impediment to their sustainable use.
  • Conservation programs are lacking, especially in developing countries where most of the world’s remaining breeds reside and where the risk of loss of livestock genetic resources is greatest

02.   Why do a few specialized ‘European’ breeds of farm animals dominate?

  • In pursuit of quick wins to increase productivity to meet demand, developing countries over the last half century have imported specialized, high-producing breeds, such as the black-and-white Holstein-Friesian dairy cow.
  • Aggressive promotion by breeding companies of the North.
  • Subsidized importation, usually through development assistance.
  • Exotic breeds have been imported into developing countries without adequate information on the robustness/hardiness/appropriateness of the native breeds the imports have been supplanting.

03.   How are the exotic imports faring in their various new locales in developing countries?
There are local niches where exotic breeds have proved productive. For example, Holstein-Friesian cows have done well in the East African highlands, which have temperate climate and adequate feed resources. However, the imports have been unable to cope with the disease, heat, humidity, scarce and poor-quality feed in many developing-country environments. Their inappropriateness for these stressful environments has tended to be discovered only after they have been widely used and have significantly ‘diluted’ the local gene pool, leaving local farmers without their traditional hardy animals.

04.   Why can’t we save all domesticated livestock breeds and populations?
Saving all existing livestock breeds around the world would require considerable investment. Fortunately, some specialized breeds in developed countries are currently safe or relatively safe because they remain popular with local communities and thus are supported by market forces. With globalization and ease of movement of traded commodities, there is increasing risk that fewer and fewer breeds will be supported this way. Many local traditional breeds support the livelihoods of the world’s poor livestock keepers in developing countries. While these native breeds are threatened by rapid changes occurring in the livestock production systems of poor countries, these countries lack the resources to conserve all their traditional native stock.

05.   Why is genetic diversity important in livestock?
Diversity is the basic ingredient for improving productivity, product quality and adaptation to meet different needs. It offers farmers and breeders the options needed to make adjustments to new market needs or to respond to changes in the production environment. A disease outbreak that wipes out a particular (susceptible) genetic type presents a greater risk in ‘monoculture’ (single-breed) production systems than it does in multi-breed systems. In other words, livestock diversity can help people cope with adversity while also providing prospects for livestock improvements. Changes in livestock production across the developing world, as well as an unpredictable future, require that these genetic options be safeguarded. It is particularly important to conserve livestock genetic resources because the ancestors of most of our existing livestock species no longer exist; crop breeding, on the other hand, has benefited enormously by being able to harness genes from the wild ancestors of our major crop plants.

06.   Can’t we just recreate desired traits via genetic engineering if necessary?
This will probably be technically feasible in the future for many production traits of interest in our livestock. And that is exactly why we need to have the diversity from which ‘new animal types’ could be created – whether through genetic engineering or conventional breeding (acceptability and costs, among others, will determine which ‘creation avenue’ is employed). Importantly, we do not know which traits we will need in future and which of the present breeds posses the requisite genes. Thus, as we develop technology and tools to conserve livestock genetic resources, we must also ensure that we have access to the raw materials—the livestock and/or their germplasm.

07.   Doesn’t industrialized agriculture obviate the need for such diversity?
As has happened in crop agriculture, industrialized livestock systems are typically characterized by a handful of specialized ‘breed types’. The chicken and pig industries have a few parental lines that form the basis of commercial chickens and pigs around the world. An outbreak of a disease to which these lines are susceptible could wipe out most of these animals, with disastrous global impacts. Thus, it is in the interests of both the public and private sectors to safeguard diversity in livestock as source of future options.

08.   How is foreign investment reshaping local livestock practices?

  • Direct foreign investment finances breeding companies that introduce foreign breeds.
  • The ‘supermarket revolution’, which is driven in many countries by foreign direct investment, is impacting livestock as well as crop agriculture in significant ways:

    o Standards required for food products sold in supermarkets influence such things as product quality, size  uniformity and timing of delivery.
    o The production volume needed to meet these food standards make it difficult for poor smallholders to participate in the supermarket revolution.
    o Contract-farming provides avenues for a few, well-informed and/or better-endowed farmers to participate in this revolution, sometimes through cooperatives.
   o But most smallholders are left out in this process.

09.   Do developed-world genebanks already hold some of this diversity material?
Developed-world genebanks hold very little livestock germplasm from developing countries—just a few breeds they may have imported for experimental evaluation. The major global flow of livestock genetic material has been from North to South. Currently, the fastest and most effective way for the North to help stem livestock biodiversity losses is to assist developing nations in establishing capacity to save their endangered native breeds. It is not good enough for Southern countries to depend on the North to be custodians of their livestock genetic material. The greatest livestock diversity remaining in the world is in the South and Northern countries are not highly interested in these breeds.

10.   Are rare breeds going to end up being preserved by hobbyists or organic enthusiasts?

In the developed world, there are examples of livestock breeds being preserved by livestock hobbyists or enthusiasts. In the developing world, most livestock owners are poor and the number of breeds needing attention is too large to be addressed by a few rich farmers. Alternative and substantive actions are required.

11.   How important is livestock production to developing world development?

Worldwide, one billion people are involved in animal farming and domestic animals supply 30 per cent of total human requirements for food and agriculture. In developing countries, 70 per cent of the rural poor depend on livestock as an important part of their livelihoods and livestock account for some 30 per cent of agricultural gross domestic product, a figure expected to rise to 40 per cent by the year 2030. Currently, more than 600 million rural poor people rely on livestock for their livelihoods. (Sixty-three per cent of the developing world’s total population live in rural areas, including 75 per cent of the 1.2 billion people trapped in extreme poverty; of these 900 million rural poor, some 70 per cent, or 630 million, raise livestock as part of their livelihoods.) The developing-world’s large and rapidly growing livestock markets make livestock production an income-generating opportunity similar to horticulture and other high-value agricultural commodities. The advantage of the livestock markets is that they are largely domestic and thus require no export infrastructure. Finally, livestock is what poor farmers know how to produce, and they have access to feed and other resources to produce it competitively.

12.   Does livestock production still offer a pathway out of poverty?
Yes. The growing livestock markets and expanding post-production value addition are providing jobs and incomes at many levels. Increasing animal production also of course keeps down critical food prices for the urban poor.

13.   Is another answer to simply scale back the use of livestock in general by reducing demand in the developed world while stopping demand before it starts in developing countries?
The livestock revolution is demand-driven. As consumers become more urbanized and their incomes grow, as they have in much of Asia and Latin America, their demand for animal products grows markedly. We expect that the developing world will double their consumption of animal products in the next 20 years. Livestock production growth to meet the growing market demand has to rely on the same or shrinking land, water and other natural resources. What we need are dramatic productivity increases. Policies will play a key role in shaping what happens in different parts of the world. If polices enforce more environmentally neutral production systems, this could lead to higher prices, particularly in the developed countries, which use intensive systems heavily reliant on external inputs and energy.

14.    How will the ‘supermarket revolution’ take hold in the developing world and what impact this will have on livestock production?
Supermarkets will impose stringent requirements on production of crops and livestock foods, particularly in terms of homogeneous large volumes and food safety conditions. This can make it increasingly difficult for smallholders to participate in these modern commodity chains. Important developments in terms of organizing smallholders for collective action are critical and are being established by agribusinesses and non-governmental organizations (e.g. contract-farming, vertical integration, cooperatives). Large-scale production units will continue to grow and can be developed in pro-poor ways by maximizing employment in poor areas that have resources suitable for animal production. For example, large-scale dairy or feedlot operations may contract forage production to small-scale farmers.

15.   Is the goal of saving diversity simply to boost the potential of alternatives to industrial animal husbandry, such as crop-livestock systems?
No, it is to provide options for the world. Even industrial systems will need animal genetic resources if significant shocks to the system happen, e.g. ban on antibiotics, climate change causing higher temperatures in certain regions and the spread of diseases from the tropics to the temperate world.

16.   Why is it important to boost crop-livestock systems?
Boosting crop-livestock production is the best way to sustain agricultural systems in large parts of the developing world. There are big inefficiencies in these systems that can be addressed with technology, better training and knowledge sharing.

17.   How far along with ‘landscape-livestock genomics’ are you? Is there even the beginnings of a map? When do you expect such a thing might be available?
The aim of landscape genomics is to learn from the co-evolution of livestock and their production systems and use the knowledge gained to better match different breeds with production circumstances. The approach employs molecular genetic tools to understand the genetic composition of livestock at the population level, using specified genetic regions (‘signatures of selection’) that appear targeted by key influencing factors in that environment. By overlaying this information with other sets of information such as agro-ecological maps, one can see what genetic material are candidates for use in which parts of the globe.
Where are we today? Independent of the genomics work, much progress is being made in modelling and mapping livestock systems, including how they are evolving in response to climate change. Development of tools for rapidly mapping genetic composition of populations is also advancing. Over the next 5 years, we plan to have made significant advances in this area and to have applied landscape genomics (even at a pilot scale) in the humid zone of West Africa, focusing on cattle populations.

18.  What do you hope to do next?
Urgent actions include:

  • With FAO and other collaborators, sensitize the global community about the value of conserving livestock genetic resources and mobilize greater support for saving the remaining livestock diversity in the developing world.
  • Focus on breeds already at risk, especially those in the FAO ‘critical list’.
  • Establish gene banks: Ex situ conservation (in gene banks) is seen as the fastest way to save some of these breeds, even if characterization information is inadequate or absent – a special session at the global conference in Interlaken (Switzerland) on 3 September 2007 discussed strategies to move this forward.
  • Facilitate the sharing of genetic material among developing countries, especially where there is evidence that a breed in one country holds promise for another, which will serve as long-term insurance against losses arising from droughts, civil conflicts, and other disasters.
  • Develop re-stocking strategies to ensure that appropriate breeds are used in the aftermath of disasters.
  • Develop pro-poor breeding strategies appropriate for low-input livestock production systems and infrastructure levels available in developing countries.
  • Identify factors that constrain competitiveness of indigenous breeds.

A ‘livestock meltdown’ is occurring as hardy African, Asian and Latin American farm animals face extinction

Scientists Call for Rapid Establishment of Livestock Genebanks To Conserve Indigenous Breeds
 

With the world’s first global inventory of farm animals showing many breeds of African, Asian, and Latin American livestock at risk of extinction, scientists from the Consultative Group on International Agricultural Research (CGIAR) today called for the rapid establishment of genebanks to conserve the sperm and ovaries of key animals critical for the global population’s future survival.

An over-reliance on just a few breeds of a handful of farm animal species, such as high-milk-yielding Holstein-Friesian cows, egg-laying White Leghorn chickens, and fast-growing Large White pigs, is causing the loss of an average of one livestock breed every month according to a recently released report by the UN Food and Agriculture Organization (FAO). The black-and-white Holstein-Friesian dairy cow, for example, is now found in 128 countries and in all regions of the world. An astonishing 90 percent of cattle in industrialized countries come from only six very tightly defined breeds.

The report, “The State of the World’s Animal Genetic Resources,” compiled by FAO, with contributions by the International Livestock Research Institute (ILRI) and other research groups, surveyed farm animals in 169 countries. Nearly 70 percent of the entire world’s remaining unique livestock breeds are found in developing countries, according to the report, which was presented to over 300 policy makers, scientists, breeders, and livestock keepers at the First International Technical Conference on Animal Genetic Resources, held in Interlaken, Switzerland, from 3-7 September 2007.

“Valuable breeds are disappearing at an alarming rate,” said Carlos Seré, Director General of ILRI. “In many cases we will not even know the true value of an existing breed until it’s already gone. This is why we need to act now to conserve what’s left by putting them in genebanks.”

In a keynote speech at the scientific forum on the opening day of the Interlaken conference, Seré called for the rapid establishment of genebanks in Africa as one of four practical steps to better characterize, use, and conserve the genetic basis of farm animals for the livestock production systems around the world.

“This is a major step in the right direction,” said Seré. “The international community is beginning to appreciate the seriousness of this loss of livestock genetic diversity. FAO is leading inter-governmental processes to better manage these resources. These negotiations will take time to bear fruit. Meanwhile, some activities can be started now to help save breeds that are most at risk.”

ILRI, whose mission is poverty reduction through livestock research for development, helps countries and regions save their specially adapted breeds for future food security, environmental sustainability, and human development.

Industrialized countries built their economies significantly through livestock production and there is no indication that developing countries will be any different. Worldwide today, one billion people are involved in animal farming and 70 percent of the rural poor depend on livestock as an important part of their livelihoods. “For the foreseeable future,” says Seré, “farm animals will continue to create means for hundreds of millions of people to escape absolute poverty.”

In recent years, many of the world’s smallholder farmers abandoned their traditional animals in favor of higher yielding stock imported from Europe and the US. For example, in northern Vietnam, local breeds comprised 72 percent of the sow population in 1994, and within eight years, this had dropped to just 26 percent. Of the country’s fourteen local pig breeds, five are now vulnerable, two are in critical state, and three are facing extinction.

Scientists predict that Uganda’s indigenous Ankole cattle—famous for their graceful and gigantic horns—could face extinction within 50 years because they are being rapidly supplanted by Holstein-Friesians, which produce much more milk. During a recent drought, some farmers that had kept their hardy Ankole were able to walk them long distances to water sources while those who had traded the Ankole for imported breeds lost their entire herds.

Seré notes that exotic animal breeds offer short-term benefits to their owners because they promise high volumes of meat, milk, or eggs, but he warned that they also pose a high risk because many of these breeds cannot cope with unpredictable fluctuations in the environment or disease outbreaks when introduced into more demanding environments in the developing world.

Cryo-banking Sperm and Eggs
Scientists and conservationists alike agree that we can’t save all livestock populations. But ILRI has helped lay the groundwork for prioritizing livestock conservation efforts in developing regions. Over the past six years, it has built a detailed database, called the Domestic Animal Genetic Resources Information System (DAGRIS), containing research-based information on the distribution, characteristics, and status of 669 breeds of cattle, sheep, goats, pigs and chickens indigenous to Africa and Asia.

Seré proposes acceleration of four practical steps to better manage farm animal genetic resources.

1.) A first strategy is to encourage farmers to keep genetic diversity “on the hoof,” which means maintaining a variety of indigenous breeds on farms. In his speech, Seré called for the use of market-incentives and good public policy that make it in the farmer’s self-interest to maintain diversity.
2.) Another way to encourage “keeping it on the hoof,” Seré said, is by allowing greater mobility of livestock breeds across national borders. When it comes to livestock, farmers have to “move it or lose it,” he said. Wider distribution of breeds and access to them makes it less likely that particular breeds and populations will be wiped out by fluctuations in the market, civil strife, natural disasters, or disease outbreaks.
3.) The third approach that Seré is championing is a longer term one with great future potential for resource-poor farmers. It goes by the name of “landscape genomics” and it combines advanced genomic and geographical mapping techniques to predict which breeds are best suited to which environments and circumstances around the world.
4.) But for landscape genomics—or any of the other approaches—to work, of course, scientists will need a wide variety of livestock genetic diversity to work with. For this reason, the fourth approach Seré is advocating is long-term insurance to “put some in the bank,” by establishing genebanks to store semen, eggs, and embryos of farm animals. 

“In the US, Europe, China, India, and South America, there are well-established genebanks actively preserving regional livestock diversity,” said Seré. “Sadly, Africa has been left wanting and that absence is sorely felt right now because this is one of the regions with the richest remaining diversity and is likely to be a hotspot of breed losses in this century.”

But setting up genebanks is a first important step towards a long-term insurance policy for livestock. Seré noted that genebanks by themselves are not the only answer to conservation, particularly if they end up becoming “stamp collections” that are never used.

“Individual countries are already conserving their unique animal genetic resources. The international community needs to step forward in support,” said Seré. “We support FAO’s call to action and the CGIAR stands ready to assist the international community in putting these words into action.” 

Related information: 

 What Makes Livestock Conservation So Different from Plant Conservation?

 

 

North-to-South Livestock Gene Flows Crowd out Local Breeds

 

 

Livestock breeds face ‘meltdown’ (BBC News)

 

Visit the online press room for further information and a series of short films and high-quality images of the third world’s unique farm animal breeds.

Protecting breeds for people

Animal Genetic Resources Are a Key Tool for Coping with Change in the Livestock Sector
 

Livestock are ubiquitous in the developing world. The ‘big five’—cattle, sheep, goats, poultry and pigs—as well as 9 other popular farm animals and 26 or so more specialized species are raised by more than half a billion people either on pastoral rangelands by nomadic herders, or on mixed farms by smallholders who raise crops along with livestock, or in peri-urban areas by people who raise a few animals in their backyards. All of these small-scale livestock enterprises matter to developing-country governments because livestock account for some 30 per cent of their agricultural gross domestic product, a figure expected to rise to 40 per cent by the year 2030.

The diverse livestock production systems, like most crop production systems, are changing in response to globalization, urbanization, environmental degradation, climate change and science and technology. But the fastest changes are occurring within the livestock systems. That’s because the developing world’s rising human populations and household incomes are causing demand for milk, meat, eggs and other livestock foods to soar. As one would expect, livestock markets are growing and changing to serve that growing demand. What’s less appreciated are the changes being wrought by many of the billion-plus small-scale livestock keepers and sellers of the developing world who are changing the way they do business to help meet that growing demand.

The rate of change within the livestock sector is so rapid that many local populations of livestock developed by small-scale farmers over millennia no longer have time to evolve adaptations to their new circumstances or the new needs of their owners. They are simply dying out, and at unprecedented and accelerating rates. The Food and Agriculture Organization of the United Nations estimates that on average a breed disappears every month and that 20 per cent of our uniquely adapted breeds of domestic animals are at risk of extinction.

Over the last 150 years, farmers in industrialized countries supplanted their indigenous farm animals with a few high-producing breeds of a few species (chickens, pigs, cattle) suited to highly intensified production systems. The result is that 70 per cent of the world’s known livestock genetic diversity now resides on small farms and in remote regions of developing countries. With all the challenges facing developing countries and their one billion people living on less than a dollar a day, the question arises as to what immediate practical and cost-effective steps could be taken to preserve the wealth of their livestock genetic diversity.

From a research viewpoint, it’s clear that if we’re going to manage the world’s remaining livestock genetic resources well, we’ll have to characterize the remaining populations to decide which are worth saving and why, we’ll have to find ways of broadening use of those populations deemed useful, and we’ll have to conserve the most important livestock genetic diversity for possible future use—by poor and rich farmers alike.

From a political viewpoint, we’ll need new and appropriate institutional and policy frameworks, as well as lots of policy discussions, to find ways to strengthen national and international programs that support the conservation of livestock biodiversity.

While the political issues are being discussed at length at national and inter-governmental fora, four practical things can be started immediately to ensure that the world’s remaining livestock biodiversity is conserved for future generations.

(1) Keep it on the hoof.
Give local farmers and communities incentives for maintaining local livestock breeds by, for example, improving access by poor farmers and herders to markets, perhaps including niche markets, where they can sell their traditional livestock products.
 
 (2) Move it or lose it.
Encourage safe movements of livestock populations within and between countries, regions and continents to widen global access, use and conservation of farm animal genetic resources.
 
(3) Match breeds with environments.
Optimize livestock production by expertly matching livestock genotypes with farmer ambitions, fast-changing environments and specific natural resources, production systems and socio-economic circumstances.

 (4) Put some in the bank.
Freeze semen, embryos and tissues of local breeds and store them indefinitely to protect indigenous livestock germplasm against extinction due to the on-going declines in livestock diversity and to serve as long-term insurance against catastrophic losses due to wars, droughts, famines and other future shocks.

How science can help
It’s clear that most of the developing world’s indigenous livestock populations will not be able to adapt in time to their rapidly changing environments and circumstances; we’ll need new strategies and interventions to improve our conservation and husbandry of these resources. It’s also clear that advances in several scientific fields promise to give rise to those innovations.

On-going breakthroughs in livestock reproductive technologies and functional genomics, for example, as well as in the information fields of bioinformatics and spatial analysis, are being systematically marshaled for the first time to address this challenge.. And policy and agricultural systems analysts are today articulating more judicious thinking about the production and funding of global public goods.

Finally, whereas societies and countries tend to differ in their short-term interests in livestock production, their long-term interests—such as learning how to cope with unforeseen changes in livestock production systems and their environments—tend to converge. This creates real opportunities for international scientific, environmental and aid agencies to work with developing countries in collective action to conserve the world’s remaining livestock genetic diversity.

Visit the online press room for further information and a series of short films and high-quality images of the third world’s unique farm animal breeds.

World’s most diverse forage collection comes under new treaty

On Monday 16 October 2006, world leaders in agricultural research signed agreements that guarantee long-term access to some of the world's most important collections of agricultural biodiversity.

In a ceremony that took place on World Food Day, 11 centres belonging to the Consultative Group on International Agricultural Research (CGIAR) placed all their ex-situ genebank collections under the International Treaty on Plant Genetic Resources for Food and Agriculture, now ratified by 105 countries.

A livestock forage genebank maintained by one of these CGIAR centres, the Africa-based International Livestock Research Institute (ILRI), conserves more than 18 thousand accessions of forages from over 1000 species. This is one of the most diverse collections of forage grasses, legumes and fodder tree species held in any genebank in the world and includes the world’s major collection of African grasses and tropical highland forages. In 1994, the germplasm collection held by ILRI was placed in trust under the auspices of the Food and Agriculture Organization of the United Nations (FAO) as part of their international network of ex situ collections. Now, 12 years later, this trust collection comes under the purview of the International Treaty on Plant Genetic Resources for Food and Agriculture following the 16 October 2006 landmark agreement between CGIAR Centers and the governing body of the treaty.

As part of its commitment to maintaining the collection as a global public good, ILRI claims no ownership nor seeks any intellectual property rights over the germplasm and related information. Rather, ILRI conserves its diverse forage collection to make it and relevant information freely available to scientists and the national agricultural research systems of developing and other countries.

ILRI maintains both an active and base genebank at its site in Addis Ababa.

Active and base genebanks

The active genebank is used for current research and distribution of seeds. Seeds are dried in a dehumidified drying room and packed in laminated aluminium foil bags for storage in the active genebank at 8°C. All seeds in the active collection are freely available in small quantities to bona-fide forage research workers and distributed both directly and through networks.

The base genebank is used for long-term security storage of original germplasm collections. The base genebank acts as a repository of materials that have been reasonably characterized and which may or may not have current interest or use by plant breeders. Collected materials are preserved until such time as there are enough resources available for them to be characterized and evaluated. Materials are stored in the base genebank at -20°C.

Forage diversity activities at the International Livestock Research Institute (ILRI)

Forage diversity as a global public good

ILRI and the other centres of the CGIAR hold more than 600,000 samples of crop-plant diversity. This includes wild relatives and more than half of the global total of farmer-created varieties, which are such a rich source of sought-after characteristics, for example to meet the challenge of climate change.
‘This really is an investment in food security,’ said Emile Frison, Director General of International Plant Genetic Resources Institute (IPGRI), which is responsible for the world’s banana collection. ‘The genetic diversity created in the past by farmers and researchers is the foundation of improvements to meet the challenges of the future.”’

’Unless we can meet those challenges,’ Frison added, ‘there will be no food security.’
Mahmoud Solh, Director General of the International Centre for Agricultural Research in the Dry Areas (ICARDA), said that the new agreements would ‘allow breeders and other researchers to tap the collections for solutions to the most pressing problems, such as drought, desertification, and food and nutritional security.’

Centre directors ‘warmly welcome’ the agreements and ‘commit themselves to supporting and implementing the Treaty’. A statement issued by the Alliance of CGIAR Centres sets out the centres’ common understanding of certain provisions of the agreements and indicates some actions that the centres will be taking to implement them.

Click here to view the statement of the CGIAR centres regarding implementation of the agreements between the centres and the governing body of the international treaty on plant genetic resources for food and agriculture.
 

Photo Essay: Kenya: Saving lands and livelihoods in Kitengela

State-of -the-art 'participatory mapping' helps stop the decline
of unique wildlife-rich pastoral lands.

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Pastoralists can take most of the credit for the survival of savannah wildlife herds in Kenya, since herding livestock is usually compatible with wildlife.

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But development today is threatening pastoral lands and ways of life, particularly near growing urban areas.
In Kitengela, south of Nairobi National Park, an unusual group of community, government, private and other organizations is pioneering an approach to help pastoralists and their lands, livestock and wildlife thrive. A foundation pays pastoral families not to fence, develop or sell their acreage. Strictly voluntary, the program now leases 8,500 acres from 117 families; another 118 community members, with more than 17,000 acres, are waiting to join. The program aims to lease and conserve 60,000 acres—enough to allow the seasonal migration of wildlife to and from Nairobi National Park.

OPEN ACCESS AN IMPERATIVE

If this program fails and more fences and buildings go up, the annual migration of wildebeest and other animals will be halted, provoking the crash of the Athi-Kaputiei ecosystem, which even in wildlife-rich East Africa stands out for its spectacular concentration of big mammals—remarkably right in the backyard of burgeoning Nairobi. The success of this lease program depends on spatial information about where fences have been put up that are blocking wildlife migrations and where the land remains unfenced, allowing herds of wildlife to move through a corridor of open land to their calving grounds beyond.

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STATE-OF-THE-ART MAPS

The maps needed for this project are being developed together by members of the Kitengela Ilparakuo Landowners Association (KILA) and scientists at the International Livestock Research Institute (ILRI). The participatory mapping combines expert skills with local people’s spatial knowledge. This joint work is stimulating broad-based decision-making, innovation and social change in Kitengela, where access to, and use of, culturally sensitive spatial data is now in the hands of community which is generating the information. 

A LEVEL PLAYING FIELD

The maps are helping members of KILA focus on specific areas where they can still make a difference by keeping land unfenced. Just as importantly, the maps are creating a level playing field for the local Maasai, who face an array of powerful groups wanting to develop their traditional lands, from government officials to land speculators, shopping mall operators, building contractors, stone quarry companies, politicians and ordinary people hungry for a bit of land. The community, through its county council, is in the process of developing land-use plans using some of the maps generated by the community. The land-use plans will legislate the use of land, protect important landscape such as swamps, riverine, water catchment areas, open wildlife corridors (through land lease schemes) and rehabilitate degraded areas such as quarries.

PROTECTING LANDS AND LIVELIHOODS

TS_060828_001_TN4This project has succeeded in saving lands as well as livelihoods. There is now more grazing land for livestock and wildlife, and once eroded and degraded land is recovering, since the grazing pressure has been reduced. The Maasai are working hard to conserve the Kitengela plains and are benefiting from the presence of their wild neighbours through ecotourism projects. On the socio-economic side, household incomes have risen, school enrollment is up and women have been empowered.

MAPS PROVIDE STRONG EVIDENCE

Whether the maps are in time to stop the Kitengela sprawl and the crash of a unique wildlife-rich ecosystem at Nairobi’s back door will soon be known. Fifteen years ago Kitengela had under a dozen inhabitants and three kiosks. Today, the town has swelled to 15,000 residents, and more are arriving by the day. As the numbers of people have increased, the numbers of migrating wildebeest have dropped from 30,000 to 8,000 in the last 20 years. Despite its successes, the novel leasing program must expand to reverse losses not only of wildlife, but also of livestock and the lands that support both. In addition, KILA and its partners will need the support of strong and judicious land-use planning. Scientific mapping is giving KILA the evidence they need to persuade land-use planners to help them protect their lands.

 

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