Feeds


Discussion at Tigest Weycha's compound

Participants in this week’s ‘Workshop on Gender and Market-oriented Agriculture’, organized by ILRI in Ethiopia, visited two women farmers in Debre Zeit (Picture credit: ILRI/Habtamu)

AgriGender 2011 logo

On the third and last day of the ‘Workshop on Gender and Market-oriented Agriculture: From Research to Practice’ (AgriGender2011), organized by the International Livestock Research Institute (ILRI) this week (31 January–2 February 2011) in Ethiopia, two women farmers shared how they transformed themselves from farm labourers to agricultural businesswomen as they increased both their food production and marketing.

In a field visit to Debre Zeit, a town 50 kilometres southeast of Addis Ababa, the workshop participants visited Tigist Weycha, a mother of three and dairy producer. Weycha is a member of the local Ada’a Dairy Cooperative that processes about 5,000 litres of milk a day obtained from farmers in the area. She owns 12 cattle, including 7 improved-breed dairy cows. She has been in the milk business for six years, though her livestock husbandry experience goes back 11 years.

‘Each day I deliver between 50 and 60 litres of milk to the cooperative and I make about 5,000 Ethiopian birr (US$294) a month in profits. Dairying is very profitable here and income from this work is maintaining my household and educating our children,’ says Weycha. Her husband, after losing his job when a project that employed him in the town closed down, joined her in the farm work and they are now together enjoying the benefits of keeping dairy cows.

Weycha is a beneficiary of the Improving Productivity and Market Success of Ethiopian Farmers (IPMS) project, which began in 2005 with funding from the Canadian International Development Agency. IPMS is implemented by ILRI and other partners on behalf of the Ethiopian Government.

A goal of the IPMS project was to help improve livelihoods of the poor in Ethiopia by linking rural smallholder producers to markets. The project connected Weycha with the Ada’a Cooperative, which became a reliable buyer of her milk. Project staff also gave her training in managing her dairy farm business and animals and the benefits she has accrued are clear to see six years on.

‘The cooperative pays us after every two weeks. And this money is deposited into a personal bank account which I manage for the benefit of my family,’ Weycha says.

Weycha is one of the successful dairy farmers in Debre Zeit. With support from her family and her husband—who is trained in animal health management and uses this expertise on the farm—she has excelled as a model dairy farmer. And this despite the fact that dairy farmers in this area have to pay dearly for veterinary services and drugs, when these are available, and for animal feeds, the price of which fluctuates. Weycha feeds her cows mostly on maize and teff residues and alfalfa. She supplements this with oil cake and molasses that she buys every two weeks from traders in Debre Zeit town.

Participants also visited another beneficiary of the IPMS project, Elfnesh Bermeji, a beekeeper who makes 50 birr for every kilogramme of honey she sells from her 20 modern and traditional hives. She harvests the honey two times in a year and the income she has earned from selling the honey has enabled Bermeji to build a home and to educate her children, who are now supporting themselves after graduating from university.

These two Ethiopian women are examples of the many benefits of targeting women for capacity building. Their successes are bettering not only their own lives, but also those of members of their families and communities. These two women have, with the help of their spouses and families, transformed themselves into entrepreneurs in an area where few other women have managed to break with rural traditions. The success stories of Weycha and Bermeji should now give other women, and men, confidence to do the same.

—-

Read more about the ‘Gender and Market-oriented Agriculture: From Research to Action’ in the ILRI gender and agriculture blog.

Read more on Improving Productivity and Market Success of Ethiopian Farmers (IPMS) project

In December 2010, a special issue of Animal Nutrition and Feed Technology focuses on the fodder quality of crop residues and how this can be improved through the close collaboration of crop and livestock scientists in multi-dimensional crop improvement programmes.

Over the next two decades, rapid urbanization and rising incomes in the developing world will continue to feed an on-going livestock revolution. In India, this boom in the production of animal products will be driven by a demand for milk that is projected to increase by more than 80 million tons in 15 years.

Smallholder livestock producers will have new opportunities to raise their incomes on the back of this increasing demand, particularly the vulnerable communities occupying dry, marginal and remote lands that rely most heavily on their animals.

Feed scarcity and resulting high feed costs are one of the major constraints and threats to higher benefits from livestock otherwise offered by the rising demand for livestock products. New strategies for improving feed resources are urgently needed, but they need to take into account the increasing scarcity of the natural resource base, particularly of arable land and increasingly water.

Crop residues are the single most important feed resource in India, and the national feed resource scenarios predict that their importance for livestock feeding will further increase. In several parts of India, weight for weight, crop residue prices are now approaching, and sometimes even exceeding, half the prices of their grains.

Crop residues do not require specific land and water allocations, since these are required in any case for the production of grains. Unfortunately, the fodder quality of crop residues is often low, and in the past decades, efforts have been invested in upgrading the feeding value of crop residues (implicitly from cereals since leguminous residues can have excellent fodder quality) through chemical, physical and biological treatments.

However, these approaches have seen little adoption by farming communities. A different paradigm has been developed in this this special issue of Animal Nutrition and Feed Technology, namely, the improvement of crop residues at source through close collaboration of crop and livestock scientists in multidimensional crop improvement programs. Until recently, fodder traits of crop residues were largely ignored in crop improvement, although farmers were traditionally aware of differences in the fodder quality of crop residues even within the same species. Farmers’ perception of crop residue fodder traits could effect the adoption of new cultivars, resulting sometimes in the rejection of new cultivars that have been improved only for grain yields.

In response, the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) and the International Livestock Research Institute (ILRI) together with their partners from the Indian Council of Agricultural Research (ICAR) initiated several multidisciplinary research projects to create crop cultivars that better match the need of farmers, particularly in mixed crop-livestock systems which are dominant in many parts of the developing world.

The fundamental issues explored in these collaborative projects, and expounded in this special issue, are: (1) availability of livestock nutritionally-significant cultivar-dependent variation in crop residue fodder quantity and quality; (2) relationships between crop residue fodder traits and primary food traits and possible trade-offs between the traits; (3) technologies for quick and inexpensive phenotyping of large set of samples for simple fodder quality that are well correlated with actual livestock productivity; (4) breeding techniques for further genetic enhancement towards food-feed traits; and (5) upgrading crop residue fodder in value chains through densification and fortification.

These valuable contributions serve as eye-openers to researchers and present a strong case for further strengthening such collaborations between national and international crop and livestock institutions. More importantly, they pave the way for expanding work on the promising approach of producing dual-purpose varieties of key crops for mixed crop-livestock systems given that these systems will be crucial in feeding the next 3 billion people.

View the special issue

CGIAR Annual Report 2009 cover

Cover of the CGIAR Annual Report 2009 (photo credit: CGIAR/Palmer).

The annual report for 2009 for the Consultative Group on International Agricultural Research (CGIAR) is out.

The International Livestock Research Institute contributed the following article about development of crops that feed people and animals both.

'New varieties of sorghum are bred to better meet the needs of India’s 208 million livestock farmers for animal feed, as well as to feed its growing human population.

'Throughout the tropics, a lack of feed keeps farm animals underweight and underproductive, thereby preventing some 600 million poor farmers and herders from meeting fast-rising global demand for milk and meat. But thanks to a partnership between India ́s National Research Centre for Sorghum (NRCS), the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) and the International Livestock Research Institute (ILRI), new varieties of sorghum are being developed that can provide both nutritious food for humans and high-quality feed for livestock.

'The single most important source of animal feed on many small farms in Asia and Africa is not grass but rather the stalks, leaves and other residues of crop plants after harvesting. In India, for example, 44% of the feed that annually sustains all the country ́s cattle, buffalo, goats, sheep and camels is made up of such crop wastes. The rest comes from planted forages and a shrinking area of pastures and other common lands. Expensive feed concentrates—the mainstay of livestock production in rich countries—are used only occasionally.

'Although crop residues (also known as stover) have become the main source of feed for farm animals in developing countries, crop breeders have continued to focus their efforts solely on increasing grain yields and not on improving the yield and quality of stover. The NRCS-ICRISAT-ILRI partnership seeks to redress this oversight by focusing on sorghum, an important staple crop in India that is grown on nearly 10 million hectares throughout the country.

'Small-scale entrepreneurs in India are developing new livestock feeds using new dual-purpose, food-plus-feed sorghum varieties.

'The researchers incorporated fodder quality traits in India ́s sorghum crop breeding trials and, in so doing, led breeders to identify sorghum varieties that give high yields of both grain and stover, as well as improved stover quality. The result is dual-purpose, food-plus-feed sorghum varieties that are now helping India’s 208 million livestock farmers close the livestock feed gap and feed India’s growing human population.

'The initiative has proved groundbreaking in demonstrating that traits for stover fodder quality and quantity can be incorporated into existing breeding programs to improve grain yields and has led the way for similar work on other major crops such as millet, groundnut, rice, maize and cowpea. New initiatives are also beginning for wheat and various leguminous crops.'

Read the whole CGIAR Annual Report 2009: From research to results, November 2010.

Pulverizer

The pulverizer feed mill that is taking off on small dairy farms in East Africa (photo credit: East African Dairy Development Project).

Pulverizer  machines can help small-scale farmers in East Africa transport, store and stall-feed their ruminant animals with the bulky dry forages they may have at hand on and near their farms. Such dry forages include grass and legume hays; fibrous crop residues such as stovers of maize, sorghum, and millet; cereal straws of rice, teff, wheat, barley and oats; and haulms of beans. Pulverizers shred this forage into lengths of a few millimetres.

What’s different?
Although pulverizers have been around for a long time, they have been little used on small farms. But now this technology is being promoted by an East African Dairy Development Project to improve the use of the crop residues and roughages available to smallholder farmers in Kenya, Uganda and Rwanda. Project staff are helping service providers to purchase pulverizers through loan schemes, are setting up business development services as part of local dairy ‘hubs’, and are providing technical back-up support. The rapidly increasing numbers of providers of this technology are generating competition and sparking innovations, such as mobile service providers.

What do pulverizers do?
Physically treating roughages is a main way to enhance the availability of their nutrients for cows and other ruminants. Pulverizing roughages on farms reduces their wastage by 30–60 per cent, while easing the fodder packaging, storing, transporting and feeding by farmers enhances the feed intake of farm animals by 30–60 per cent..

When did these services start?
Pulverizer services started in 2009 with about 20 operators in Kabiyet and Kipkaren districts in Kenya’s North Rift Valley; these have mushroomed in the last year to more than 200 operators in Siongiroi and Kipkelion in South Rift Valley as well Kieni and Ol-Kalou districts. The technology has also been replicated through dairy farmers business associations in Kiboga and Masaka districts of Uganda and Rwamagana, Gatsibo and Nyagatare districts of Rwanda. Local producers have now ventured into fabricating the machines, making them easily and cheaply available to the farmers.

Use of the pulverizer technology can increase profitable beef and milk production through more efficient use of forages, a benefit particularly valued by farmers during dry seasons, when forages are scarce. Among the most common users of the technology are service providers who transport and trade dry forages and others that pulverize forages on farms.

What we've learned

1.       The hubs being created in this East African Dairy Project are providing the stimulus for new livestock feed markets as well as farmer access to credit (the credit is provided against their milk sales), which farmers often invest in improved feed production.

2.       The clustering of dairy input services in local dairy hubs is enhancing community access to feed information, business skills and other resources useful to agribusiness entrepreneurs.

3.       Smallholders are very interested in making better use of their crop residues for dry-season stall feeding.

4.       When demonstrating use of the pulverizers to farmers, with the aim of increasing their adoption of this technology, service providers should stress ways the technology could directly benefit the farmers rather than how the technology works.

5.      Dairy farmer business and related associations should be supported and used to scale up use of this technology by farmers and farmer groups.

 

About the Project
The East African Dairy Development Project envisions transforming the lives of 179,000 families by doubling household dairy income in 10 years through integrated interventions in dairy production, market access and knowledge application. The Project is working to improve on-farm productivity by increasing milk production, improving milk quality and providing access to production inputs through business delivery services. The Project aims to improve market access by developing local hubs of business delivery services in association with chilling plants that facilitate market access. The Project is also linking producers to formal markets through processors and increasing the benefits milk producers obtain from traditional markets. The Project is funded by the Bill and Melinda Gates Foundation.

The article was developed by Beatrice Ouma, regional senior information officer in the East African Dairy Development Project, and Ben Lukuyu, a scientist working at the International Livestock Research Institute, one of the partners collaborating in this Project.

For more information, contact the Project at eadd@eadairy.org or read about recent progress of the Project on the Bill and Melinda Gates Foundation website.


Jean  HansonJean Hanson leads the Forage Diversity team at the Ethiopia campus of the International Livestock Research Institute (ILRI). Having worked in the fields of genebank management and conservation of forage genetic diversity for over 35 years, later this year she will ‘go on to the second phase’ of her career, as she puts it, when she retires from ILRI. ‘I want to concentrate on sharing the knowledge I gained throughout my career,’ she says. ‘I plan to work on building capacity and training students in my fields and working and learning from them, too.’ Early on, Hanson knew she was not going to follow the traditional path of women of her day. She did not feel like becoming a teacher or a nurse. ‘I was brought up in an age where women were not scientists. But raised on a farm, I was always interested in science,’ she says. ‘When I was 16, I thought women should have the same right to choose their career as men did, and I knew I was interested in science, so I went to university and first studied agriculture.’

After obtaining a PhD in seed physiology, she started a post-doctoral assignment with the International Maize and Wheat Improvement Center, working with curating the maize genebank, in Mexico. She then worked in Indonesia for 5 years with the British Cooperation (DFiD) as a seed physiologist, establishing a legume genebank with a national research institute. Later, Hanson worked in Rome with the Food and Agriculture Organization of the United Nations, among other organizations. Then, in 1986, she applied for and got a short-term contract with ILRI’s predecessor, the International Livestock Centre for Africa (ILCA), based in Addis Ababa, Ethiopia, and stayed for…25 years.

Azage Tegegne, an animal scientist colleague of hers, remembers her from those days. ‘In 1986, I was working around Zwai, where Jean had substantial research activities. I was looking at feed, she was working on forages. We then started a very good and long-lasting working relationship,’ he says. ‘She also became a very good friend of mine. I have never known a more hard-working, dedicated person. She also goes the extra mile to make people feel good,’ he adds. ‘And she is very loyal and committed to her work and this institute. If plants need watering at 5 a.m., she is there, always taking responsibility.’

Jean Hanson has been leading ILRI’s project on forage genetic resources since 1989. She was Interim Director of Institutional Planning from 1996 to 2001 before taking up the position of Senior Advisor on matters relating to strategies, technologies and operational procedures for conserving and managing plant genetic resources ex situ on a joint appointment with IPGRI (now known as Bioversity International) and ILRI from 2002–2004. ‘In the field of genetic resources, she is an expert,’ says Alexandra Jorge, Coordinator of the Global Public Goods Project for Bioversity International, who has been working with Jean for the past 7 years. ‘She is well known and respected at the international level and scientists really take her comments into consideration.’

‘I am a hard core genetic resources scientist,’ confirms Jean Hanson. ‘When I started, it was pure science, all about technical things. These days, since the Convention on Biological Diversity in 1994, issues such as access and benefit sharing or the ownership of genetic resources make it more political.’

If Jean is a renowned scientist whose work is recognized and appreciated by the international scientific community, she is also very well liked and colleagues unanimously comment on it. ‘If I have issues I want to discuss, I go to her for advice. She is always there, never says no and finds a way to have time to give,’ says Jorge.

‘Even in times of difficulties, she seems to handle everything so calmly,’ adds Janice Proud, coordinator of a Napier grass project of the Association for Strengthening Agricultural Research in Eastern and Central Africa (ASARECA). ‘She sets high standards and I learned how to run a project thanks to her experience. I trust her judgment because she is good at dealing with the details as well as being able to see the big picture.’

Yeshi W/Mariam, research assistant and seed technologist, who has worked with Hanson for 18 years, confides, ‘We will miss her a lot. We are like a family here in the forage diversity team.’ According to Yeshi, ‘Gender is an important issue for Jean. Thanks to her, I am now taking a day leave per week to go back to university and study to obtain my BSc in biology. She is very encouraging because improving your career matters to her. But it is the freedom she gives me in my work that I appreciate most.’

Gender is indeed an important issue to Jean and she is involved in mentoring through the African Women in Agricultural Research and Development program to enhance the careers of women crop scientists in East Africa. ‘I believe women in science are capable and important. That’s why I agreed to be a mentor,’ she says. ‘You learn skills about how to be a better mentor. We learn from one another and provide support to the generation that will replace us.’  

Coming from that next generation is Esther Gacheru, research fellow and infosystems specialist. ‘She is inspiring people,’ says Gacheru. ‘Working with Jean has been a great start for me; she lets me do what I want to do and at the same time oversees my work to help me learn and progress. I don’t know if I will have that “space” or that type of work relationship later in life.’

About life and work, we will let the last words be from Jean Hanson herself. ‘If you are determined, anything is possible. Don’t give up when the going gets tough. Persevere. And you will end up where you want to be.’

As is said here in Ethiopia, where Jean has spent most of her life as a scientist, Yiqnash (‘May everything turn out to be good for you’), Jean Hanson!

Mario Herrero, systems analyst at the Africa-based International Livestock Research Institute (ILRI), is co-author of a paper to be published today in the prestigious US Proceedings of the National Academy of Sciences (PNAS). The paper quantifies the role of livestock as a nutrient source globally for the first time. The paper, ‘A high-resolution assessment on global nitrogen flows in cropland’, reports results of an investigation of the sources of nitrogen for crop production globally. ‘We quantified the role of manure in different continents and in different agricultural production systems,’ says Herrero. ‘We found large differences in manure levels. In large parts of Africa and South Asia, which have the greatest numbers of poor people in the world, most of whom make a living by farming, manure can represent 35-40% of the nitrogen needed for growing crops, making it a major source of needed nutrients in these regions,’ Herrero. Elsewhere, he explained, where farmers have ready access to chemical fertilizers, manure plays a less important role in crop production. The paper shows that livestock manure is as important a nutrient contributor as (and in some regions, is even more important than) the stalks, leaves and other wastes of crops after harvesting, which are often fed back into soils to help enrich them for the next cropping season. But those crop residues are becoming increasingly scarce due to their competitive uses. And one of the biggest competitive uses is as animal feed. Many farmers are loath to put their crop residues back into their soils because they need them to feed their animals. In South Asia and sub-Saharan Africa, crop wastes represent between 40 and 60% of all the feed for the cattle, sheep, goats and other ruminant animals raised. ‘Crop residues are a hugely important resource,’ says Herrero. ‘And needing to keep these resources to feed their animals stops many farmers from adopting conservation agriculture, which requires putting the residues back into the ground.’ Of course, the animals consuming crop residues deposit their manure on the ground. This analysis by Hererro and colleagues suggests that, globally speaking, livestock manure and crop residues make similar levels of contributions to nutrient levels. ‘In developing countries,’ he says, ‘the best solution is often for a farmer to feed her crop residues to her ruminant animals and then fertilize her soils with the manure they produce.’ That’s because these farm animals provide poor farmers with many other essentials as well, including highly nourishing animal-source foods for the household, much-needed year-round cash incomes, and draught power, transport and other inputs for successful cropping. ‘The bad news,’ says Herrero, ‘is that the amount of manure we have in Africa and South Asia is not nearly enough to increase levels of crop production. And to feed the world’s growing human populations, we’re going to have to increase the amount of nutrients we’re providing the soils in these regions.’

While livestock production levels in developed countries are holding steady, livestock production systems in developing countries, particularly in the emerging economies, are rapidly changing to meet a rapidly growing demand for livestock foods due to those countries’ growing populations, cities and incomes. Some of these fast-evolving livestock production systems are using ever-larger quantities of water and other natural resources and emitting ever-larger amounts of greenhouse gases, which are causing global warming. Many people are questioning whether the increasing demand for meat and milk in developing countries can be met within equitably negotiated and sustainable greenhouse gas emission targets.

The (surprising) answer is ‘yes’. Research tells us that emissions from livestock systems can be reduced significantly through technologies and policies, along with incentives for their implementation.

Livestock and greenhouse gas emissions

Livestock contribute up to 18% of the global greenhouse gas emissions that are ‘anthropogenic’, or generated by human activity. The main greenhouse gases from livestock systems include methane produced by the belching of animals (25 per cent), carbon dioxide (CO2) produced by uses of land that encourage the decomposition of organic substances (32 per cent), and nitrous oxide (N2O), commonly known as ‘laughing gas’, produced by spreading manure and slurry over lands (31 per cent).

As one would expect with such great differences in livestock production systems in different regions of the world, different systems in different regions emit very different amounts and types of greenhouse gases. Overall, most emissions to date have come from industrialized countries practicing factory farming, the least from developing-country family farms. Moreover, two of the most significant contributors to the greenhouse gases produced by livestock systems in the developing world are the rapidly expanding industrial livestock operations in Asia and deforestation in Latin America to make room for livestock grazing and feed crop production.

That said, however, it is also true that the emissions per animal in poor countries tend to be much higher than those per animal in rich countries, for the reason that most livestock in poor countries are maintained on poor diets that reduce the efficiency by which the animals convert their feed to milk and meat. And the increasing human populations, urbanization and demand for livestock foods in developing countries means that future increases in livestock greenhouse gases will come from the South. Livestock researchers at ILRI and elsewhere are helping people to manage trade offs among natural resource use, livestock emissions and livestock productivity. Seven ways to reduce greenhouse gases emitted by livestock Here are seven practical ideas for reducing the greenhouse gases emitted by livestock.

1 Reduce consumption of, and demand for, livestock foods in developed countries

Whereas under-consumption of livestock foods is a main problem in developing countries, over-consumption of livestock foods—including fatty red meat, eggs and full-fat milk and dairy products—damages the health of many people living in affluent societies. The demand for cheap livestock foods in rich countries in many cases is met by imports of livestock products or feed grains from the developing world, the transport and supplies of both of which can lead to environmentally damaging land-use practices and over-use of water and other natural resources, which in turn increase the levels of greenhouse gas emissions in those developing countries. Reducing the relatively high levels of consumption of livestock foods in the developed world would thus not only help improve the health of many people in rich countries but also reduce environmentally damaging livestock production practices in both rich and poor countries, leading to significant reductions in the emissions of carbon dioxide and methane gases.

This point raises another: to ensure that any negotiated emissions targets that may be established are equitable as well as feasible and useful, we shall also have to institute programs to track and account for the greenhouse gases ‘embedded’ in the many livestock and feed products traded worldwide. Such a system would give buyers of livestock products some understanding of the ‘greenness’ of the products they are buying. Common sense can no longer be our guide. Such are the complexities of modern food chains that beef raised on the pampas of Argentina and shipped to the North American Midwest might, for example, have generated lower levels of greenhouse gases than corn-fed beef raised, slaughtered and packaged right there in the Midwest.

2 Improve the diets of ruminants in developing countries

Providing cattle, water buffaloes, sheep, goats and other ruminant animals in developing countries with better quality diets increases their feed-conversion efficiencies and thus reduces the amount of methane generated in the production of a unit of meat or milk. Many small-scale farmers can, for example, improve the diets of their ruminant animals by better managing their grazing lands: they can rotate the pastures they use, plant improved species of pasture grasses, make strategic applications of animal manure, and develop ‘fodder banks’ of planted legumes and other forages. They can make use of more strategic combinations of available feed resources. Many crop-livestock farmers can supplement the poor grass diets of their animals with the residues of their grain crops after harvesting. (Although many cereal residues are of relatively poor nutritional quality, research by ILRI and the International Crops Research Institute for the Semi-Arid Tropics shows there is considerable potential for improving the nutritional quality of stover.) And some can give their ruminants feed additives that manipulate the microorganisms living in the rumen to quicken microbial fermentation. What’s needed are practical methods to monitor the effectiveness of mitigating greenhouse gases using these practices as well as policy environments to make implementing them cost-effective.

3 Help farmers in developing countries obtain and maintain higher-yielding breeds

Where resources allow and breeding services exist, replacing low-producing local animals of the developing world with fewer and better fed animals of higher yielding breeds would reduce total emissions while maintaining or increasing livestock yields. Such shifts include keeping more productive types of a given breed, such as by crossing local cows with genetically improved dairy cow breeds to produce cross-bred cows that possess traits both for both hardiness and higher milk yields.

4 Better match livestock species to environments in all countries

Switching species to find those better suited to particular environments and resources could raise animal productivity levels. In some circumstances, exchanging ruminant animals for pigs, chickens and other monogastrics (which possess single- rather than four-chambered stomachs) could reduce total methane emissions, although high amounts of grain used to feed the monogastrics can offset the methane saved. For this reason, alternative feeds and feeding practices for monogastrics urgently need the attention of the research and development communities.

5 Impose regulatory frameworks for managing manure in all countries

Regulatory frameworks could reduce nitrous oxide emissions from manures, particularly by enforcing better management of excreta in the larger livestock operations in developing countries and applications of slurry and manure in the developed countries. Furthermore, developing ways to monitor and verify reductions would open the door to mitigation payment schemes.

6 Apply land-use policies that forestall cultivation of new lands

Some carbon lost from agricultural ecosystems in the past can be recovered. Any management practice that increases the photosynthetic input of carbon and/or slows the return of stored carbon to carbon dioxide via respiration, fire or erosion will increase carbon reserves, thereby sequestering carbon. We can thus reduce carbon dioxide emissions by applying land-use policies that forestall the cultivation of new lands now under forest, grassland or non-agricultural vegetation.

And rangeland and silvo-pastoral livestock systems would store much greater amounts of soil carbon than they do now if we put in place land use and livestock policies and practices suited to local conditions. Such interventions could serve not only to sequester more carbon but also to provide smallholders farmers and herders with payments for the services their local ecosystems provide the wider community.

7 Provide incentives to adopt mitigation strategies, particularly for poor communities

Finally, successful implementation of livestock mitigation strategies, particularly in poor countries with scarce resources, inadequate rural and peri-urban infrastructure, and inappropriate agricultural policies, will demand a series of smart and equitable incentive systems that encourage people to adopt mitigation strategies and practices. Success in these countries will also depend on developing new kinds of links among institutions that have not formerly worked together, on reforming livestock and agricultural policies, on inventing techniques for monitoring carbon stocks, and on developing appropriate and easy-to-use protocols for verifying greenhouse gas emissions. But the lesson ILRI researchers have learned from their pastoral research may prove to be most relevant here: mitigation activities have the greatest chance of success in poor and hungry communities when they build on traditional institutions and knowledge while building up food security.

This is Chapter three of the ILRI Corporate report 2008–09: Download the full report

In this short video, ILRI’s Alan Duncan introduces the IFAD-funded ‘Fodder Adoption Project’ based at ILRI.

He outlines the approach followed in the project – trying to strike a balance between the technological and institutional angles.

The project helps groups of stakeholders – farmers, private sector, dairy coops, the government – get together in ‘innovation platforms’ where they can develop joint actions that address livestock fodder problems.

Initially the project went with a traditional approach, focusing on technologies. As the process evolved, other issues came in, more actors joined the platforms, and the technologies – growing improved fodder – acted more as a catalyst for people to come together to discuss a wide range of other issues (dairying, health, etc).

Fodder proved to be a useful ‘engine’ for the group to identify a much wider range of issues to address – along the whole value chain.

He explains that this type of work facilitating stakeholder platforms is “not trivial.” But it is essential: “Technology is only one small part of the equation and really a lot of it is about human interactions and how organizations behave.”

He concludes: “We have lots of promising technologies, but in themselves they are not enough to bring about widespread change in livestock systems.”

See his presentation with Ranjitha Puskur

More information on this project

View the Video:

Please enable Javascript and Flash to view this Blip.tv video.

In this short video, Ranjitha Puskur from ILRI shares some lessons emerging from the DFID-funded Fodder Innovation Project.

The project looks at fodder scarcity and how to address it, but from the perspectives of capacities, policies and institutions.

This current second phase of the project, she says, emerged from the realisation that the availability of technologies is not really the limiting factor, policy and institutional factors are the major bottlenecks.

She briefly introduces the innovation systems approach that underpins the project: Essentially, the aim is to form and facilitate a network of different actors in a chain or continuum of knowledge production and its use, mobilizing all their various resources and capacities to address a problem.

What outcomes and changes has she seen?

At the farm level, farmers are changing their livestock feeding and management practices; there is an emerging demand for technologies, inputs and services that, ironically, were earlier promoted without success.

“Farmers are seeing the need for knowledge and can articulate demands to service providers.”

She emphasizes that “getting a network of actors isn’t an easy process, it takes time”. Different organizations with different interests and motives have to be brought around the table to contribute and benefit.

“It needs great facilitation skills and negotiating skills which are not very often core competences of researchers like us.”

Beyond facilitation of this network formation, “we also see that linkages don’t happen automatically” … we need a facilitating or broker organisation to create them.

In her project, they work through key partner organisations: “This works well, but they needed much support and mentoring from us.”

She concludes with two final observations: Policies are a very critical factor and it is important to engage policy makers from the outset, ensuring that we know what they really want, and that the evidence base is solid.

Traditional project management approaches don’t seem to work in such projects: We need nimble financial management, and very responsive project management.

“Very traditional logframes and M&E systems seem very inadequate.”

See her presentation with Alan Duncan

More information on this project

View the video:

Please enable Javascript and Flash to view this Blip.tv video.

Last week, the CGIAR System-wide Livestock Programme (SLP) held its annual planning meeting in Addis Ababa.

In this short video, John McDermott, ILRI Deputy Director General for Research introduces the SLP. He argues that its focus on the intensification of crop-livestock systems is critical: More than a billion people in developing countries are involved in these smallholder systems.

The SLP brings together 12 CGIAR centers, and, he mentions, “one of the key things we’ve been struggling with is how to improve the performance of these [crop-livestock] systems” – so people can get more income and more benefits from them; also so the systems can be more sustainable.

Reflecting on the just-completed SLP meeting in Addis Ababa, he highlights one of the major issues under discussion: how the crop biomass from these systems can be used more effectively – as food, as animal feed, and as fuel. Furthermore, how the crop residues can be fed back into the soil.

“Now we are turning our attention more to this tradeoff between whether you actually feed these residues to animals or whether some of them should stay with the soil.”

Watch the video:

Please enable Javascript and Flash to view this Blip.tv video.

Next Page »