Demand-driven crop-ruminant intensification: trans-regional analysis to understand patterns of change using village level data from three continents

2004 ◽  
Vol 33 ◽  
pp. 155-165
Author(s):  
I. Baltenweck ◽  
S. Staal ◽  
M.N.M. Ibrahim

The growing demand for livestock products in the developing world is expected to drive livestock production in these countries. Delgado et al. (1999) predict that by 2020, developing countries will produce on average 38% more meat and 54% more milk per capita than in the early 1990s. The livestock revolution could then translate into opportunities for smallholder livestock producers. In the case of ruminants, much of this increase may occur in mixed farming systems, rather than through industrial production. In 1991–93, mixed systems produced 92% of the world's milk, and 54% of the world's meat (de Haan et al., 1997).

2007 ◽  
Vol 2007 ◽  
pp. 258-258
Author(s):  
J. M. Lenne

Mixed farming systems, in which crops and livestock are integrated on the same farm, are the backbone of small-scale agriculture in most developing countries (Lenné and Thomas, 2006). Crops and livestock contribute in a diversity of ways to enhancing the livelihoods of the poor through provision of food, income, draught power and employment. Livestock are a major source of high-quality protein, minerals, vitamins and micro-nutrients for developing country populations and livestock-derived food items contribute significantly to agricultural GDP. Animals also play a major role in improving food security in such countries, because cash income obtained from the sale of animals is regularly used to buy non-livestock food items and inputs to farming. It is predicted that the demand for livestock products in developing countries will increase substantially over the next 25 years (Delgado et al., 1999). Failure to meet the challenge of further growth in the livestock sector in these regions is likely to result in the growing urban demand for livestock products being met by subsidized imports. This will be to the detriment of small-scale producers and national and regional economic growth.


2004 ◽  
Vol 33 ◽  
pp. 191-207
Author(s):  
Ann Waters-Bayer ◽  
Wolfgang Bayer

Economic projections into the year 2020 (Delgado et al., 1999) indicate that the global demand for animal products will increase sharply, particularly in developing countries, and suggest that the bulk of the increased production to meet this demand will come from large-scale, industrial production. Many smallholders in developing countries depend at least partly on livestock as a source of livelihood; for pastoralists, livestock are by definition the main source of livelihood.


2008 ◽  
Vol 48 (7) ◽  
pp. 799 ◽  
Author(s):  
W. H. Winter ◽  
P. T. Doyle

Participating in research and development projects designed to increase the profitability and social outcomes from livestock production in smallholder crop–livestock systems provides valuable and rewarding learning experiences for scientists from Australia and partner countries. The majority of livestock in Asia are in these systems and any interventions to increase animal production need to consider the cropping activities of the farm, which vary considerably in relation to people, land and water resources, season length and the number and types of crops. Understanding the farming systems in enough depth is essential if interventions are to lead to improved outcomes for families. In this paper, we briefly consider the diversity and complexity of crop–livestock systems and the approach of the Australian Centre for International Agricultural Research in investing in research, development and extension for positive impacts from livestock production on the wellbeing of rural households in developing countries. An important approach to categorising livestock farmers to assess whether they are likely to be receptive to change is described. Consideration is given to the appropriateness of technologies, the need for sound science and the importance of capacity development in underpinning useful changes to systems. Because of the diversity and complexity of systems, systems-modelling is important in exploring options and interactions between components of the farming systems. Examples are given throughout the paper to emphasise learning from experience. The paper concludes with a list of the lessons learnt.


2004 ◽  
Vol 33 ◽  
pp. 51-65
Author(s):  
D.M. Mwangi ◽  
A. Omore

A rapid growth in per capita consumption of livestock products is occurring in developing countries (Delgado et al., 1999; FOASTAT 1983-2002). In the last two decades and until 2020, the increase in the consumption of meat and milk has been estimated to be much higher in developing countries compared to developed countries (Delgado et al. 1999). This increase in consumption and demand is fuelling an increase in production.


1981 ◽  
Vol 4 ◽  
pp. 461-467
Author(s):  
J. G. Disney ◽  
G. A. Norman ◽  
D. E. Silverside ◽  
D. Silvey

The demand for meat is expanding faster than production in many developing countries. Consequently, national and international agencies have devoted considerable effort to increasing livestock production. It is argued in this paper that this concentration on livestock production has perhaps encouraged somewhat less effort to be directed towards the marketing of livestock products. It is suggested that all too often the slaughtering, handling and marketing of livestock products has received too little attention, frequently to the detriment of the project as a whole.


2004 ◽  
Vol 33 ◽  
pp. 67-84
Author(s):  
M. Upton ◽  
J. Otte

The rapid growth of global demand for livestock products, which has occurred over the last quarter century, has been characterised as “the Livestock Revolution” (Delgado et al., 1999 and 2001). It is largely driven by increases in per capita incomes, population growth and urbanisation of the developing countries. (Further notes on the classification of countries, as “developed” or “developing” are given in Appendix 4.1). As Figure 4.1 shows, while consumption per capita of livestock products has fallen slightly in the developed countries over the last decade, substantial growth has occurred in the developing countries.


Author(s):  
E. R. Ørskov

One of the first problems which often faces experts from developed countries called upon to advise on aspects of animal production in developing countries is that he/she has no experience of the production systems encountered. The systems as well as products and resources are generally different. In Table 1 an attempt has been made to describe some categories of farming systems, their animal product listed in some order of priority of product and of the resources available for the animals.


Author(s):  
R. M. Myniv

Economic efficiency of livestock production is determined using a system of indicators, among which the main (generalizing) indicator of economic efficiency of livestock production is the achieved level of labor productivity. This indicator has a significant impact on other derivative indicators. A comprehensive assessment of the efficiency of farming systems should be carried out using a generalized indicator of the efficiency of the used resources of the livestock enterprise and an indicator of the share of growth of livestock products. The matrix method is the most acceptable for the analysis and an estimation of efficiency of work of the livestock enterprises. It allows: to rank livestock enterprises according to the achieved level of efficiency (static task); to study changes in the level of efficiency of livestock enterprises during the analyzed period (dynamic task); determine the dependence of farm performance on intensive and extensive factors. To assess the economic efficiency of feed production in animal husbandry use the indicator “marginal productivity of feed (feed protein) unit”. Evaluation of productive use of dairy cows is carried out using the coefficient of productivity intensity, which is calculated by the ratio of the average milk yield per day to the lifetime milk yield of cows. The complexity of livestock mechanization, individual technological lines or specific machines and equipment is determined by the calculated technical and economic indicators, comparing them with the indicators obtained in practice of the existing facility or basic analogue, or with the best examples of domestic or world practice. The application of the above indicators of analysis and evaluation of livestock efficiency will provide: assessment of the effectiveness of production systems by livestock enterprises in modern conditions of their development; objective characteristics of farming and the main results of activities in animal husbandry; identification of the most rational options for improving the efficiency of animal husbandry; comparative assessment of the efficiency of livestock enterprises operating in the same natural and economic conditions; measuring production efficiency in livestock and related industries; identification and evaluation of a set of measures for the development of animal husbandry aimed at improving the efficiency of its operation.


2003 ◽  
Vol 2003 ◽  
pp. 243-244
Author(s):  
D. Miano Mwangi ◽  
A. Omore

The rapid increase in the production and consumption of livestock and livestock products fuelled by population growth, urbanisation and increase in average per capita income has come to be known as the livestock revolution (Delgado et al 1999). A rapid growth in per capita consumption of livestock products in developing countries over the last decade (FOASTAT, 2002)


1998 ◽  
Vol 21 ◽  
pp. 27-42 ◽  
Author(s):  
C. L. Delgado ◽  
C. B. Courbois ◽  
M. W. Rosegrant

AbstractPeople in developed countries currently consume about three to four times as much meat and fish and five to six times as much milk products per capita as in developing Asia and Africa. Meat, milk and fish consumption per capita has barely grown in the developed countries as a whole over the past 20 years. Yet poor people everywhere clearly desire to eat more animal protein products as their incomes rise above the poverty level and as they become urbanized. Growth in per capita consumption and production has in fact occurred in regions such as developing Asia and most particularly China. Per capita consumption of animal proteins and use of cereals for animal food in Asia have both grown in the 3 to 5% per annum range over the past 20 years. By 2020, according to the International Food Policy Research Institute's IMPACT model projections, the share of developing countries in total world meat consumption will expand from 47% currently to 63%. Of the global total projected increase in meat consumption, 40% is from pork, 30% is from poultry and 24% is from beef. The latter helps mitigate the otherwise much larger decline in real beef prices expected through 2020. Projected annual growth in meat consumption in China of 3.2% per annum through 2020, up from 8.3% per annum from the early 1980s to the early 1990s, drives these results.A rapidly expanding supply of feedgrains will be essential to achieving the desired production increases for livestock products without undue upwards pressure on grain prices, especially in view of the rôle of monogastrics and the relative increase in industrial production in developing countries. IMPACT projections under various technical and economic assumptions suggest that there is enough production supply response in world systems to accomplish these production increases smoothly. Sensitivity analysis of the impact of restrictions on China's ability to produce more feedgrains illustrates that in a system of linked global markets for cereals and livestock products, such restrictions are not effective at lowering Chinese livestock consumption, which is driven by global trade in manufactures, although they do lower Chinese livestock production. The resulting imbalance raises world food costs by one-third in 2020 over anticipated levels, encourages increased livestock exports from Latin America, discourages livestock exports from the USA and reduces meat and cereals imports and consumption in the poorer countries of Africa and Asia.


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