Free Standard AU & NZ Shipping For All Book Orders Over $80!
Register      Login
The Rangeland Journal The Rangeland Journal Society
Journal of the Australian Rangeland Society
RESEARCH ARTICLE

Livestock water productivity: implications for sub-Saharan Africa

D. Peden A B , G. Taddesse A and A. Haileslassie A
+ Author Affiliations
- Author Affiliations

A International Livestock Research Institute, PO Box 5689, Addis Ababa, Ethiopia.

B Corresponding author. Email: d.peden@cgiar.org

The Rangeland Journal 31(2) 187-193 https://doi.org/10.1071/RJ09002
Submitted: 14 January 2009  Accepted: 8 April 2009   Published: 19 June 2009

Abstract

Water is essential for agriculture including livestock. Given increasing global concern that access to agricultural water will constrain food production and that livestock production uses and degrades too much water, there is compelling need for better understanding of the nature of livestock–water interactions. Inappropriate animal management along with poor cropping practices often contributes to widespread and severe depletion, degradation and contamination of water. In developed countries, diverse environmental organisations increasingly voice concerns that animal production is a major cause of land and water degradation. Thus, they call for reduced animal production. Such views generally fail to consider their context, applicability and implications for developing countries.

Two global research programs, the CGIAR ‘Comprehensive Assessment of Water Management and Agriculture’ and ‘Challenge Program on Water and Food’ have undertaken studies of the development, management and conservation of agricultural water in developing countries. Drawing on these programs, this paper describes a framework to systematically identify key livestock–water interactions and suggests strategies for improving livestock and water management especially in the mixed crop–livestock production systems of sub-Saharan Africa. In contrast to developed country experience, this research suggests that currently livestock water productivity compares favourably with crop water productivity in Africa. Yet, great opportunities remain to further reduce domestic animals’ use of water in the continent. Integrating livestock and water planning, development and management has the potential to help reduce poverty, increase food production and reduce pressure on the environment including scarce water resources. Four strategies involving technology, policy and institutional interventions can help achieve this. They are choosing feeds that require relatively little water, conserving water resources through better animal and land management, applying well known tools from the animal sciences to increase animal production, and strategic temporal and spatial provisioning of drinking water. Achieving integrated livestock–water development will require new ways of thinking about, and managing, water by water- and animal-science professionals.

Additional keywords: animal production, feed, land degradation, crop–livestock systems, water accounting, water conservation, sustainability.


Acknowledgements

This paper presents findings from PN37, ‘Nile Basin Livestock Water Productivity’, a project of the CGIAR Challenge Program on Water and Food in collaboration with the CGIAR Comprehensive Assessment of Water Management in Agriculture. We acknowledge with gratitude the scientific advice and encouragement provided by David Molden, Deborah Bossio and Shirley Tarawali.


References


Amede T., Geheb K., Douthwaite B. (2009) Enabling the uptake of livestock–water productivity interventions in the crop–livestock systems of sub-Saharan Africa. The Rangeland Journal 31, 223–230. (verified 20 April 2009).

CA (2008). Comprehensive Assessment of Water Management in Agriculture. Available at: www.iwmi.org\assessment (verified 20 April 2009).

Cook S. E., Andersson M. S., Fisher M. J. (2009) Assessing the importance of livestock water use in basins. The Rangeland Journal 31, 195–205. (verified 20 April 2009).

Descheemaeker K., Raes D., Nyssen J., Poessen M., Haile M., Deckers J. (2009) Changes in water flows and water productivity upon vegetation regeneration on degraded hillslopes in northern Ethiopia: a water balance modelling exercise. The Rangeland Journal 31, 237–249. open url image1

Faki H. , El-Dukheri I. , Mekki M. , and Peden D. (2008). Opportunities for increasing livestock water productivity in Sudan. In: ‘Fighting poverty through sustainable water use. 2nd International Forum on Water and Food. Vol. II’. (Eds E. Humphreys, R. S. Bayot, M. van Brakel, F. Gichuki, M. Svedsen, P. Wester, A. Huber-Lee, S. Cook, B. Douthwaite, C. T. Hoanh, N. Johnson, S. Nguyen-Khoa, A. Vidal, I. MacIntyre and R. MacIntyre.) pp. 57–60. (Challenge Program on Water and Food: Colombo.)

Falkenmark M., Klohn W., Lundqvist J., Postel S., Rockstrom J., Seckler D., Shuval H., Wallace J. (1998) Water scarcity as a key factor behind global food insecurity: round table discussion. Ambio 27, 148–154. open url image1

Gebreselassie S., Peden D., Haileslassie A., Mpairwe D. (2009) Factors affecting livestock water productivity: animal scale analysis using previous cattle feeding trials in Ethiopia. The Rangeland Journal 31, 251–258. open url image1

Gerrish J. , and Davis M. (1999). Water availability and distribution. In: ‘Missouri Grazing Manual’. (Eds J. Gerrish and C. Roberts.) pp. 81–88. (University of Missouri Extension: Columbia.)

Goodland R. , and Pimental D. (2000). Environmental sustainability and integrity in natural resources systems. In: ‘Ecological Integrity’. (Eds D. Pimentel, L. Westra and R. Noss.) pp. 121–138. (Island Press: Washington, DC.)

Haileslassie A., Peden D., Gebreselassie S., Amede T., Wagnew A., Taddesse G. (2009) Livestock water productivity in the Blue Nile Basin: assessment of farm scale heterogeneity. The Rangeland Journal 31, 213–222. open url image1

Keller A. , and Seckler D. (2005). Limits to the productivity of water in crop production. In: ‘California Water Plan Update 2005. Vol. 4’. (California Department of Water Resources: Sacramento.)

King J. (1983). ‘Livestock Water Needs in Pastoral Africa in Relation to Climate Change and Forage.’ ILCA Research Report 7. (ILCA: Addis Ababa.)

Kleiber M. (1975). ‘The Fire of Life: An Introduction to Animal Energetics.’ (Robert E. Krieger Publishing: New York.)

Molden D. (2007). ‘Water for Food, Water for Life: A Comprehensive Assessment of Water Management in Agriculture.’ (Earthscan: London, and International Water Management Institute: Colombo.)

Molden D. , Oweis T. Y. , Steduto P. , Kijne J. W. , Hanjara M. A. , and Bindraban P. S. (2007). Pathways for increasing agricultural water productivity. In: ‘Water for Food, Water for Life: A Comprehensive Assessment of Water Management in Agriculture’. (Ed. D. Molden.) pp. 279–310. (Earthscan: London, and International Water Management Institute: Colombo.)

Molden D., Sakthivadivel R. (1999) Water accounting to assess uses and productivity of water. International Journal of Water Resources Development 15, 55–71.
Crossref | GoogleScholarGoogle Scholar | open url image1

Mpairwe D. (1998). Integration of forage legumes with cereal crops for improved grain yield, forage production and utilization for smallholder dairy production systems. Ph.D. Thesis, Makerere University, Kampala, Uganda.

Muli A. (2000). Factors affecting amount of water offered to dairy cattle in Kiambu District and their effects on productivity. B.Sc. Thesis, University of Nairobi (Range Management), Kenya.

Nierenberg D. (2005). ‘Happier Meals: Rethinking the Global Meat Industry.’ Worldwatch Paper #171. (Worldwatch Institute: Washington, DC.)

Pallas P. (1986). ‘Water for Animals.’ (FAO: Rome.)

Peden D. , Freeman A. , Astatke A. , and Notenbaert A. (2005). ‘Investment Options for Integrated Water-Livestock–Crop Production in sub-Saharan Africa.’ ILRI Research Paper No. 1. (ILRI: Nairobi.)

Peden D. , Tadesse G. , and Misra A. K. (2007). Water and livestock for human development. In: ‘Water for Food, Water for Life: A Comprehensive Assessment of Water Management in Agriculture’. (Ed. D. Molden.) pp. 485–514. (Earthscan: London and International Water Management Institute: Colombo.)

Renault D., Wallendar W. (2000) Nutritional water productivity and diets. Agricultural Water Management 45, 275–296.
Crossref | GoogleScholarGoogle Scholar | open url image1

Saeed I., El-Nadi A. (1998) Forage sorghum yield and water use efficiency under variable irrigation. Irrigation Science 18, 67–71.
Crossref | GoogleScholarGoogle Scholar | open url image1

Sala O., Parton W., Joyce A., Lauenroth W. (1988) Primary production of the Central Grasslands of the United States. Ecology 69, 40–45.
Crossref | GoogleScholarGoogle Scholar | open url image1

Seleshi Z. , Tegegne A. , and Tsadik T. (2003). Water resources for livestock in Ethiopia: implications for research and development. In: ‘Integrated water and land management research and capacity building priorities for Ethiopia. Proceedings of a MoWR/EARO/IWMI/ILRI International Workshop’. (Eds P. McCornick, A. Kamara and G. Tadesse.) pp. 66–79. (ILRI: Addis Ababa.)

Sinclair T. R., Tanner C. B., Bennett J. M. (1984) Water-use efficiency in crop production. Bioscience 34, 36–40.
Crossref | GoogleScholarGoogle Scholar | open url image1

SIWI, IFPRI, IUCN and IWMI (2005). ‘Let it Reign: The New Water Paradigm for Global Food Security.’ Final report to CSD-13. (Stockholm International Water Institute: Stockholm.)

Staal S. , Owango M. , Muriuki G. , Lukuyu B. , Musembi F. , Bwana O. , Muriuki K. , Gichungu G. , Omore A. , Kenyanjui B. , Njubi D. , Baltenweck I. , and Thorpe W. (2001). ‘Dairy Systems Characterization of the Greater Nairobi Milk-shed.’ SDP Research Report. (Kenya Ministry of Agriculture and Rural Development, Kenya Agricultural Research Institute, and International Livestock Research Institute: Nairobi.)

Steinfeld H. , Gerber P. , Wassenaar T. , Castel V. , Rosales M. , and de Hann C. (2006). ‘Livestock’s Long Shadow: Environmental Issues and Options.’ (FAO: Rome.)