No CrossRef data available.
Article contents
Trade off between thermal comfort and pollutant (ammonia) exposure in pigs
Published online by Cambridge University Press: 27 February 2018
Extract
The thermal insulation of pigs (Sus scrofa) is considered poor (Mount and Ingram, 1965) as they do not have a thick coat and have a variable subcutaneous fat thickness. Ventilation rates in animal houses are often reduced in colder weather to maintain an optimal thermal environment. However this may fail to remove atmospheric pollutants (e.g. Menses, 1987).
- Type
- Poster abstracts
- Information
- Copyright
- Copyright © The British Society of Animal Science 1997
References
Curtis, S. E.
1972. Air environment and animal performance.
Journal of Animal Science
35:
628–634.Google Scholar
Doig, P. A. and Willoughby, R. A.
1971. Response of swine to atmospheric ammonia and organic dust.
Journal of American Veterinary Medical Association
159:
1353–1361.Google Scholar
Gustin, P., Urbain, B., Prouvost, J. F. and Ansay, M.
1994. Effects of atmospheric ammonia on pulmonary hemodynamics and vascular permeability in pigs: interaction with endotoxins.
Toxicology and Applied Pharmacology
125:
17–26.Google Scholar
Jones, J. B., Burgess, L. R., Webster, A. J. F. and Watties, C. M.
1996. Behavioural responses of pigs to atmospheric ammonia in a chronic choice test.
Animal Science
63:
437–445.Google Scholar
Menses, J. F.
1987. Gases in pig and poultry houses — prevention and control techniques. In
Agriculture — environmental aspects of respiratory disease in intensive pig and poultry houses, including implications for human health
(ed. Bruce, J. M. and Sommer, M.), pp. 95–100. Commission of the European Communities.Google Scholar
Mount, L. E. and Ingram, D. L.
1965. Effects of ambient temperature and air movement on localized sensible heat loss from the pig.
Research in Veterinary Science
6:
84–91.Google Scholar