Hostname: page-component-cd9895bd7-lnqnp Total loading time: 0 Render date: 2024-12-27T19:14:43.289Z Has data issue: false hasContentIssue false

Effects of air temperature, air velocity and feeding level on apparent digestibility, water intake, water loss and growth in calves given a milk substitute diet

Published online by Cambridge University Press:  02 September 2010

M. S. Cockram
Affiliation:
Department of Animal Husbandry, University of Liverpool, Veterinary Field Station, Leahurst, Neston, South Wirral L64 7TE
T. G. Rowan
Affiliation:
Department of Animal Husbandry, University of Liverpool, Veterinary Field Station, Leahurst, Neston, South Wirral L64 7TE
Get access

Abstract

Six groups of eight 2-day-old calves were placed successively in a controlled environment chamber. Three groups were exposed to air temperatures of 10° and 25°C. A liquid diet of skimmed-milk substitute and 4 I/day of drinking (free) water was offered to each calf. Within each group, calves were allocated to either a low (<0·2 m/s) or a high (>3 m/s) air velocity and to either a low (30 g dry matter (DM) per kg M0·75 per day) or a high (40 g DM per kg M0·75 per day) feeding level. At 8 days of age the apparent digestibilities of DM at air temperatures of 10° and 25°C were 0·77 (s.e. 0·126) and 0·82 (s.e. 0·126) respectively (P > 0·05). The apparent digestibilities of DM were greater at the low feeding level with low air velocity than for either this feeding level with high air velocity or the high feeding level at both air velocities (P < 0·05) between which there was no significant difference (P > 0·05). At 8 days of age there were significant air temperature × air velocity (P < 001) and air velocity × feeding level interactions in the intake of free water (P < 005). There was a significant air temperature × feeding level interaction for total water intake (P < 0·05). Urinary water loss relative to total water intake was significantly greater at the low air velocity than at the high air velocity (P < 0·05).

In a further two groups of eight calves given 30 g DM per kg M 75 per day at 8 days of age, the apparent digestibilities of DM at air temperatures of 10° and 25°C were 0·71 (s.e. 0·020) and 0·90 (s.e. 0·013) respectively (P < 0·01). In the same calves given 40 g DM per kg M0·75 per day at 20 days of age, the apparent digestibilities of DM at air temperatures of 10° and 25°C were 0·89 (s.e. 0·009) and 0·93 (s.e. 0·011) respectively (P < 0·05). The free and total water intakes, the ratios of (total water intake-faecal water loss): total water intake and the urinary losses of water were significantly greater at the air temperature of 25°C than at 10°C (P < 0·05). Live-weight gains were lower at 10°C than at 25°C (P < 0·01).

The results suggested that air temperature, air velocity and feeding level can affect the health and growth of calves less than 4 weeks of age.

Type
Research Article
Copyright
Copyright © British Society of Animal Science 1989

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

REFERENCES

Andersson, M. 1985. Effects of drinking water temperature s on water intake and milk yield of tied-up dairy cows. Livestock Production Science 12: 329338.CrossRefGoogle Scholar
Andrews, A. H. 1983. Calf Management and Disease Notes. A. H. Andrews. Harpenden.Google Scholar
Bailey, C. B., Hironaka, R. and Slen, S. B. 1962. Effects of the temperature of the environment and the drinking water on the body temperature and water consumption of sheep. Canadian Journal of Animal Science 42: 18.CrossRefGoogle Scholar
Blaxter, K. L. and Wood, W. A. 1952. The nutrition of the young Ayrshire calf. 5. The nutritive value of cow's whole milk. British Journal of Nutrition 6: 132.CrossRefGoogle Scholar
Bruce, J. M. 1978. A suggestion for a ranked classification for floors of livestock buildings based on the conductive heat loss from recumbent animals. In Animal Housing Injuries Due to Floor Surfaces, pp. 123131. Cement and Concrete Association, Slough.Google Scholar
Christopherson, R. J. and Kennedy, P. M. 1983. Effect of the thermal environment on digestion in ruminants. Canadian Journal of Animal Science 63: 477496.CrossRefGoogle Scholar
Cockram, M. S. 1986. Effects of some environmental factors on calf health and growth. Ph.D. Thesis, University of Liverpool.Google Scholar
Cockram, M. S. and Rowan, T. G. 1989. Effect of air temperature on the abomasal and small intestinal digestion of a milk substitute diet given to young calves. Animal Production 48: 6774.CrossRefGoogle Scholar
Cunningham, M. D., Martz, F. A. and Merilan, C. P. 1964. Effect of drinking-water temperature upon ruminant digestion, intra-ruminal temperature, and water consumption of nonlactating dairy cows. Journal of Dairy Science 47: 382385.CrossRefGoogle Scholar
Dauncey, M. J., Ingram, D. L., James, P. S. and Smith, M. W. 1983. Modification by diet and environmental temperature of enterocyte function in piglet intestine. Journal of Physiology 341: 441452.CrossRefGoogle ScholarPubMed
Degen, A. A. and Young, B. A. 1980. Effect of cold exposure on liveweight and body fluid compartments in sheep. Canadian Journal of Animal Science 60: 3341.CrossRefGoogle Scholar
Edgson, F. A. 1964. Symposium on calf diseases. 3. Enteric infections. Veterinary Record 76: 13511358.Google Scholar
Fisher, E. W. and Martinez, A. A. 1975. Studies of neonatal calf diarrhoea. I. Fluid balance in spontaneous enteric colibacillosis. British Veterinary Journal 131: 190204.CrossRefGoogle ScholarPubMed
Fisher, E. W. and Martinez, A. A. 1976. Aspects of body fluid dynamics of neonatal call diarrhoea. Research in Veterinary Science 20: 302305.CrossRefGoogle Scholar
Gebremedhin, K. G. and Cramer, C. O. 1979. Determination and modelling of heat production of growing calves by indirect calorimetry. American Society of Agricultural Engineers Paper No. 79–4015. American Society of Agricultural Engineers, St. Joseph.Google Scholar
Gebremedhin, K. G., Cramer, C. O. and Porter, W. P. 1981. Predictions and measurements of heat production and food and water requirements of Holstein calves in different environments. Transactions of the American Society of Agricultural Engineers 24: 715720.CrossRefGoogle Scholar
Gonzalez-Jimenez, E. and Blaxter, K. L. 1962. The metabolism and thermal regulation of calves in the first month of life. British Journal of Nutrition 16: 199212.CrossRefGoogle Scholar
Goodwin, R. F. W. 1957. The concentration of blood sugar during starvation in the new-born calf and foal. Journal of Comparative Pathology 67: 289296.CrossRefGoogle Scholar
Holmes, C. W. 1971. The effect of milk given at various temperatures on the oxygen consumption of young calves. Animal Production 13: 619625.Google Scholar
Hudson, R. J., Saben, H. S. and Emslie, D. 1974. Physiological and environmental influences on immunity. Veterinary Bulletin 44: 119128.Google Scholar
Ingram, D. L. 1981. Physiology and behaviour of young pigs in relation to the environment. In The Welfare of Pigs (ed. Sybesma, W.), pp. 3342. Martinus Nijhoff, The Hague.CrossRefGoogle Scholar
Johnson, P. T. C. and Elliott, R. C. 1972. Dietary energy intake and utilization by young Friesland calves. 1. The energy and dry matter content of calves at four days of age. Rhodesian Journal of Agricultural Research 10: 119124.Google Scholar
Kelley, K. W. 1980. Stress and immune function: a bibliographic review. Annales de Recherches Veterinaires 11: 445478.Google ScholarPubMed
Kennedy, P. M., Young, B. A. and Christopherson, R. J. 1977. Studies on the relationship between thyroid function, cold acclimation and retention time of digesta i n sheep. Journal of Animal Science 45: 10841090.CrossRefGoogle Scholar
Lanham, J. K., Coppock, C. E., Milam, K. Z., Labore, J. M., Nave, D. H., Stermer, R. A. and Brasington, C. F. 1986. Effects of drinking water temperature on physiological responses of lactating Holstein cows in summer. Journal of Dairy Science 69: 10041012.CrossRefGoogle ScholarPubMed
Logan, E. F., Pearson, G. R. and McNulty, M. S. 1979. Quantitative observations on experimental reo-like virus (rotavirus) infection in colostrum-deprived calves. Veterinary Record 104: 206209.CrossRefGoogle ScholarPubMed
McFeters, G. A. and Stuart, D. G. 1972. Survival of coliform bacteria in natural waters: field and laboratory studies with membrane-filter chambers. Applied Microbiology 24: 805811.CrossRefGoogle ScholarPubMed
Ministry of Agriculture, Fisheries and Food. 1979. Causes and prevention of losses in calf rearing. Leaflet 517. MAFF (Publications), Alnwick.Google Scholar
Moe, K. and Harper, G. J. 1983. The effect of relative humidity and temperature on the survival of bovine rotavirus in aerosol. Archives of Virology 76: 211216.CrossRefGoogle ScholarPubMed
Mount, L. E. 1979. Adaptation to Thermal Environment, Man and His Productive Animals. Edward Arnold, London.Google Scholar
Mylrea, P. J. 1966. Digestion in young calves fed whole milk ad lib. and its relationship to calf scours. Research in Veterinary Science 7: 407416.CrossRefGoogle ScholarPubMed
Quaassdorff, G. E., Gebremedhin, K. F., Wieckert, D. A., Bremel, R. D. and Ax, R. L. 1984. Physiological and behavioural responses of dairy calves under stress. American Society of Agricultural Engineers, Paper No. 84–4015. St. Joseph.Google Scholar
Reisenger, R. C. 1965. Pathogenesis and prevention of infectious diarrhea (scours) of newborn calves. Journal of the American Veterinary Medical Association 147: 13771386.Google Scholar
Roy, J. H. B. 1980. The Calf. 4th ed. Butterworths, London.Google Scholar
Small, J. and Eales, F. A. 1985. Hypothermia in calves. Veterinary Record. 116: 77.CrossRefGoogle ScholarPubMed
Snedecor, G. W. and Cochran, W. G. 1980. Statistical Methods. 7th ed. Iowa State University Press, Ames, la.Google Scholar
Ternouth, J. H., Stobo, I. J. F., Roy, J. H. B. and Beattie, A. W. 1985. The effect of milk substitute concentration upon the intake, digestion and growth of calves. Animal Production 41: 151159.Google Scholar
Thickett, B., Mitchell, D. and Hallows, B. 1986. Calf Rearing. Farming Press, Ipswich.Google Scholar
Van es, A. J. H. 1969. Report to the sub-committee on constants and factors: constants and factors regarding metabolic water. In Energy Metabolism of Farm Aminals (ed. Blaxter, K. L., Kielanowski, J. and Thorbek, G.), pp. 513514. Oriel Press, Newcastle Upon Tyne.Google Scholar
Webster, A. J. F. 1971. Prediction of heat losses from cattle exposed to cold outdoor environments. Journal of Applied Physiology 30: 684690.CrossRefGoogle ScholarPubMed
Webster, A. J. F. 1981a. Optimal housing criteria for ruminants. In Environmental Aspects of Housing for Animal Production (ed. Clark, J. A.), pp. 217232. Butterworths, London.CrossRefGoogle Scholar
Webster, A. J. F. 1981b. Weather and infectious disease n cattle. Veterinary Record 108: 183187.CrossRefGoogle Scholar
Webster, A. J. F. 1982. Improvements of environment, husbandry and feeding. In The Control of Infectious Diseases in Farm Animals, pp. 2835. British Veterinary Association Trust, London.Google Scholar
Williams, P. E. V. and Innes, G. M. 1982. Effects of short-term cold exposure on the digestion of milk replacer by young pre-ruminant calves. Research in Veterinary Science 32: 383386.CrossRefGoogle Scholar
Withers, F. W. 1952. Mortality rates and disease incidence in calves in relation to feeding, management and other environmental factors. Part II. British Veterinary Journal 108: 382405.CrossRefGoogle Scholar
Wood-Gush, D. G. M. 1983. Elements of Ethology. A Textbook for Agricultural and Veterinary Students. Chapman and Hall, London.Google Scholar
Yang, T. S., Howard, B. and MacFarlane, W. V. 1981. Effects of food on drinking behaviour of growing pigs. Applied Animal Ethology 7: 259270.CrossRefGoogle Scholar