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Alternative rib bone biopsy measurements to estimate changes in skeletal mineral reserves in cattle

Published online by Cambridge University Press:  19 April 2018

R. M. Dixon ,
D. B. Coates ,
R. J. Mayer  and
C. P. Miller
R. M. Dixon*
Affiliation:
Queensland Alliance for Agriculture and Food Innovation (QAAFI), Centre for Animal Science, The University of Queensland, PO Box 6014, Rockhampton, QLD 4702, Australia
D. B. Coates
Affiliation:
CSIRO Ecosystems Sciences, ATSIP, PMB, PO Aitkenvale, QLD 4814, Australia
R. J. Mayer
Affiliation:
Queensland Department of Agriculture and Fisheries, Maroochy Research Facility, PO Box 5083, SCMC, Nambour, QLD 4560, Australia
C. P. Miller
Affiliation:
Queensland Department of Agriculture and Fisheries, PO Box 1054, Mareeba, QLD 4880, Australia
*
†E-mail: [email protected]
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Abstract

Rib bone biopsy samples are often used to estimate changes in skeletal mineral reserves in cattle but differences in sampling procedures and the bone measurements reported often make interpretation and comparisons among experiments difficult. ‘Full-core’ rib bone biopsy samples, which included the external cortical bone, internal cortical bone and trabecular bone (CBext, CBint and Trab, respectively), were obtained from cattle known to be in phosphorus (P) adequate (Padeq) or severely P-deficient (Pdefic) status. Experiments 1 and 2 examined growing steers and Experiment 3 mature breeder cows. The thickness of cortical bone, specific gravity (SG), and the amount and concentration of ash and P per unit fresh bone volume, differed among CBext, CBint and Trab bone. P concentration (mg/cc) was closely correlated with both SG and ash concentrations (pooled data, r=0.99). Thickness of external cortical bone (CBText) was correlated with full-core P concentration (FC-Pconc) (pooled data, r=0.87). However, an index, the amount of P in CBext per unit surface area of CBext (PSACB; mg P/mm2), was more closely correlated with the FC-Pconc (pooled data, FC-Pconc=37.0+146×PSACB; n=42, r=0.94, RSD=7.7). Results for measured or estimated FC-Pconc in 10 published studies with cattle in various physiological states and expected to be Padeq or in various degrees of Pdefic status were collated and the ranges of FC-Pconc indicative of P adequacy and P deficiency for various classes of cattle were evaluated. FC-Pconc was generally in the range 130 to 170 and 100 to 120 mg/cc fresh bone in Padeq mature cows and young growing cattle, respectively. In conclusion, the FC-Pconc could be estimated accurately from biopsy samples of CBext. This allows comparisons between studies where full-core or only CBext biopsy samples of rib bone have been obtained to estimate changes in the skeletal P status of cattle and facilitates evaluation of the P status of cattle.

Keywords

P deficiencyP adequacycortical bone thicknessbone mineral concentrationP status
Type
Research Article
Information
animal , Volume 13 , Issue 1 , January 2019 , pp. 119 - 126
Copyright
© The Animal Consortium 2018 

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Footnotes

a

Present address: 35 Dunbil Avenue, Ferny Hills, Brisbane, QLD 4055, Australia.

b

Present address: 8 Haines Close, Woolgoolga, NSW 2456, Australia.

References

Agricultural and Food Research Council 1991. AFRC Technical committee on responses to nutrients. 6. A reappraisal of the calcium and phosphorus requirements of sheep and cattle. Nutrition Abstracts and Reviews 61, 573–612.Google Scholar
Anderson, ST, Kidd, LJ, Benvenutti, MA, Fletcher, MT and Dixon, RM 2017. New candidate markers of phosphorus status in beef breeder cows. Animal Production Science 57, 2291–2303, .Google Scholar
Benzie, D, Boyne, AW, Dalgarno, AC, Duckworth, J and Hill, R 1959. Studies of the skeleton of the sheep. III. The relationship between phosphorus intake and resorption and repair of the skeleton in pregnancy and lactation. Journal of Agricultural Science, Cambridge 52, 1–12.Google Scholar
Benzie, D, Boyne, AW, Dalgarno, AC, Duckworth, J, Hill, R and Walker, DM 1955. Studies of the skeleton of the sheep. I. The effect of different levels of dietary calcium during pregnancy and lactation on individual bones. Journal of Agricultural Science, Cambridge 46, 425–444.Google Scholar
Breves, G and Prokop, M 1990. Dietary phosphorus depletion in sheep: longterm effects on bone structure. Journal of Animal Physiology and Animal Nutrition 64, 74–79.Google Scholar
Castells, L, Dixon, RM, Kidd, LJ, Goodwin, K, Mayer, R, Fletcher, MT and McNeill, DM 2015. Capacity of young cows to gain bone and improve lactation. Proceedings of the 2015 conference, Recent Advances in Animal Nutrition in Australia, University of New England, 26 to 28 October 2015, Armidale, Australia. pp. 49–50.Google Scholar
Coates, DB, Dixon, RM, Mayer, RJ and Murray, RM 2016. Validation of single photon absorptiometry for on-farm measurement of density and mineral content of tail bone in cattle. Animal Production Science 56, 2054–2059.Google Scholar
Coates, DB, Dixon, RM, Murray, RM, Mayer, RJ and Miller, CP 2018. Bone mineral density in the tail-bones of cattle: effect of phosphorus status, liveweight, age and physiological status. Animal Production Science 58, 801–810.Google Scholar
Coates, DB and Murray, RM 1994. Tail-bone density compared with other indicators of phosphorus deficiency in cattle. Proceedings of the Australian Society of Animal Production 20, 329–332.Google Scholar
CSIRO 2007. Nutrient requirements of domesticated ruminants. CSIRO Publishing, Melbourne, Australia.Google Scholar
de Brouwer, CHM, Cilliers, JW, Vermaak, LM, van der Merwe, HJ and Groenewald, PCN 2000. Phosphorus supplementation to natural pasture grazing for beef cows in the Western Highveld region of South Africa. South African Journal of Animal Science 30, 43–52.Google Scholar
de Waal, HO and Koekemoer, GJ 1997. Blood, rib-bone and rumen fluid as indicators of P status of grazing beef cows at Armoedsvlakte supplemented with different levels of phosphorus. South African Journal of Animal Science 27, 76–84.Google Scholar
Dixon, RM, Coates, DB, Mayer, RJ and Miller, CP 2016. Productivity and phosphorus content of rib and tail bones in reproducing cows ingesting diets deficient or adequate in phosphorus. Proceedings of the Australian Society of Animal Production 31, 93–94.Google Scholar
Dixon, RM, Kidd, LJ, Coates, DB, Anderson, ST, Benvenutti, MA, Fletcher, MT and McNeill, DM 2017. Utilizing mobilization of body reserves to improve management of phosphorus nutrition of breeder cows. Animal Production Science 57, 2280–2290.Google Scholar
Duncan, DL 1958. The interpretation of studies of calcium and phosphorus balance in ruminants. Nutrition Abstracts and Reviews 28, 695–715.Google Scholar
Ferris, CP, McCoy, MA, Patterson, DC and Kilpatrick, DJ 2010. Effect of offering dairy cow diets differing in phosphorus concentration over four successive lactations: 2 Health, fertility, bone phosphorus reserves and nutrient utilization. Animal 4, 560–571.Google Scholar
Hill, R 1962. The provision and metabolism of calcium and phosphorus in ruminants. World Review of Nutrition and Dietetics 3, 131–148.Google Scholar
Hoey, WA, Murphy, GM and Gartner, RJW 1982. Whole body composition of heifers in relation to phosphorus status with particular reference to the skeleton. Journal of Agricultural Science, Cambridge 98, 31–37.Google Scholar
Holst, PJ, Murison, RD and Wadsworth, JC 2002. Bone mineralization and strength in range cattle. Australian Journal of Agricultural Research 53, 947–954.Google Scholar
Knowlton, KF and Herbein, JH 2002. Phosphorus partitioning during early lactation in dairy cows fed diets varying in phosphorus content. Journal of Dairy Science 85, 1227–1236.Google Scholar
Little, DA 1972. Bone biopsy in cattle and sheep for studies of phosphorus status. Australian Veterinary Journal 48, 668–670.Google Scholar
Little, DA 1983. Bovine body composition and phosphorus storage: the in vivo assessment of body composition and phosphorus status, and the dietary phosphorus requirements of cattle for growth. PhD thesis, The University of Queensland, Brisbane, Australia.Google Scholar
Little, DA 1984. Definition of an objective criterion of body phosphorus reserves in cattle and its evaluation in vivo. Canadian Journal of Animal Science 64, 229–231.Google Scholar
Little, DA and Minson, DJ 1977. Variation in the phosphorus content of bone samples obtained from the last three ribs of cattle. Research in Veterinary Science 23, 393–394.Google Scholar
McRoberts, MR, Hill, R and Dalgarno, AC 1965. The effects of diets deficient in phosphorus, phorphorus and vitamin D, or calcium, on the skeleton and teeth of the growing sheep. Journal of Agricultural Science, Cambridge 65, 1–10.Google Scholar
Quigley, S, Poppi, D and Schatz, T 2015. Validation and demonstration of a diagnostic tool for phosphorus status of beef cattle. Final Project Report, Meat and Livestock Australia, Sydney, Australia.Google Scholar
Read, MVP, Engels, EAN and Smith, WA 1986. Phosphorus and the grazing ruminant. 3. Rib bone samples as an indicator of the P status of cattle. South African Journal of Animal Science 16, 13–17.Google Scholar
Schotz, AM, Bunger, L, Kongsro, J, Baulain, U and Mitchell, AD 2015. Non-invasive methods for the determination of body and carcass composition in livestock: dual-energy X-ray absorptiometry, computed tomography, magnetic resonance imaging and ultrasound: a review. Animal 9, 1250–1264.Google Scholar
Shupe, JL, Butcher, JE, Call, JW, Olson, AE and Blake, JT 1988. Clinical signs and bone changes associated with phosphorus deficiency in beef cattle. American Journal of Veterinary Research 49, 1629–1636.Google Scholar
Spangenberg, HP 1997. Phosphorus supplementation to grazing beef cows at two sites in the Northern Cape. PhD thesis, University of the Orange Free State, Bloemfontein, South Africa.Google Scholar
Valk, H, Sebek, LBJ and Beynen, AC 2002. Influence of phosphorus intake on excretion and blood plasma and saliva concentrations of phosphorus in dairy cows. Journal of Dairy Science 85, 2642–2649.Google Scholar
Williams, SN, Lawrence, LA, McDowell, LR, Wilkinson, NS, Ferguson, PW and Warnick, AC 1991. Criteria to evaluate bone mineralization in cattle: 1. Effect of dietary phosphorus on chemical, physical, and mechanical properties. Journal of Animal Science 69, 1232–1242.Google Scholar