Summary
Mandibular bone resorption in normal and osteoporotic rats was measured using standard scintillation techniques for tritiated tetracycline (H3-TC). Thirty-four Sprague-Dawley rats were labeled with H3-TC at 4–9 weeks of age. Ten animals were then sacrificed for baseline radioactivity levels, while 12 experimental animals were given a high protein, low calcium diet, and 12 control animals were given a normal calcium diet. Osteoporotic and normal diets were instituted for 90 days. The results show a significant reduction in the quantity of bone in the experimental group (P<.05) as compared to the control group. In addition, serum samples collected were found to contain significantly elevated (P<.01) alkaline phosphatase level in the experimental group when compared to the control group.
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References
Jackman KV, Klein L, Lacey SH (1973) Recovery and determination of H3-tetracycline from whole bone. Bio Chem Med 8:114–122
Klein L, Jackman K (1976) Assay of bone resorption in vivo with H3-tetracycline. Calcif Tissue Res 20:275–290
Klein L (1968) Use of chronically labeled animals in the study of “metabolically inert” protein. Adv Tracer Methodology 4:215–225
Ibsen KH, Urist MR (1964) The biochemistry and the physiology of the tetracyclines. Clin Orthop 32:143–168
Steendijk R (1964) Studies on the mechanism of the fixation of the tetracyclines to the bone. Acta Anat 56:368–382
Pickering DE, Foran RF, Scott KG, Crane JT (1956) Chemical growth dynamics of the skeleton in the immature rat. I. Normal chemical composition and growth. Am J Dis Child 92:276–283
Ulmansky M (1964) The effect of “meat diet” on the mandibles and teeth of mice. Am J Pathol 44:85–94
Simmons DJ, Russell JE, Winter F, Tran Van P, Vignery A, Baron R, Rosenberg GD, Walker WV (1983) Effect of space flight on non-weight-bearing bones of rat skeleton. Am J Physiol 244:R319-R326
Atwood DA (1971) Reduction of residual ridges: a major oral disease entity. J Prosthet Dent 266:26–35
Engstrom GW, De Luca HF (1968) Effect of egg-white diets on calcium metabolism in the rat. J Nutr 81:218–222
Maraghi NR, Platt BS, Stewart RJ (1965) The effect of the interaction on dietary protein and calcium on the growth and maintenance of the bones in young, adult and aged rats. J Nutr 19:491–509
Lengermann FW, Comar CL (1961) The effect of protein on calcium transport. Am J Physiol 200:1951–1961
Weiss RE, Gorn A, Dux S, Nimmi M (1981) Influence of high protein diets on cartilage and bond formation in rats. J Nutr III:804–816
Draper HH, Sie R, Bergen JG (1972) Osteoporosis in aging rats induced by high phosphorous diets. J Nutr 102:1133–1142
Harrison M, Fraser R (1960) Bone structure and metabolism in calcium-deficient rats. J Endocrinol 21:197–204
Jowsey J, Raisz LG (1968) Experimental osteoporosis and parathyroid activity, Endocrinology 82:384–396
Chan, James CM (1981) Nutrition and acid-base metabolism. Fed Proc 40:2423–2428
Warshaw JB, Littlefield JW, Fishman WH, Inglis NR, Stolback LL (1972) Serum alkaline phosphatase in hypophosphatasia. J Clin Invest 50:2137–2142
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Sones, A.D., Wolinsky, L.E. & Kratochvil, F.J. Osteoporosis and mandibular bone resorption in the sprague dawley rat. Calcif Tissue Int 39, 267–270 (1986). https://doi.org/10.1007/BF02555217
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DOI: https://doi.org/10.1007/BF02555217