Hostname: page-component-586b7cd67f-dlnhk Total loading time: 0 Render date: 2024-11-22T06:33:21.755Z Has data issue: false hasContentIssue false

Improvement of bone health in childhood and adolescence

Published online by Cambridge University Press:  14 December 2007

Zhu Kun*
Affiliation:
Department of Food Science and Technology, University of New South Wales, Sydney, NSW 2052, Australia
Heather Greenfield
Affiliation:
Department of Food Science and Technology, University of New South Wales, Sydney, NSW 2052, Australia
Du Xueqin
Affiliation:
Department of Food Science and Technology, University of New South Wales, Sydney, NSW 2052, Australia
David R. Fraser
Affiliation:
Department of Animal Science, University of Sydney, NSW 2006, Australia
*
*Corresponding author: Ms Zhu Kun, fax +61 2 9351 3957, email [email protected]
Rights & Permissions [Opens in a new window]

Abstract

Core share and HTML view are not available for this content. However, as you have access to this content, a full PDF is available via the ‘Save PDF’ action button.

Osteoporosis as a worldwide problem is discussed in the present review and the question of improving peak bone mass to reduce the risk of osteoporosis and osteoporotic fracture is addressed. The available evidence points to pre-puberty and puberty as the most opportune periods for intervention, but the potential for achievable increments in bone mass is shown to be small compared with the overwhelming influence of heredity, body composition and hormonal factors on bone. Lean body mass appears to be positively correlated with bone mass, while black–white racial differences in bone mass appear to be related to greater lean mass and lower bone turnover rate in blacks. Within races, twin and parent–offspring models have suggested that 46–80 % of the variance in bone mineral density can be explained by inherited factors; however, the mechanism of the genetic influence on bone density remains poorly understood. Moderate regular exercise seems to maintain bone mass while more vigorous regular exercise increases it in children and young adults. Ca intake has been found to be positively associated with bone mass in many but not all studies, possibly because of a ceiling at about 1300–1500 mg/d for young people. Other nutritional variables, including vitamin D, have been little investigated in relation to childhood and adolescent bone mass. The influence of milk as a source of highly bioavailable Ca and other nutrients has also been less frequently investigated, which is of concern given the cessation of school milk programmes in Western countries over the last three decades. Intervention studies to improve bone health in young people have mainly been based on Ca milk or exercise. The evidence points to the benefits to bone of such interventions, particularly when commenced pre-puberty, and it seems that daily consumption of 200–300 ml milk/d by children and adolescents has no adverse side effects. The benefits to bone are almost universally shown to be lost fairly rapidly after Ca or exercise intervention ceases; there is therefore no justification in terms of bone health for short-term interventions of this nature. The question of withdrawal of milk supplementation has undergone very little examination. Further, very little evidence is available on the effects of long-term interventions of any sort on bone health. Nevertheless, the data obtained so far permit the suggestion that promotion of Ca intake (e.g. at the higher level of current recommendations) and exercise commencing in the pre-pubertal period should be adopted as policy now.

Type
Research Article
Copyright
Copyright © CABI Publishing 2001

References

Albertsson-Wikland, K, Rosberg, S, Karlberg, J & Groth, T (1994) Analysis of 24-hour growth hormone profiles in healthy boys and girls of normal stature: relation to puberty. Journal of Clinical Endocrinology and Metabolism 78, 11951201.Google Scholar
Ames, SK, Ellis, KJ, Gunn, SK, Copeland, KC & Abrams, SA (1999) Vitamin D receptor gene Fok1 polymorphism predicts calcium absorption and bone mineral density in children. Journal of Bone and Mineral Research 14, 740746.Google Scholar
Anderson, JJ & Metz, JA (1993) Contributions of dietary calcium and physical activity to primary prevention of osteoporosis in females. Journal of the American College of Nutrition 14, 378383.CrossRefGoogle Scholar
Andon, MB, Lloyd, T & Matkovic, V (1994) Supplementation trials with calcium citrate malate: evidence in favor of increasing the calcium RDA during childhood and adolescence. Journal of Nutrition 124, 1412S1417.Google Scholar
Anonymous (1999) Vitamin D supplement in early childhood and risk for Type 1 (insulin-dependent) diabetes mellitus. The EURODIAB Substudy 2 Study Group. Diabetologia 42, 5154.CrossRefGoogle Scholar
Anonymous (2000) Regulations on ‘China School Milk’ issued. China Food Newspaper, 18 February.Google Scholar
Arai, H, Miyamoto, K, Taketani, Y, Yamamoto, H, Iemori, Y, Morita, K, Tonai, T, Nishisho, T, Mori, S & Takeda, E (1997) A vitamin D receptor gene polymorphism in the translation initiation codon: effect on protein activity and relation to bone mineral density in Japanese women. Journal of Bone and Mineral Research 14, 915921.Google Scholar
Arnaud, CD & Sanchez, SD (1996) Calcium and phosphorus. In Present Knowledge In Nutrition, 7th ed., pp. 245255 [Ziegler, EE and Filer, LJ, editors]. Washington, DC: ILSI Press.Google Scholar
Baker, IA, Elwood, PC, Hughes, J, Jones, M, Moore, F & Sweetnam, PM (1980) A randomised controlled trial of the effect of the provision of free school milk on the growth of children. Journal of Epidemiology and Community Health 34, 3134.Google Scholar
Baroncelli, GI, Federic, G, Bertelloni, S, Ceccarelli, C, Cupelli, D & Saggese, G (1999) Vitamin-D receptor genotype does not predict bone mineral density, bone turnover and growth in pre-pubertal children. Hormone Research 51, 150156.CrossRefGoogle ScholarPubMed
Baum, F (1998) The New Public Health: An Australian Perspective, chapter 17. Oxford: Oxford University Press.Google Scholar
Bennell, KL, Malcolm, SA, Khan, KM, Thomas, SA, Reid, SJ, Brukner, PD, Ebeling, PR & Wark, JD (1997) Bone mass and bone turnover in power athletes, endurance athletes, and controls: a 12-month longitudinal study. Bone 20, 477484.CrossRefGoogle ScholarPubMed
Bonen, A (1992) Recreational exercise does not impair menstrual cycles: a prospective study. International Journal of Sports Medicine 13, 110120.Google Scholar
Bonjour, JP, Carrie, AL, Ferrari, S, Clavien, H, Slosman, D, Theintz, G & Rizzoli, R (1997) Calcium-enriched foods and bone mass growth in prepubertal girls: a randomized, double-blind, placebo-controlled trial. Journal of Clinical Investigation 99, 12871294.CrossRefGoogle ScholarPubMed
Bonjour, JP, Theintz, G, Buchs, B, Slosman, D & Rizzoli, R (1991) Critical years and stages of puberty for spinal and femoral bone mass accumulation during adolescence. Journal of Clinical Endocrinology and Metabolism 73, 555563.CrossRefGoogle ScholarPubMed
Bonjour, JP, Theintz, G, Law, F, Slosman, D & Rizzoli, R (1994) Peak bone mass. Osteoporosis International 4, Suppl. 1, 713.CrossRefGoogle ScholarPubMed
Bonofiglio, D, Maggiolini, M, Catalano, S, Marsic, S, Aquila, S, Giorno, A & Ando, S (2000) Parathyroid hormone is elevated but bone markers and density are normal in young female subjects who consume inadequate dietary calcium. British Journal of Nutrition 84, 111116.Google Scholar
Boot, AM, De Ridder, MAJ, Pols, HAP, Krenning, EP & De, MuinckKeizer-Schrama, SMPF (1997) Bone mineral density in children and adolescents: relation to puberty, calcium intake, and physical activity. Journal of Clinical Endocrinology and Metabolism 82, 5762.Google Scholar
Boucher, BJ (1998) Inadequate vitamin D status: does it contribute to the disorders comprising syndrome ‘X’?. British Journal of Nutrition 79, 315327.Google Scholar
Brighton, CT, Strafford, B, Gross, SB, Leatherwood, DF, Williams, JL & Pollack, SR (1991) The proliferative and synthetic response of isolated calvarial bone cells of rats to cyclic biaxial mechanical strain. Journal of Bone and Joint Surgery 73A, 320331.Google Scholar
Brinckmann, P, Biggemann, M & Hilweg, D (1989) Prediction of the compressive strength of human lumbar vertebrae. Spine 14, 606610.CrossRefGoogle ScholarPubMed
Bronner, F (1994) Calcium and osteoporosis. American Journal of Clinical Nutrition 60, 831836.CrossRefGoogle ScholarPubMed
Bronner, F & Abrams, SA (1998) Development and regulation of calcium metabolism in healthy girls. Journal of Nutrition 128, 14741480.Google Scholar
Brown, TD, Pedersen, DR, Gray, ML, Brand, RA & Rubin, CT (1990) Toward an identification of mechanical parameters initiating periosteal remodeling: a combined experimental and analytic approach. Journal of Biomechanics 23, 893905.Google Scholar
Buchanan, JR, Hospodar, P, Myers, C, Leuenberger, P & Demers, LM (1988) Effects of excess endogenous androgens on bone density in young women. Journal of Clinical Endocrinology and Metabolism 67, 937943.CrossRefGoogle Scholar
Buckwalter, JA, Glimcher, MJ, Cooper, RR & Recker, R (1995) Bone biology, part II: formation, form, modeling, remodeling and regulation of cell function. Journal of Bone and Joint Surgery 77A, 12761289.Google Scholar
Cadogan, J, Blumsohn, A, Barker, ME & Eastell, R (1998) A longitudinal study of bone gain in pubertal girls: anthropometry and biochemical correlates. Journal of Bone and Mineral Research 13, 16021612.CrossRefGoogle ScholarPubMed
Cadogan, J, Eastell, R, Jones, N & Barker, ME (1997) Milk intake and bone mineral acquisition in adolescent girls: randomised, controlled intervention trial. British Medical Journal 315, 12551260.Google Scholar
Chan, GM, Hoffman, K & McMurry, M (1995) Effects of dairy products on bone and body composition in pubertal girls. Journal of Pediatrics 126, 551556.CrossRefGoogle Scholar
Cheng, JCY, Leung, SSSF, Lee, WTK, Lau, JTF, Mafulli, N, Cheung, AYK & Chan, KM (1998) Determinants of axial and peripheral bone mass in Chinese adolescents. Archives of Disease in Childhood 78, 524530.Google Scholar
Conigrave, AD, Quinn, SJ & Brown, EM (2000) L-amino acid sensing by the extracellular Ca2+-sensing receptor. Proceedings of the National Academy of Sciences USA 97, 48144819.Google Scholar
Cook, JD, Dassenko, SA & Whittaker, P (1991) Calcium supplementation: effect on iron absorption. American Journal of Clinical Nutrition 53, 106111.CrossRefGoogle ScholarPubMed
Cooper, C, Atkinson, EJ, Hensrud, DD, Wahner, HW, O'Fallon, WM, Riggs, BL & Melton, LJ (1996) Dietary protein intake and bone mass in women. Calcified Tissue International 58, 320325.Google Scholar
Cooper, C, Campion, G & Melton, LJ (1992) Hip fractures in the elderly: a world-wide projection. Osteoporosis International 2, 285289.Google Scholar
Cowell, CT, Lu, PW, Lloyd-Jones, SA, Briody, JN, Allen, JR, Humphries, IRJ, Reed, E, Knight, J, Howman-Giles, R & Gaskin, K (1995) Volumetric bone mineral density – a potential role in paediatrics. Acta Paediatrica Suppl. 411, 1216.Google Scholar
Cummings, SR (1985) Are patients with hip fractures more osteoporotic? Review of the evidence. American Journal of Medicine 78, 487494.Google Scholar
Dalsky, GP, Stocke, KS, Ehsani, AA, Slatopolsky, E, Lee, WC & Birge, SJ (1988) Weight-bearing exercise training and lumbar bone mineral content in postmenopausal women. Annals of Internal Medicine 108, 824848.Google Scholar
Dawson-Hughes, B, Harris, SS & Finneran, S (1995) Calcium absorption on high and low calcium intakes in relation to vitamin D receptor genotype. Journal of Clinical Endocrinology and Metabolism 80, 36573661.Google ScholarPubMed
Dawson-Hughes, B, Seligson, FH & Hughes, VA (1986) Effects of calcium carbonate and hydroxyapatite on zinc and iron retention in postmenopausal women. American Journal of Clinical Nutrition 44, 8388.CrossRefGoogle ScholarPubMed
Deehr, MS, Dallal, GE, Smith, KT, Taulbee, JD & Dawson-Hughes, B (1990) Effects of different calcium sources on iron absorption in postmenopausal women. American Journal of Clinical Nutrition 51, 9599.Google Scholar
Dequeker, J, Nijs, J, Verstraeten, A, Geusens, P & Gevers, G (1987) Genetic determinants of bone mineral content of the spine and radius: a twin study. Bone 8, 207209.CrossRefGoogle ScholarPubMed
Dhuper, S, Warren, MP, Brooks-Gunn, J & Fox, R (1990) Effects of hormonal status on bone density in adolescent girls. Journal of Clinical Endocrinology and Metabolism 71, 10831088.Google Scholar
Dibba, B, Prentice, A, Ceesay, M, Stirling, DM, Cole, TJ & Poskitt, ME (2000) Effect of calcium supplementation on bone mineral accretion in Gambian children accustomed to a low-calcium diet. American Journal of Clinical Nutrition 71, 544549.Google Scholar
Docio, S, Riancho, JA, Perez, A, Olmos, JM, Amado, JA & Gonzalez-Macias, J (1998) Seasonal deficiency of vitamin D in children: a potential target for osteoporosis-preventing strategies?. Journal of Bone and Mineral Research 13, 544548.Google Scholar
Du, X (1998) Calcium and vitamin D status of female adolescents in Beijing. PhD Thesis, University of New South Wales.Google Scholar
Du, X, Greenfield, H, Fraser, DR & Ge, KY (1997 a) Osteoporotic X-ray signs and calcium intake among Beijing adolescent girls. Proceedings of the Nutrition Society 56, 297A.Google Scholar
Du, XQ, Greenfield, H, Fraser, DR & Ge, KY (1997 b) A semiquantitative food frequency questionnaire for measuring nutrient intakes of Chinese adolescents. Proceedings of the Nutrition Society of Australia 21, 165.Google Scholar
Du, X, Greenfield, H, Fraser, DR & Ge, KY (1998) Prevalence of overweight and underweight among Chinese adolescents. Proceedings of the Nutrition Society 57, 125A.Google Scholar
Du, X, Greenfield, H, Fraser, DR & Ge, KY (1999) Food intake and bone mineral status of Beijing adolescent girls. Proceedings of the Nutrition Society 58, 65A.Google Scholar
Fehily, AM, Coles, RJ, Evans, WD & Elwood, PC (1992) Factors affecting bone density in young adults. American Journal of Clinical Nutrition 56, 579586.Google Scholar
Ferrari, S, Rizzoli, R, Chevalley, T, Slosman, D, Eisman, JA & Bonjour, JP (1995) Vitamin-D-receptor-gene polymorphisms and change in lumbar-spine bone mineral density. Lancet 345, 423424.Google Scholar
Ferrari, S, Rizzoli, R, Manen, D, Slosman, D & Bonjour, J-P (1998) Vitamin D receptor gene start codon polymorphisms (Fok1) and bone mineral density: interaction with age, dietary calcium, and 3′-end region polymorphisms. Journal of Bone and Mineral Research 13, 925930.Google Scholar
Finkelstein, JS, Neer, RM, Biller, BMK, Crawford, JD & Klibanski, A (1992) Osteopenia in men with a history of delayed puberty. New England Journal of Medicine 326, 600604.Google Scholar
Fleet, JC, Harris, SS, Wood, RJ & Dawson-Hughes, B (1995) The BsmI vitamin D receptor restriction fragment length polymorphism (BB) predicts low bone density in premenopausal black and white women. Journal of Bone and Mineral Research 10, 985990.CrossRefGoogle ScholarPubMed
Fraser, DR (1995) Vitamin D. Lancet 345, 104107.CrossRefGoogle ScholarPubMed
Friedlander, AL, Genant, HK, Sadowsky, S, Byl, NN & Glüer, CC (1995) A two-year program of aerobics and weight training enhances bone mineral density of young women. Journal of Bone and Mineral Research 10, 574585.CrossRefGoogle ScholarPubMed
Fujii, Y, Tsutsumi, M, Tsunenari, T, Fukase, M, Yoshimoto, Y, Fujita, T & Genant, HK (1989) Quantitative computed tomography of lumbar vertebrae in Japanese patients with osteoporosis. Bone and Mineral 6, 8794.CrossRefGoogle ScholarPubMed
Garnero, P, Borel, O, Sornay-Rendu, E, Arlot, ME & Delmas, PD (1996) Vitamin D receptor polymorphisms are not related to bone turnover, rate of bone loss, and bone mass in post-menopausal women: the OFELY study. Journal of Bone and Mineral Research 11, 827834.Google Scholar
Gilsanz, V (1998) Bone density in children: a review of the available techniques and indications. European Journal of Radiology 26, 177182.CrossRefGoogle ScholarPubMed
Gilsanz, V, Roe, TF, Mora, S, Costin, G & Goodman, WG (1991) Changes in vertebral density in black girls and white girls during childhood and puberty. New England Journal of Medicine 325, 15971600.Google Scholar
Glastre, C, Braillon, P, David, L, Cochat, P, Meunier, PJ & Delmas, PD (1990) Measurement of bone mineral content of the lumbar spine by dual energy X-ray absorptiometry in normal children: correlations with growth parameters. Journal of Clinical Endocrinology and Metabolism 70, 13301333.Google Scholar
Gleerup, A, Rossander-Hulthén, L, Gramatkovski, E & Hallberg, L (1995) Iron absorption from the whole diet: comparison of the effect of two different distributions of daily calcium intake. American Journal of Clinical Nutrition 61, 97104.Google Scholar
Greenfield, H, Du, X & Fraser, DR (1999) Why Australian milk for Chinese children? Dairy Research Foundation Symposium, 27–28 July, Camden. Current Topics in Dairy Production 4, 8694.Google Scholar
Grimston, SK, Willows, ND & Hanley, DA (1993) Mechanical loading regime and its relationship to bone mineral density in children. Medicine and Science in Sports and Exercise 25, 12031210.CrossRefGoogle ScholarPubMed
Gross, C, Eccleshall, TR, Malloy, PJ, Villa, ML, Marcus, R & Feldman, D (1996) The presence of a polymorphism at the translation initiation site of the vitamin D receptor gene is associated with low bone mineral density in postmenopausal Mexican-American women. Journal of Bone and Mineral Research 11, 18501855.CrossRefGoogle ScholarPubMed
Guéguen, R, Jouanny, P, Guillemin, F, Kuntz, C, Pourel, J & Siest, G (1995) Segregation analysis and variance components analysis of bone mineral density in healthy families. Journal of Bone and Mineral Research 10, 20172022.Google Scholar
Gunnes, M (1994) Bone mineral density in the cortical and trabecular distal forearm in healthy children and adolescents. Acta Paediatrica 83, 463467.Google Scholar
Gunnes, M & Lehmann, EH (1995) Dietary calcium, saturated fat, fiber and vitamin C as predictors of forearm cortical and trabecular bone mineral density in healthy children and adolescents. Acta Paediatrica 84, 388392.Google Scholar
Gunnes, M & Lehmann, EH (1996) Physical activity and dietary constituents as predictors of forearm cortical and trabecular bone gain in healthy children and adolescents: a prospective study. Acta Paediatrica 85, 1925.Google Scholar
Halioua, L & Anderson, JJB (1989) Lifetime calcium intake and physical activity habits: independent and combined effects on the radial bone of healthy premenopausal Caucasian women. American Journal of Clinical Nutrition 49, 534541.Google Scholar
Hallberg, L, Rossander-Hultén, L, Brune, M & Gleerup, A (1992) Calcium and iron absorption: mechanism of action and nutritional importance. European Journal of Clinical Nutrition 46, 317327.Google Scholar
Heaney, RP (1986) Calcium, bone health and osteoporosis. In Bone and Mineral Research, vol. 4, pp. 255301 [Peck, WA editor]. Amsterdam: Elsevier Science Publishers B.V..Google Scholar
Heaney, RP (1993) Nutritional factors in osteoporosis. Annual Review of Nutrition 13, 287316.Google Scholar
Heaney, RP (1993) Protein intake and the calcium economy. Journal of the American Dietetic Association 93, 12591260.Google Scholar
Heaney, RP (1998) Excess dietary protein may not adversely affect bone. Journal of Nutrition 128, 10541057.CrossRefGoogle Scholar
Hegsted, M, Schuette, SA, Zemel, MB & Linkswiler, HM (1981) Urinary calcium and calcium balance in young men as affected by level of protein and phosphorus intake. Journal of Nutrition 111, 553562.Google Scholar
Henderson, NK, Price, RI, Cole, JH, Gutteridge, DH & Bhagat, CI (1995) Bone density in young women is associated with body weight and muscle strength but not dietary intakes. Journal of Bone and Mineral Research 10, 384393.Google Scholar
Hetland, ML, Haarbo, J & Christiansen, C (1993) Running induces menstrual disturbances but bone mass is unaffected, except in amenorrheic women. American Journal of Medicine 95, 5360.Google Scholar
Hui, SL, Slemenda, CW & Johnston, CC (1989) Baseline measurement of bone mass predicts fracture in white women. Annals of Internal Medicine 111, 355361.CrossRefGoogle ScholarPubMed
Ilich, JZ, Badenhop, NE, Jelic, T, Clairmont, AC, Nagode, LA & Matkovic, V (1997) Calcitriol and bone mass accumulation in females during puberty. Calcified Tissue International 61, 104109.Google Scholar
Ilich, JZ, Hangartner, TN, Skugo, M, Roche, AF, Goel, PK & Matkovic, V (1996) Skeletal age as a determinant of bone mass in preadolescent females. Skeletal Radiology 25, 431439.CrossRefGoogle ScholarPubMed
Ilich, JZ, Skugor, M, Hangartner, T, Baoshe, A & Matkovic, V (1998) Relation of nutrition, body composition and physical activity to skeletal development: a cross-sectional study in preadolescent females. Journal of the American College of Nutrition 17, 136147.Google Scholar
Infante, D & Tormo, R (2000) Risk of inadequate bone mineralization in diseases involving long-term suppression of dairy products. Journal of Paediatric Gastroenterology and Nutrition 30, 310313.Google ScholarPubMed
Ito, M, Yamada, M, Hayashi, K, Ohki, M, Uetani, M & Nakamura, T (1995) Relation of early menarche to high bone mineral density. Calcified Tissue International 57, 1114.Google Scholar
Jackman, LA, Millane, SS, Martin, BR, Wood, OB, McCabe, GP & Weaver, CM (1997) Calcium retention in relation to calcium intake and postmenarcheal age in adolescent females. American Journal of Clinical Nutrition 66, 327333.CrossRefGoogle ScholarPubMed
Johnston, CC, Miller, JZ, Slemenda, CW, Reister, TK, Hui, S, Christian, JC & Peacock, M (1992) Calcium supplementation and increases in bone mineral density in children. New England Journal of Medicine 327, 8287.Google Scholar
Jones, G & Dwyer, T (1998) Bone mass in prepubertal children: gender differences and the role of physical activity and sunlight exposure. Journal of Clinical Endocrinology and Metabolism 83, 42744279.Google ScholarPubMed
Jouanny, P, Guillemin, F, Kuntz, C, Jeandel, C & Pourel, J (1995) Environmental and genetic factors affecting bone mass. Arthritis and Rheumatism 38, 6167.CrossRefGoogle ScholarPubMed
Kannus, P, Haapasalo, H, Sankelo, M, Sievänen, H, Pasanen, M, Heinonen, A, Oja, P & Vuori, I (1995) Effect of starting age of physical activity on bone mass in the dominant arm of tennis and squash players. Annals of Internal Medicine 123, 2731.Google Scholar
Kardinaal, AFM, Ando, S, Charles, P, Charzewska, J, Rotily, M, Väänänen, K, Van Erp-Baart, AMJ, Heikkinen, J, Thomsen, J, Maggiolini, M, Deloraine, A, Chabros, E, Juvin, R & Schaafsma, G (1999) Dairy calcium and bone density in adolescent girls and young women in Europe. Journal of Bone and Mineral Research 14, 583592.CrossRefGoogle Scholar
Kardinaal, AFM, Hoorneman, G, Vaananen, K, Chalres, P, Ando, S, Maggiolini, M, Charzewska, J, Rotily, M, Deloraine, A, Heikkinen, J, Juvin, R & Schaafsma, G (2000) Determinants of bone mass and bone geometry in adolescent and young adult women. Calcified Tissue International 66, 8189.Google Scholar
Katzman, DK, Bachrach, LK, Carter, DR & Marcus, R (1991) Clinical and anthropometric correlates of bone mineral acquisition in healthy adolescent girls. Journal of Clinical Endocrinology and Metabolism 73, 13321339.Google Scholar
Keen, RW, Major, PJ, Lanchbury, JS & Spector, TD (1995) Vitamin-D-receptor-gene polymorphism and bone loss. Lancet 345, 990.CrossRefGoogle ScholarPubMed
Kerstetter, JE (1995) Do dairy products improve bone density in adolescent girls? Nutrition Reviews 53, 328332.Google Scholar
Kerstetter, JE, Looker, AC & Insogna, KL (2000) Low dietary protein and low bone density. Calcified Tissues International 66, 313.Google Scholar
Kleerekoper, M (1996) Biochemical markers of bone remodelling. American Journal of Medical Sciences 312, 270277.Google Scholar
Kobayashi, S, Inoue, S, Hosoi, T, Ouchi, Y, Shiraki, M & Orimo, H (1996) Association of bone mineral density with polymorphism of the estrogen receptor gene. Journal of Bone and Mineral Research 11, 306311.Google Scholar
Krall, EA & Dawson-Hughes, B (1993) Heritable and life-style determinants of bone mineral density. Journal of Bone and Mineral Research 8, 19.Google Scholar
Kristinsson, JO, Valdimarsson, O, Sigurdsson, G, Franzson, L, Olafson, I & Steingrimsdottir, L (1998) Serum 25-hydroxyvitamin D levels and bone mineral density in 16–20 years-old girls: lack of association. Journal of Internal Medicine 243, 381388.Google Scholar
Kröger, H, Kotaniemi, A, Kröger, L & Alhava, E (1993) Development of bone mass and bone density of the spine and femoral neck – a prospective study of 65 children and adolescents. Bone and Mineral 23, 171182.Google Scholar
Kröger, H, Kotaniemi, A, Vainio, P & Alhava, E (1992) Bone densitometry of the spine and femur in children by dual-energy x-ray absorptiometry. Bone and Mineral 17, 7585.Google Scholar
Kung, AWC, Luk, KDK, Chu, LW & Chiu, PKY (1998) Age-related osteoporosis in Chinese: an evaluation of the response of intestinal calcium absorption and calcitropic hormones to dietary calcium deprivation. American Journal of Clinical Nutrition 68, 12911297.Google Scholar
Lanyon, LE (1986) Biomechanical factors in adaptation of bone structure to function. In Current Concepts of Bone Fragility, pp. 1834 [Uhthoff, HK, editor]. New York, NY: Springer-Verlag.Google Scholar
Lanyon, LE (1987) Functional strain in bone tissue as an objective, and controlling stimulus for adaptive bone remodelling. Journal of Biomechanics 20, 10831093.Google Scholar
Lau, EMC & Cooper, C (1996) The epidemiology of osteoporosis. Clinical Orthopaedics and Related Research 323, 6574.Google Scholar
Lau, EMC, Lee, WTK, Leung, S & Cheng, J (1992) Milk supplementation – a feasible and effective way to enhance bone gain for Chinese adolescents in Hong Kong? Journal of Applied Nutrition 44, 1621.Google Scholar
Lee, WTK, Leung, SSF, Fairweather-Tait, SJ, Leung, DMY, Tsang, HSY, Eagles, J, Fox, T, Wang, SH, Xu, YC, Zeng, WP, Lau, J & Masarei, JRL (1994 a) True fractional calcium absorption in Chinese children measured with stable isotopes (42Ca and 44Ca). British Journal of Nutrition 72, 883897.Google Scholar
Lee, WTK, Leung, SSF, Leung, DMY & Cheng, JCY (1996) A follow-up study on the effects of calcium-supplement withdrawal and puberty on bone acquisition of children. American Journal of Clinical Nutrition 64, 7177.Google Scholar
Lee, WTK, Leung, SSF, Leung, DMY, Tsang, HSY, Lau, J & Cheng, JCY (1995 a) A randomized double-blind controlled calcium supplementation trial, and bone and height acquisition in children. British Journal of Nutrition 74, 125139.Google Scholar
Lee, WTK, Leung, SSF, Leung, DMY, Wang, SH, Xu, YC, Zeng, WP & Cheng, JCY (1997) Bone mineral acquisition in low calcium intake children following the withdrawal of calcium supplement. Acta Paediatrica 86, 570576.Google Scholar
Lee, WTK, Leung, SSF, Wang, SH, Xu, YC, Zeng, WP, Lau, J, Oppenheimer, SJ & Cheng, JCY (1994 b) Double-blind, controlled calcium supplementation and bone mineral accretion in children accustomed to a low-calcium diet. American Journal of Clinical Nutrition 60, 744750.Google Scholar
Lee, WTK, Leung, SSF, Xu, YC, Wang, SH, Zeng, WP, Lau, J & Fairweather Tait, SJ (1995 b) Effects of double-blind controlled calcium supplementation on calcium absorption in Chinese children measured with stable isotopes (42Ca and 44Ca). British Journal of Nutrition 73, 311321.Google Scholar
Lehtonen-Veromaa, M, Mottonen, T, Iriala, K, Karkkainen, M, Lamberg-Allardt, C, Hakola, P & Viikari, J (1999) Vitamin D intake is low and hypovitaminosis D common in healthy 9- to 15-year-old Finnish girls. European Journal of Clinical Nutrition 53, 746751.Google Scholar
Leuenberger, PK, Buchanan, JR, Myers, CA, Lloyd, T & Demers, LM (1989) Determination of peak trabecular bone density: interplay of dietary fiber, carbohydrate, and androgens. American Journal of Clinical Nutrition 50, 955961.Google Scholar
Lindsay, R, Hart, DM, Maclean, A, Clark, AC, Kraszewski, A & Garwood, J (1978) Bone response to termination of oestrogen treatment. Lancet 1, 13251327.Google Scholar
Lloyd, T, Andon, MB, Rollings, N, Martel, JK, Landis, JR, Demers, LM, Eggli, DF, Kieselhorst, K & Kulin, HE (1993) Calcium supplementation and bone mineral density in adolescent girls. Journal of the American Medical Association 270, 841844.CrossRefGoogle ScholarPubMed
Lloyd, T, Chinchilli, VM, Eggli, DF, Rollings, N & Kulin, HE (1998) Body composition development of adolescent white females: the Penn State Young Women's Health Study. Archives of Pediatrics and Adolescent Medicine 152, 9981002.Google Scholar
Lloyd, T, Martel, JK, Rollings, N, Andon, MB, Kulin, H, Demers, LM, Eggli, DF, Kieselhorst, K & Chinchilli, VM (1996 a) The effect of calcium supplementation and Tanner stage on bone density, content and area in teenage women. Osteoporosis International 6, 276283.Google Scholar
Lloyd, T, Rollings, N, Andon, MB, Eggli, DF, Mauger, E & Chinchilli, V (1996 b) Enhanced bone gain in early adolescence due to calcium supplementation does not persist in late adolescence. Journal of Bone and Mineral Research 11, Suppl. 1, S154 Abstr.Google Scholar
Lonzer, MD, Imrie, R, Rogers, D, Worley, D, Licata, A & Secic, M (1996) Effects of heredity, age, weight, puberty, activity, and calcium intake on bone mineral density in children. Clinical Pediatrics 35, 185189.Google Scholar
Lorentzon, M, Lorentzon, R, Backstrom, T & Nordstrom, P (1999) Estrogen receptor gene polymorphism, but not estradiol levels, is related to bone density in healthy adolescent boys: a cross-sectional and longitudinal study. Journal of Clinical Endocrinology and Metabolism 84, 45974601.Google Scholar
Lu, PW, Cowell, CT, Lloyd-Jones, SA, Briody, JN & Howman-Giles, R (1996) Volumetric bone mineral density in normal subjects aged 5–27 years. Journal of Clinical Endocrinology and Metabolism 81, 15861590.Google Scholar
Lulseged, S & Fitwi, G (1999) Vitamin D deficiency rickets: socio-demographic and clinical risk factors in children seen at a referral hospital in Addis Ababa. East African Medical Journal 76, 457461.Google Scholar
Manzoni, P, Brambilla, P, Pietrobelli, A, Beccaria, L, Bianchessi, A, Mora, S & Chiumello, G (1996) Influence of body composition on bone mineral content in children and adolescents. American Journal of Clinical Nutrition 64, 603607.Google Scholar
Marks, SC & Hermey, DC (1996) The structure and development of bone. In Principles of Bone Biology, pp. 324 [Bilezikian, JP, Raisz, LG and Rodan, GA editors]. San Diego, CA: Academic Press.Google Scholar
Marti-Henneberg, C & Vizmanos, B (1997) The duration of puberty in girls is related to the timing of its onset. Journal of Paediatrics 131, 618621.Google Scholar
Martin, AD, Bailey, DA, McKay, HA & Whiting, S (1997) Bone mineral and calcium accretion during puberty. American Journal of Clinical Nutrition 66, 611615.Google Scholar
Matkovic, V, Fontana, D, Tominac, C, Goel, P & Chesnut, CH (1990) Factors that influence peak bone mass formation: a study of calcium balance and the inheritance of bone mass in adolescent females. American Journal of Clinical Nutrition 52, 878888.Google Scholar
Matkovic, V & Heaney, RP (1992) Calcium balance during human growth: evidence for threshold behaviour. American Journal of Clinical Nutrition 55, 992996.CrossRefGoogle Scholar
Miyao, M, Hosoi, T, Inoue, S, Hoshino, S, Shiraki, M, Orimo, H & Ouchi, Y (1998) Polymorphism of insulin-like growth factor 1 gene and bone mineral density. Calcified Tissue International 63, 306311.CrossRefGoogle ScholarPubMed
Moro, M, Van der Meulen, MCH, Kiratli, BJ, Marcus, R, Bachrach, LK & Carter, DR (1996) Body mass is the primary determinant of midfemoral bone acquisition during adolescent growth. Bone 19, 519526.Google Scholar
Morris, FL, Naughton, GA, Gibbs, JL, Carlson, JS & Wark, JD (1997) Prospective ten-month exercise intervention in premenarcheal girls: positive effects on bone and lean mass. Journal of Bone and Mineral Research 14, 14531462.Google Scholar
Morrison, NA, Qi, JC, Tokita, A, Kelly, PJ, Crofts, L, Nguyen, TV, Sambrook, PN & Eisman, JA (1994) Prediction of bone density by vitamin D receptor alleles. Nature 367, 284287.Google Scholar
Murphy, S, Khaw, KT, May, H & Compston, JE (1994) Milk consumption and bone mineral density in middle aged and elderly women. British Medical Journal 308, 939941.Google Scholar
Nelson, DA & Barondess, DA (1997) Whole body bone, fat and lean mass in children: comparison of three ethnic groups. American Journal of Physical Anthropology 103, 157162.3.0.CO;2-R>CrossRefGoogle ScholarPubMed
Nelson, DA, Simpson, PM, Johnson, CC, Barondess, DA & Kleerekoper, M (1997) The accumulation of whole body skeletal mass in third- and fourth-grade children: effects of age, gender, ethnicity, and body composition. Bone 20, 7378.Google Scholar
New, SA, Bolton-Smith, C, Grubb, DA & Reid, DM (1997) Nutritional influences on bone mineral density: a cross-sectional study in premenopausal women. American Journal of Clinical Nutrition 65, 18311839.Google Scholar
New, SA, Ferns, G & Starkey, B (1998) Milk intake and bone mineral acquisition in adolescent girls – Increases in bone density may be result of micronutrients in additional cereal. British Medical Journal 316, 1747.Google Scholar
New, SA, Robins, SP, Campbell, MK, Martin, JC, Garton, MJ, Bolton-Smith, C, Grubb, DA, Lee, SJ & Reid, DM (2000) Dietary influences on bone mass and bone metabolism: further evidence of a positive link between fruit and vegetable consumption and bone health? American Journal of Clinical Nutrition 71, 142151.Google Scholar
Nowson, CA, Green, RM, Hopper, JL, Sherwin, AJ, Young, D, Kaymakci, B, Guest, CS, Smid, M, Larkins, RG & Wark, JD (1997) A co-twin study of the effect of calcium supplementation on bone density during adolescence. Osteoporosis International 7, 219225.Google Scholar
O'Brien, KO, Abrams, SA, Liang, LK, Ellis, KJ & Gagel, RF (1998) Bone turnover response to changes in calcium intake is altered in girls and adult women in families with histories of osteoporosis. Journal of Bone and Mineral Research 13, 491499.Google Scholar
Ongphiphadhanakul, B, Rajatanavin, R, Chanprasertyothin, S, Piaseu, N, Chailurkit, L, Sirisriro, R & Komindr, S (1998) Estrogen receptor gene polymorphism is associated with bone mineral density in premenopausal women but not in postmenopausal women. Journal of Endocrinological Investigation 21, 487493.Google Scholar
Ott, SM (1991) Bone mineral density in adolescents. New England Journal of Medicine 325, 16461647.Google Scholar
Parfitt, AM (1987) Bone and plasma calcium homeostasis. Bone 8, Suppl. 1, S1S8.Google Scholar
Parfitt, AM (1994) The two faces of growth: benefits and risks to bone integrity. Osteoporosis International 4, 382398.Google Scholar
Pettifor, JM & Moodley, GP (1997) Appendicular bone mass in children with a high prevalence of low dietary calcium intakes. Journal of Bone and Mineral Research 14, 18241832.Google Scholar
Pocock, NA, Eisman, JA, Hopper, JL, Yeates, MG, Sambrook, PN & Eberl, S (1987) Genetic determinants of bone mass in adults. Journal of Clinical Investigation 80, 706710.Google Scholar
Pollitzer, WS & Anderson, JJB (1989) Ethnic and genetic differences in bone mass: a review with a hereditary vs environmental perspective. American Journal of Clinical Nutrition 50, 12441259.Google Scholar
Ponder, SW (1995) Clinical use of bone densitometry in children: are we ready yet? Clinical Pediatrics 34, 237239.Google Scholar
Price, JS, Oyajobi, BO & Russell, RGG (1994) The cell biology of bone growth. European Journal of Clinical Nutrition 48, Suppl. 1, S131S149.Google Scholar
Prior, JC, Vigna, YM, Schechter, MT & Burgess, AE (1990) Spinal bone loss and ovulatory disturbances. New England Journal of Medicine 323, 12211227.Google Scholar
Recker, RR, Davies, KM, Hinders, SM, Heaney, RP, Stegman, MR & Kimmel, DB (1992) Bone gain in young adult women. Journal of the American Medical Association 268, 24032408.Google Scholar
Reddy, MB & Cook, JD (1997) Effect of calcium intake on nonheme-iron absorption from a complete diet. American Journal of Clinical Nutrition 65, 18201825.Google Scholar
Reid, IR (1998) The role of calcium and vitamin D in the prevention of osteoporosis. Endocrinology and Metabolism Clinics of North America 27, 389398.Google Scholar
Renner, E (1994) Dairy calcium, bone metabolism, and prevention of osteoporosis. Journal of Dairy Science 77, 34983505.Google Scholar
Rice, S, Blimkie, CJR, Webber, CE, Levy, D, Martin, J, Parker, D & Gordon, CL (1993) Correlates and determinants of bone mineral content and density in healthy adolescent girls. Canadian Journal of Physiology and Pharmacology 71, 923930.Google Scholar
Rico, H, Reville, M, Villa, LF, Hernandez, ER, Alvarez de Buergo, M & Villa, M (1993) Body composition in children and Tanner's stages: a study with dual-energy X-ray absorptiometry. Metabolism 42, 967970.Google Scholar
Riggs, BL & Melton, LJ (1988) Osteoporosis and age-related fracture syndromes. Ciba Foundation Symposium 134, 129142.Google Scholar
Riggs, BL & Melton, LJ (1992) The prevention and treatment of osteoporosis. New England Journal of Medicine 327, 620627.Google Scholar
Riggs, BL, Nguyen, TV, Melton, LJ, Morrison, NA, O'Fallon, WM, Kelly, PJ, Egan, KS, Sambrook, PN, Muhs, JM & Eisman, JA (1995) The contribution of vitamin D receptor gene alleles to the determination of bone mineral density in normal and osteoporotic women. Journal of Bone and Mineral Research 10, 991996.Google Scholar
Robins, SP & New, SA (1997) Markers of bone turnover in relation to bone health. Proceedings of the Nutrition Society 56, 903914.Google Scholar
Ross, RJM & Buchanan, CR (1990) Growth hormone secretion: its regulation and the influence of nutritional factors. Nutrition Research Reviews 3, 143162.Google Scholar
Rubin, K, Schirduan, V, Gendreau, P, Sarfarazi, M, Mendola, R & Dalsky, G (1993) Predictors of axial and peripheral bone mineral density in healthy children and adolescents, with special attention to the role of puberty. Journal of Pediatrics 123, 863870.Google Scholar
Ruiz, JC, Mandel, C & Garabedian, M (1995) Influence of spontaneous calcium intake and physical exercise on the vertebral and femoral bone mineral density of children and adolescents. Journal of Bone and Mineral Research 10, 675682.Google Scholar
Sabatier, JP, Guaydier-Souquières, G, Laroche, D, Benmalek, A, Fournier, L, Guillon-Metz, F, Delavenne, J & Denis, AY (1996) Bone mineral acquisition during adolescence and early adulthood: a study in 574 healthy females 10–24 years of age. Osteoporosis International 6, 141148.Google Scholar
Saggese, G, Bertelloni, S & Baroncelli, GI (1997) Sex steroids and the acquisition of bone mass. Hormone Research 48, Suppl. 5, 6571.Google Scholar
Sainz, J, Turnout, JM, Loro, ML, Sayre, J, Roe, TF & Gilsanz, V (1997) Vitamin D-receptor gene polymorphisms and bone density in prepubertal American girls of Mexican descent. New England Journal of Medicine 337, 7782.Google Scholar
Salamone, LM, Glynn, NW, Black, DM, Ferrell, RE, Palermo, L, Epstein, RS, Kuller, LH & Cauley, JA (1996) Determinants of premenopausal bone mineral density: the interplay of genetic and lifestyle factors. Journal of Bone and Mineral Research 11, 15571565.Google Scholar
Sandler, RB, Slemenda, CW, LaPorte, RE, Cauley, JA, Schramm, MM, Barresi, ML & Kriska, AM (1985) Postmenopausal bone density and milk consumption in childhood and adolescence. American Journal of Clinical Nutrition 42, 270274.Google Scholar
Schönau, E (1998) Problems of bone analysis in childhood and adolescence. Paediatric Nephrology 14, 420429.Google Scholar
Schönau, E, Werhahn, E, Schiedermaier, U, Mokow, E, Schiessl, H, Scheidhauer, K & Michalk, D (1996) Influence of muscle strength on bone strength during childhood and adolescence. Hormone Research 45, Suppl. 1, 6366.Google Scholar
Schuette, SA & Linkswiler, HM (1982) Effects on Ca and P metabolism in humans by adding meat, meat plus milk, or purified proteins plus Ca and P to a low protein diet. Journal of Nutrition 112, 338349.Google Scholar
Scrimshaw, NS & Murray, EB (1988) The acceptability of milk and milk products in populations with a high prevalence of lactose intolerance. American Journal of Clinical Nutrition 48, Suppl. 4, 10791159.Google Scholar
Seeman, E (1997) From density to structure: growing up and growing old on the surfaces of bone. Journal of Bone and Mineral Research 14, 509521.Google Scholar
Seeman, E & Hopper, JL (1997) Genetic and environmental components of the population variance in bone density. Osteoporosis International 7, Suppl. 3, S10S16.Google Scholar
Seeman, E, Hopper, JL, Bach, LA, Cooper, ME, Parkinson, E, McKay, J & Jerums, G (1989) Reduced bone mass in daughters of women with osteoporosis. New England Journal of Medicine 320, 554558.Google Scholar
Sentipal, JM, Wardlaw, GM, Mahan, J & Matkovic, V (1991) Influence of calcium intake and growth indexes on vertebral bone mineral density in young females. American Journal of Clinical Nutrition 54, 425428.Google Scholar
Slemenda, CW (1995) Editorial: body composition and skeletal density – mechanical loading or something more? Journal of Clinical Endocrinology and Metabolism 80, 17611763.Google Scholar
Slemenda, CW, Miller, JZ, Hui, SL, Reister, TK & Johnston, CC (1991) Role of physical activity in the development of skeletal mass in children. Journal of Bone and Mineral Research 6, 12271233.Google Scholar
Slemenda, CW, Peacock, M, Hui, S, Zhou, L & Johnston, CC (1997) Reduced rates of skeletal remodeling are associated with increased bone mineral density during the development of peak skeletal mass. Journal of Bone and Mineral Research 14, 676682.Google Scholar
Slemenda, CW, Reister, TK, Hui, SL, Miller, JZ, Christian, JC & Johnson, CC (1994) Influences on skeletal mineralization in children and adolescents: evidence for varying effects of sexual maturation and physical activity. Journal of Pediatrics 125, 201207.Google Scholar
Slootweg, MC (1993) Growth hormone and bone. Hormone and Metabolic Research 25, 335343.Google Scholar
Slosman, DO, Rizzoli, R & Bonjour, JP (1995) Bone absorptiometry: a critical appraisal of various methods. Acta Paediatrica Suppl. 411, 911.Google Scholar
Smith, R (1993) Bone mineral. In Human Nutrition and Dietetics, pp. 162–173 [Garrow, JS and James, WPT editors]. Edinburgh: Churchill Livingstone.Google Scholar
Smith, DM, Nance, WE, Kang, KW, Christian, JC & Johnston, CC (1973) Genetic factors in determining bone mass. Journal of Clinical Investigation 52, 28002808.Google Scholar
Snow-Harter, C, Bouxsein, ML, Lewis, BT, Carter, DR & Marcus, R (1992) Effects of resistance and endurance exercise on bone mineral status of young women: a randomized exercise intervention trial. Journal of Bone and Mineral Research 7, 761769.Google Scholar
Spector, TD, Keen, RW, Arden, NK, Morrison, NA, Major, PJ, Nguyen, TV, Kelly, PJ, Baker, JR, Sambrook, PN, Lanchbury, JS & Eisman, JA (1995) Influence of vitamin D receptor genotype on bone mineral density in postmenopausal women: a twin study in Britain. British Medical Journal 310, 13571360.Google Scholar
Spencer, H, Kramer, L, Rubio, N & Osis, D (1986) The effect of phosphorus on endogenous fecal calcium excretion in man. American Journal of Clinical Nutrition 43, 844851.Google Scholar
Stracke, H, Renner, E, Knie, G, Leidig, G, Minne, H & Federlin, K (1993) Osteoporosis and bone metabolic parameters in dependence upon calcium intake through milk and milk products. European Journal of Clinical Nutrition 47, 617622.Google Scholar
Suarez, FL, Savaiano, DA & Levitt, MD (1995) A comparison of symptoms after the consumption of milk or lactose-hydrolyzed milk by people with self-reported severe lactose intolerance. New England Journal of Medicine 333, 14.Google Scholar
Taaffe, DR, Robinson, TL, Snow, CM & Marcus, R (1997) High-impact exercise promotes bone gain in well-trained female athletes. Journal of Bone and Mineral Research 14, 255260.Google Scholar
Takacs, I, Koller, DL, Peacock, M, Christian, JC, Hui, SL, Conneally, PM, Johnston, CC, Foroud, T & Econs, MJ (1999) Sibling pair linkage and association studies between bone mineral density and the insulin-like growth factor 1 gene locus. Journal of Clinical Endocrinology and Metabolism 84, 44674471.Google Scholar
Takahashi, Y, Minamitani, K, Kobayashi, Y, Minagawa, M, Yasuda, T & Niimi, H (1996) Spinal and femoral bone mass accumulation during normal adolescence: comparison with female patients with sexual precocity and with hypogonadism. Journal of Clinical Endocrinology and Metabolism 81, 12481253.Google Scholar
Teegarden, D, Lyle, RM, McCabe, GP, McCabe, LD, Proulx, WR, Michon, K, Knight, AP, Johnston, CC & Weaver, CM (1998) Dietary calcium, protein, and phosphorus are related to bone mineral density and content in young women. American Journal of Clinical Nutrition 68, 749754.Google Scholar
Teegarden, D, Lyle, RM, Proulx, WR, Johnston, CC & Weaver, CM (1999) Previous milk consumption is associated with greater bone density in young women. American Journal of Clinical Nutrition 69, 10141017.Google Scholar
Teegarden, D, Proulx, WR, Kern, M, Sedlock, D, Weaver, CM, Johnston, CC & Lyle, RM (1996) Previous physical activity relates to bone mineral measures in young women. Medicine and Science in Sports and Exercise 28, 105113.Google Scholar
Theintz, G, Buchs, B, Rizzoli, R, Slosman, D, Clavien, H, Sizonenko, PC & Bonjour, JP (1992) Longitudinal monitoring of bone mass accumulation in healthy adolescents: evidence for a marked reduction after 16 years of age at the levels of lumbar spine and femoral neck in female subjects. Journal of Clinical Endocrinology and Metabolism 75, 10601065.Google Scholar
Tidehag, P, Sandberg, AS, Hallmans, G, Wing, K, Turk, M, Holm, S & Grahn, E (1995) Effect of milk and fermented milk on iron absorption in ileostomy subjects. American Journal of Clinical Nutrition 62, 12341238.Google Scholar
Tokita, A, Matsumoto, H, Morrison, NA, Tawa, T, Miura, Y, Fukamauchi, K, Mitsuhashi, N, Irimoto, M, Yamamori, S, Miura, M, Watanabe, T, Kuwabara, Y, Yabuta, K & Eisman, JA (1996) Vitamin D receptor alleles, bone mineral density and turnover in premenopausal Japanese women. Journal of Bone and Mineral Research 11, 10031009.Google Scholar
Trotter, M, Broman, GE & Peterson, RR (1960) Densities of bone of white and negro skeletons. Journal of Bone and Joint Surgery 42, 5058.Google Scholar
Tucker, KL, Hannan, MT, Chen, H, Cupples, A, Wilson, PWF & Kiel, DP (1999) Potassium and fruit and vegetables are associated with greater bone mineral density in elderly men and women. American Journal of Clinical Nutrition 69, 727736.Google Scholar
Turner, JG, Gilchrist, NL, Ayling, EM, Hassall, AJ, Hooke, EA & Sadler, WA (1992) Factors affecting bone mineral density in high school girls. New Zealand Medical Journal 105, 9596.Google Scholar
Uitterlinden, AG, Pols, HAP, Burger, H, Huang, Q, van Daele, PLA, van Duijn Hofman, A, Birkenhager, JC & van Leeuwen, JPTM (1996) A large-scale population-based study of the association of vitamin D receptor polymorphisms with bone mineral density. Journal of Bone and Mineral Research 11, 12411248.Google Scholar
Ulrich, CM, Georgiou, CC, Snow-Harter, CM & Gillis, DE (1996) Bone mineral density in mother-daughter pairs: relations to lifetime exercise, lifetime milk consumption, and calcium supplements. American Journal of Clinical Nutrition 63, 7279.Google Scholar
Uusi-Rasi, K, Haapasalo, H, Kannus, P, Pasanen, M, Sievänen, H, Oja, P & Vuori, I (1997) Determinants of bone mineralization in 8 to 20 year old Finnish females. European Journal of Clinical Nutrition 51, 5459.Google Scholar
Välimäki, MJ, Kärkkäinen, M, Lamberg-Allardt, C, Laitinen, K, Alhava, E, Heikkinen, J, Impivaara, O, Mäkelä, P, Palmgren, J, Seppänen, R, Vuori, I and the Cardiovascular Risk in Young Finns Study Group (1994) Exercise, smoking, and calcium intake during adolescence and early adulthood as determinants of peak bone mass. British Medical Journal 309, 230235.Google Scholar
Wasnich, RD, Ross, PD, Davis, JW & Vogel, JM (1989) A comparison of single and multi-site BMC measurements for assessment of spine fracture probability. Journal of Nuclear Medicine 30, 11661171.Google Scholar
Weaver, CM, Heaney, RP, Nickel, KP & Packard, PI (1997) Calcium bioavailability from high oxalate vegetables: Chinese vegetables, sweet potatoes and rhubarb. Journal of Food Science 62, 524525.Google Scholar
Webb, AR, Kline, L, Chen, TC & Holick, MF (1988) Influence of season and latitude on the cutaneous synthesis of vitamin D3: exposure to winter sunlight in Boston and Edmonton will not promote vitamin D3 synthesis in human skin. Journal of Clinical Endocrinology and Metabolism 67, 373378.Google Scholar
Weichetova, M, Stepan, JJ, Michalska, D, Haas, T, Pols, HA & Uitterlinden, AG (2000) COLIA 1 polymorphism contributes to bone mineral density to assess prevalent wrist fractures. Bone 26, 287290.Google Scholar
Wical, KE & Brussee, P (1979) Effects of a calcium and vitamin D supplement on alveolar ridge resorption in immediate denture patients. Journal of Prosthetic Dentistry 41, 411.Google Scholar
Xu, L, Lu, A, Zhao, X, Chen, X & Cummings, SR (1996) Very low rates of hip fracture in Beijing, People's Republic of China. The Beijing Osteoporosis Project. American Journal of Epidemiology 144, 901907.Google Scholar
Young, D, Hopper, JL, Nowson, CA, Green, RM, Sherwin, AJ, Kaymakci, B, Smid, M, Guest, CS, Larkins, RG & Wark, JD (1995) Determinants of bone mass in 10- to 26-year-old females: a twin study. Journal of Bone and Mineral Research 10, 558567.Google Scholar
Zamora, SA, Rizzoli, R, Belli, DC, Slosman, DO & Bonjour, JP (1999) Vitamin D supplementation during infancy is associated with higher bone mineral mass in prepubertal girls. Journal of Clinical Endocrinology and Metabolism 84, 45414544.Google Scholar
Zhu, K, Du, X, Greenfield, H & Fraser, DR (2000) Milk supplementation and bone mineral acquisition in Chinese adolescent girls: preliminary results after one year. Proceedings of the Nutrition Society of Australia 24, 123.Google Scholar
Zhu, K, Greenfield, H, Du, X & Fraser, DR (2000) Bone bio-markers of Chinese school children. Asian-Australasian Journal of Animal Sciences 13, Suppl., 205.Google Scholar
Zittermann, A, Scheid, K & Stehle, P (1998) Seasonal variations in vitamin D status and calcium absorption do not influence bone turnover in young women. European Journal of Clinical Nutrition 52, 501506.Google Scholar