BODY-FAT AND FAT-FREE MASS IN INFANTS - NEW AND CLASSIC ANTHROPOMETRIC INDEXES AND PREDICTION EQUATIONS COMPARED WITH TOTAL-BODY ELECTRICAL-CONDUCTIVITY

被引:57
作者
DEBRUIN, NC
VANVELTHOVEN, KA
STIJNEN, T
JUTTMANN, RE
DEGENHART, HJ
VISSER, HK
机构
[1] ERASMUS UNIV ROTTERDAM,DEPT PEDIAT,3000 DR ROTTERDAM,NETHERLANDS
[2] ERASMUS UNIV ROTTERDAM,DEPT EPIDEMIOL & BIOSTAT,3000 DR ROTTERDAM,NETHERLANDS
[3] ROTTERDAM HOME CARE FDN,ROTTERDAM,NETHERLANDS
关键词
ANTHROPOMETRY; BODY COMPOSITION; BODY FAT; INFANTS; NUTRITIONAL ASSESSMENT; SKINFOLD THICKNESS; TOTAL-BODY ELECTRICAL CONDUCTIVITY; TOBEC; PREDICTION EQUATIONS;
D O I
10.1093/ajcn/61.6.1195
中图分类号
R15 [营养卫生、食品卫生]; TS201 [基础科学];
学科分类号
100403 ;
摘要
Anthropometry is frequently used for nutritional assessment. Little is known in infants about the validity of anthropometric measurements in relation to whole-body fat (TBF) and fat-free mass (FFM) composition. We compared TBF and FFM estimations by total-body electrical conductivity (TOBEC) with anthropometry in 435 healthy infants ages 21-365 d. TBF was best correlated with weight-for-length and calf circumference (r(2) = 0.84, r(2) = 0.83). FFM was best correlated with body weight (r(2) = 0.93). Upper-arm, anthropometry, skinfold thickness, and Quetelet's and Ponderal indexes were poorly correlated with TBF and FFM (r(2) < 0.65). New anthropometry-based prediction equations were calculated (r(2) = 0.90 for TBF and r(2) = 0.95 for FFM). New simple indexes (analogous to Quetelet's index) were calculated for TBF (weight X calf circumference/length; r(2) = 0.87) and for FFM (root weight X length; r(2) = 0.95). Prediction equations and indexes were cross-validated in a second population by a second observer. Interobserver variation was largest for equations with skinfold thicknesses included. We conclude that anthropometry can be used for rough estimations of infant body composition, although indexes different than those used in children and adults are preferred.
引用
收藏
页码:1195 / 1205
页数:11
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  • [1] Fiorotto M.L., Cochran W.J., Klish W.J., Fat-free mass and total body water of infants estimated from total body electrical conductivity measurements, Pediatr Res, 22, pp. 417-421, (1987)
  • [2] Fiorotto M.L., Measurements of total body electrical conductivity for the estimation of fat and fat-free mass, New Techniques in Nutrition Research, pp. 281-301, (1991)
  • [3] De Bruin N.C., Van Velthoven C.A.M., Brugman R., Degenhart H.J., Visser H.K.A., Measuring body fat in infancy: Anthropometry versus total body electrical conductivity (TOBEC), Pediatr Res, 35, (1994)
  • [4] De Bruin N.C., Van Velthoven C.A.M., Stijnen T., Juttmann R.E., Degenhart H.J., Visser H.K.A., Quantitative assessment of infant body fat by anthropometry and total-body electrical conductivity, Am J Clin Nutr, 61, pp. 279-286, (1995)
  • [5] Fiorotto M.L., De Bruin N.C., Brans Y.W., Degenhart H.J., Visser H.K.A., Total body electrical conductivity measurements: An evaluation of current instrumentation for infants, Pediatr Res, 37, pp. 94-100, (1995)
  • [6] Fomon S.J., Haschke F., Ziegler E.E., Nelson S.E., Body composition of reference children from birth to age 10 years, Am J Clin Nutr, 35, pp. 1169-1175, (1982)
  • [7] De Bruin N.C., Luijendijk I.H.T., Visser H.K.A., Degenhart H.J., Effect of alterations in physical and chemical characteristics on TOBEC-derived body composition estimates: Validation with non-human models, Phys Med Biol, 39, pp. 1143-1156, (1994)
  • [8] Fiorotto M.L., Cochran W.J., Funk R.C., Sheng H.P., Klish W.J., Total body electrical conductivity measurements: Effects of body composition and geometry, Am J Physiol, 252, (1987)
  • [9] Cochran W.J., Fiorotto M.L., Sheng H.P., Klish W.J., Reliability of fat-free mass estimates derived from total-body electrical conductivity measurements as influenced by changes in extracellular fluid volume, Am J Clin Nutr, 49, pp. 29-32, (1989)
  • [10] Lohman T.G., Skinfolds and body density and their relation to body fatness: A review, Hum Biol, 53, pp. 181-225, (1981)