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Pediatric Endocrinology |
Departments of Radiology (V.G., A.K.) and Pediatrics (G.C., T.F.R., F.K.), Childrens Hospital, Los Angeles, California 90027; and the Department of Biostatistics, University of California School of Medicine (J.S.), Los Angeles, California 90024
Address all correspondence and requests for reprints to: Vicente Gilsanz, M.D., Radiology Department, MS #81, Childrens Hospital, 4650 Sunset Boulevard, Los Angeles, California 90027.
Recent observations suggest that throughout life the size of the
vertebral bodies in females is smaller than that in males even after
accounting for differences in body size. To confirm these reports and
to determine whether similar differences exist in the appendicular
skeleton, detailed measurements of the sizes of the vertebrae and the
femur were obtained using computed tomography in 30 pairs of
prepubertal boys and girls matched for age, height, and weight.
Anthropometric parameters as well as gender influenced the
cross-sectional area of the vertebrae. Heavier children had greater
vertebral cross-sectional area than slender children regardless of
gender, and the vertebral bodies were found to be significantly smaller
in girls than in matched boys (
11%), both using Students
t test (P < 0.0001) and its
multivariate analog, the Hotellings T2 test
(P < 0.0001). In contrast to these findings in the
axial skeleton, gender status did not influence the size of the bones
in the appendicular skeleton, and neither the cross-sectional area
(3.28 ± 0.84 vs. 3.10 ± 0.56 cm2)
nor the cortical bone area (1.80 ± 0.37 vs. 1.85
± 0.36 cm2) at the midshaft of the femur differed between
boys and girls. These values, however, correlated strongly with all
anthropometric indexes, and multiple regression analyses indicated that
both measurements were primarily related to weight. The results suggest
that although increases in mechanical loading associated with growth
are the main determinant of the cross-sectional properties of the
appendicular skeleton in children, factors other than body mass and
related to gender have a significant role in the regulation of the
sizes of the bones in the axial skeleton.
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