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1 stantial functional role than tibiotarsi and femora.
2 ads, and showed reduced BMD compared with WT femora.
3 mes were not affected in proximal and distal femora.
4 ated distal femora or nonirradiated proximal femora.
5 survival of MSCs in both distal and proximal femora.
6 but no changes were observed in the proximal femora.
7 angiographic images, but not in the proximal femora.
8 tinct from contemporaneous near-modern human femora.
9 have increased total body weight and longer femora.
10 c abnormalities, and proximal defects of the femora.
11 h a completely or partially open physis (110 femora, 102 tibiae) and in 56 femora and 60 tibiae in th
13 and osteoblasts were decreased in the distal femora after irradiation, but no changes were observed i
15 en physis (110 femora, 102 tibiae) and in 56 femora and 60 tibiae in the patients with fused physes.
16 ry of microcomputed tomography data from the femora and humeri of 35 skeletons (17 female and 18 male
17 gth remained unchanged through age in female femora and male diaphyses but declined in female humeri
18 dmark localization, bone segmentation of the femora and pelvis, and a shape model for annotation tran
21 results might explain why 4T mice have wider femora and ulnae than do B6 control mice and suggest tha
22 taOsx1) mice had lower cortical thickness in femora and vertebrae because of reduced bone formation a
26 mice had longer and thinner faces and longer femora as revealed by micro-computed tomography analysis
28 Our results based on complete and fragmented femora evidenced a dimorphism characterized by variation
29 icate that both hominin and modern great ape femora evolved in different directions from a primitive
33 ze and shape compared to WT controls; distal femora in Prg4(-/-) mice are enlarged, extended (anterop
36 metrical trabecular patterns in the proximal femora may also reflect the different developmental 'fie
37 ion rates were also greater in the ulnae and femora of 6-wk-old 4T mice engaged in normal cage activi
39 These predictions were analysed in proximal femora of chimpanzees and modern humans, and in calcanei
40 e performed on metacarpal bones and proximal femora of different primate species to confirm prior stu
41 ma-sprayed (TPS) implants were placed in the femora of each animal 2 weeks following diabetic inducti
42 ma-sprayed (TPS) implants were placed in the femora of each animal, and allowed to osseointegrate for
43 , maxillary and labial palps, and unmodified femora of hind legs, providing key information for the e
45 riation, most contrasts in shape between the femora of Neandertals and near-modern humans seem to be
46 nd dramatically stimulated MCP-1 mRNA in the femora of rats receiving daily injections of PTH or in p
47 across trabecular sections from the proximal femora of three groups (n = 10 each): ageing non-fractur
50 eometric morphometrics to characterize mouse femora shape changes, which were correlated to cross-sec
51 orate these findings and murine Emilin1(-/-) femora show abnormal trabecular bone formation and stren
57 FINDINGS: Regardless of diet and sex, PKU femora were more brittle, as manifested by lower post-yi
59 mained at this high level for 4 wk in distal femora, whereas the levels were increased at 1 wk and re