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1 e includes elements of the skull, axial, and appendicular skeleton.
2  vitamin in the development of the axial and appendicular skeleton.
3 volved in global patterning of the axial and appendicular skeleton.
4 s with respect to formation of the axial and appendicular skeleton.
5 despread patterning defects of the axial and appendicular skeleton.
6 erichondrium of the craniofacial, axial, and appendicular skeleton.
7 ed form of bone loss affecting the axial and appendicular skeleton.
8 t defects that are largely restricted to the appendicular skeleton.
9 , without contributing to development of the appendicular skeleton.
10 iple defects that include bony fusion of the appendicular skeleton.
11       An operatively treated fracture of the appendicular skeleton.
12 veral non-injured bones within the axial and appendicular skeleton.
13 h the function of the pectoral girdle of the appendicular skeleton.
14 ssociated with increased osteogenesis in the appendicular skeleton.
15 or the development and maintenance of the DS appendicular skeleton.
16 terior (AP) patterning in both the axial and appendicular skeleton and acts as a regulator of Hox gen
17  abuse include separate frontal views of the appendicular skeleton and frontal and lateral views of t
18 tations in Hoxa13 cause malformations of the appendicular skeleton and genitourinary tract, including
19 e all characterised by the shortening of the appendicular skeleton and loss or abnormal development o
20 ties during the development of the zebrafish appendicular skeleton and muscles, compare our observati
21 lements arise from the paraxial somites, the appendicular skeleton and sternum arise from the somatic
22 through the cutmarks left on the cranium and appendicular skeleton and to compare mortuary protocols
23 s, widespread metaphyseal involvement of the appendicular skeleton, and carpal ossification delay.
24 ns of first and second branchial arches, the appendicular skeleton, and the dermal papillae of the vi
25                            Long bones of the appendicular skeleton are formed from a cartilage templa
26             The long bones of the vertebrate appendicular skeleton arise from initially continuous co
27  whole body (excluding head), arms, legs and appendicular skeleton at baseline and every 16 weeks.
28 thin mesenchymal precursors of the axial and appendicular skeleton, before chondrogenesis occurs.
29 uced an Lrp5 mutation in cells that form the appendicular skeleton but not in cells that form the axi
30                                The axial and appendicular skeleton displayed malformations and in par
31  of the skeletal morphology of the axial and appendicular skeleton during embryonic development.
32 function Foxp mutations had gross defects in appendicular skeleton formation.
33 ing an understanding of the way in which the appendicular skeleton has evolved to provide the scaffol
34  the results are compared with a site in the appendicular skeleton (humerus).
35             In general, bone strength in the appendicular skeleton is compromised because of thinner
36  limb, where they serve as primordia for the appendicular skeleton, is preceded by the appearance of
37 a hypomorph allele in the development of the appendicular skeleton, kidneys, and female reproductive
38     We observed an increase in the axial and appendicular skeleton lengths, and improvements in dwarf
39 ween these factors during development of the appendicular skeleton, mice were produced with various c
40  into the interactions between the axial and appendicular skeleton, model the evolution and function
41                       However, the axial and appendicular skeleton of Cx43-null animals were essentia
42 s condensations (PCCs) in both the axial and appendicular skeleton of mouse embryos and in committed
43                    Here we have examined the appendicular skeletons of Akp2-/-, Enpp1-/-, and [Akp2-/
44 creased lean body mass versus placebo in the appendicular skeleton (p = 0.050) and arms (p < 0.001).
45                             In the axial and appendicular skeleton, post-natal deficits in Pth/Pthrp
46 and mechanistic studies, we show that in the appendicular skeleton, Rspo3 haplo-insufficiency and Rsp
47                                The axial and appendicular skeleton showed no sign of lesions.
48 ion of mammalian stanniocalcin (STC1) in the appendicular skeleton suggests its involvement in the re
49      Greater morphological complexity in the appendicular skeleton therefore appears to hinder the ge
50 IFT is essential for normal formation of the appendicular skeleton through disruption of multiple sig
51  FGFR3(K650E) expression was directed to the appendicular skeleton, we show that the mutant receptor
52              The vertebral column, ribs, and appendicular skeleton were all affected in these embryos
53                Improvements to the axial and appendicular skeletons were noticeable after 10 days of
54                           In contrast to the appendicular skeleton, which has been shown to evolve mo