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1 nown to play an important role in regulating cartilage development.
2 oliferation and differentiation during mouse cartilage development.
3 n, it is unknown whether it functions during cartilage development.
4 ent for Bmp signaling in membranous bone and cartilage development.
5 al expression pattern that corresponded with cartilage development.
6 eal endoderm for NCC survival and pharyngeal cartilage development.
7 /PTHrP receptor (PPR), is crucial for normal cartilage development.
8 triuretic peptide (CNP) in the regulation of cartilage development.
9 d aortic arch vessels and at early stages of cartilage development.
10 consistent with its function in ENS and jaw cartilage development.
11 ignaling antagonist that influences bone and cartilage development.
12 alternative splicing switch of exon 2 during cartilage development.
13 mutants with genetically disrupted muscle or cartilage development.
14 equired for correct patterning of pharyngeal cartilage development.
15 ral crest makes them candidate regulators of cartilage development.
16 t may play a role in melanoma metastasis and cartilage development.
17 demonstrate the critical role of perlecan in cartilage development.
18 Ets function is also critical in bone and cartilage development.
19 skeletogenesis, including roles in joint and cartilage development.
20 (SEMD) is a skeletal dysplasia that affects cartilage development.
21 chondrogenesis and continues throughout the cartilage development.
22 ion and suppressing GAG content during human cartilage development.
23 function of ddrgk1 leads to defects in early cartilage development.
24 ost-traumatic OA, reduced pain and increased cartilage development.
25 /beta-catenin pathway, which plays a role in cartilage development.
26 fferent signal transduction pathways pattern cartilage development along these three separate axes.
27 s, Ihh signaling is essential for symphyseal cartilage development and anterior mandibular growth.
30 Here we have studied the phases of scleral cartilage development and characterised expression profi
33 oblasts in mice leads to striking defects in cartilage development and endochondral bone formation.
34 tion experiments indicate that Six2 promotes cartilage development and growth in other body areas and
37 notransduction, regulating muscle, bone, and cartilage development and homeostasis, knowledge about C
40 on in the digits demonstrates a link between cartilage development and joint development and is an im
41 sh, ddrgk1 deficiency disrupted craniofacial cartilage development and led to decreased levels of the
42 predominantly by chondrocytes, functions in cartilage development and maintenance, and has growth-in
43 of these genes are associated with articular cartilage development and maintenance, diarthrodial join
46 chondrocytes and could only be beneficial to cartilage development and matrix protein synthesis if ba
49 radation during SOC formation and epiphyseal cartilage development and that its actions are partially
50 at GDF5 is necessary and sufficient for both cartilage development and the restriction of joint forma
51 encode protein products essential for normal cartilage development, and a potential mechanism for the
52 n vitro recapitulated some aspects of native cartilage development, and potentiated the maturation of
53 p3, reveal a role for Wisp3 during zebrafish cartilage development, and suggest that dysregulation of
54 mical properties, and that the mechanisms of cartilage development are extensively conserved--from in
55 g. bone formation, periodontal regeneration, cartilage development, artificial corneas, heart valves,
56 ull embryos is a consequence of a failure of cartilage development, as demonstrated by downregulation
57 sources and signaling account for divergent cartilage development between proximal and distal CT reg
58 injury to investigate inflammatory response, cartilage development, bone deposition, and mechanical i
59 ind that RA may have a role in early scleral cartilage development but is not likely to be the main f
60 ndrial respiration dispensable for embryonic cartilage development, but also its elimination obviates
62 lation of developmental processes, including cartilage development, chondrocyte hypertrophy, and ossi
63 07 and p130 in the mouse leads to defects in cartilage development during endochondral ossification,
64 veal an overlapping role for pRB and p107 in cartilage development, endochondral ossification and enc
65 veal an overlapping role for pRB and p107 in cartilage development, endochondral ossification and enc
66 MicroRNAs have been shown to play a role in cartilage development, homeostasis and breakdown during
67 igated for their ability to affect articular cartilage development in a scaffoldless, 3-dimensional c
68 eal deep homology of the genetic program for cartilage development in Bilateria and suggest that acti
70 lar regulation of articular and growth plate cartilage development in humans, we used our directed di
72 ndrocyte homeostasis in vitro and reduces OA cartilage development in vivo by reducing chondrocyte se
75 hanges in matrix formation during engineered cartilage development, mapping articular cartilage prote
76 omechanics plays a pivotal role in articular cartilage development, pathophysiology, and regeneration
77 RA, Wnts and Bmps have been linked to the cartilage development process and are expressed within t
78 ing evolution, a key regulator of vertebrate cartilage development, SoxE, gained new cis-regulatory s
79 de that Phd2 is a key regulator of articular cartilage development that acts by inhibiting the differ
81 ascular endothelial growth factor (VEGFA) in cartilage development, we conditionally knocked out Vegf
82 , while studying the role of beta-catenin in cartilage development, we found that its conditional del
84 n the direct versus indirect roles of Ihh in cartilage development, we have used the Cre-loxP approac