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1 comes susceptible following focal changes in calcified cartilage.
2 rs of hypertrophic chondrocytes in articular calcified cartilage.
3 , confirming a decrease in resorption of the calcified cartilage.
4 at the boundary of the subchondral bone and calcified cartilage.
5 focused on the intervening tissue, articular calcified cartilage (ACC) and its role in the initiation
6 re present in resorption lacunae in areas of calcified cartilage and in subchondral bone immediately
7 and spectra were successfully obtained from calcified cartilage and subchondral bone for the first t
11 f tissues (uncalcified cartilage [UCC] only, calcified cartilage [CC] and subchondral bone [bone] [CC
12 to upward invasion by vascular canals or to calcified cartilage erosion may contribute to biomechani
13 ed to the massive accumulation of unresorbed calcified cartilage in a large area below the growth pla
14 LN also inhibited vascular invasion into the calcified cartilage in rats with OA and blocked osteocla
17 at the osteochondral interface do not have a calcified cartilage layer, displaying only a thin, highl
18 e is aggressive resorption of the underlying calcified cartilage leading to an extraordinary phenotyp
20 ineralized tissues suggests that bone and/or calcified cartilage provide signals that are critical fo
22 act loaded joints and to explore the role of calcified-cartilage stiffness on the biomechanics of hea
23 were analyzed by 3-dimensional histology for calcified cartilage, subchondral bone, and subchondral b
25 tic mice also exhibited an elevated ratio of calcified cartilage to total articular cartilage (CC/TAC
26 gnificantly reduced OARSI scores and CC/TAC (calcified cartilage to total articular cartilage), but i
27 subchondral bone turnover and hypertrophy in calcified cartilage, yet additional mechanical or metabo