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1 d specific (91%) but not sensitive (23%) for cartilage loss.
2 fundamentally different from those producing cartilage loss.
3 observed when posterior femur regions showed cartilage loss.
4 PRD can compromise this function and produce cartilage loss.
5 s in increased disability and progression of cartilage loss.
6 and ACL tears was associated with more rapid cartilage loss.
7 reased subchondral bone activity can predict cartilage loss.
8 raphic risk factors was predictive of future cartilage loss.
9 ic regression models were applied to predict cartilage loss.
10 were evaluated as possible risk factors for cartilage loss.
11 at might otherwise contribute to progressive cartilage loss.
12 disease, including protection from bone and cartilage loss.
13 ly associated with an increased risk of fast cartilage loss.
14 point to reflect osteoarthritis progression/cartilage loss.
15 rtilage loss, and only 20 (5.8%) showed fast cartilage loss.
16 ls were subregions in that same knee without cartilage loss.
17 bone marrow lesions (BMLs) have been tied to cartilage loss.
18 medial extension were related to ipsilateral cartilage loss.
19 nd reduced height also increased the risk of cartilage loss.
20 calcinosis was not associated with increased cartilage loss.
21 rong association between meniscal damage and cartilage loss.
22 this function has important consequences for cartilage loss.
23 ion was associated with an increased risk of cartilage loss.
24 with a higher baseline BML score had greater cartilage loss.
25 rging BMLs are strongly associated with more cartilage loss.
26 incident and progressive medial tibiofemoral cartilage loss.
27 miss a substantial proportion of knees with cartilage loss.
28 owed a higher average rate of progression of cartilage loss (22%) than that seen in those who had int
30 ment, and laxity each predicted tibiofemoral cartilage loss after controlling for the other factors.
32 ion between clinical outcome and severity of cartilage loss and bone marrow edema in the medial femor
33 APM was associated with greater severity of cartilage loss and bone marrow edema in the same compart
34 iographically, patients experience continued cartilage loss and destructive bone changes as they age,
35 especially vitamin C, may reduce the risk of cartilage loss and disease progression in people with OA
37 echanical stress can accelerate the onset of cartilage loss and progression to OA in transgenic mice.
39 or, pegsunercept, the number of osteoclasts, cartilage loss, and number of TNF-alpha and receptor act
41 tory of these lesions, their relationship to cartilage loss, and the association between change in th
43 gions of the tibiofemoral joint, and defined cartilage loss as an increase in score (scale 0-4) at an
44 on of joint space narrowing is predictive of cartilage loss assessed on MRI, radiography is not a sen
46 p between baseline alignment and subregional cartilage loss at 2 years, adjusting for age, sex, body
48 reater quadriceps strength protected against cartilage loss at the lateral compartment of the patello
49 r quadriceps strength was protective against cartilage loss at the lateral compartment of the patello
50 e and at 15 and 30 months was used to assess cartilage loss at the tibiofemoral and patellofemoral jo
51 ater quadriceps strength had no influence on cartilage loss at the tibiofemoral joint, including in m
53 ties in both early and chronic OA, including cartilage loss, bone edema, synovial enhancement, osteop
54 s with chondrocalcinosis had a lower risk of cartilage loss compared with knees without chondrocalcin
58 nd that changes in oxygen tensions following cartilage loss from injury or disease alter cartilage me
59 d in each plate, with progression defined as cartilage loss >2 times the coefficient of variation for
62 d with a reduction in the risk of subsequent cartilage loss in certain medial subregions and neutral
63 as dichotomous predictors in each model) on cartilage loss in each of the 5 plates within a compartm
64 and their death by apoptosis contributes to cartilage loss in inflammatory joint diseases, such as r
70 ion between clinical outcome and severity of cartilage loss in the lateral femoral condyle and latera
73 ersus varus) knees each have reduced odds of cartilage loss in the medial subregions and that neutral
75 confidence interval 5.6-9.9, P < 0.0001) for cartilage loss in the same subregion compared with subre
81 exhibited two or more subregions with severe cartilage loss (odds ratio [OR], 16.5; 95% confidence in
82 t space narrowing on radiographic images and cartilage loss on MRI, using a generalized estimating eq
84 amin D supplementation for preventing tibial cartilage loss or improving WOMAC knee pain in patients
87 nce interval [95% CI] 2.2-16.2) but not with cartilage loss (OR 1.6, 95% CI 0.8-3.1), while medial ty
97 djustment for BMLs, prevalent full-thickness cartilage loss showed a significant but much less import
98 compartment showed more rapid progression of cartilage loss than cartilage lesions in the anterior an
99 l proportion of knees (80 of 189 [42%]) with cartilage loss visible on MRI when no radiographic progr
101 for change in the number of subregions with cartilage loss was assessed using Poisson regression, wi
105 ation of BML change with medial tibiofemoral cartilage loss was not significant after adjusting for a
107 d synovitis or effusion) to the risk of fast cartilage loss were assessed by using a multivariable lo
114 on, even after adjustment for full-thickness cartilage loss, which supports the bone contusion theory
115 ithin a knee were defined as subregions with cartilage loss, while controls were subregions in that s
118 ciation of prevalent BMLs and full-thickness cartilage loss with incident SCs in the same subregion w
120 re evaluated whether SBA was associated with cartilage loss within the same subregion of the knee.
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