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1 ytokines, including IL-6, to repair skeletal muscle damage.
2 in early events in the myogenic response to muscle damage.
3 of the vasoconstrictor response and eventual muscle damage.
4 exercise that causes an increase in skeletal muscle damage.
5 retained at 85% of the synaptic sites after muscle damage.
6 ells enter muscles in response to repetitive muscle damage.
7 iotoxin (CTX)-induced tibialis anterior (TA) muscle damage.
8 invasive method of detecting and quantifying muscle damage.
9 direct link between anti-FHL1 responses and muscle damage.
10 e removal of those with potential iatrogenic muscle damage.
11 ng that RARgamma agonist may oppose skeletal muscle damage.
12 iltration, indicating exacerbated dystrophic muscle damage.
13 howing that Tregs can directly contribute to muscle damage.
14 on partners) in myofibril assembly and after muscle damage.
15 e immunoreactivity for Xin was indicative of muscle damage.
16 -SRP and anti-HMGCR Abs could be involved in muscle damage.
17 al integrity and increased susceptibility to muscle damage.
18 lopment of muscle atrophy, in statin-induced muscle damage.
19 educed HGF levels and c-met activation after muscle damage.
20 ays responsible for atrogin-1 expression and muscle damage.
21 onnects the immune and nonimmune pathways of muscle damage.
22 te in Pompe myofibers and may cause profound muscle damage.
23 ty infiltration of the liver and evidence of muscle damage.
24 prolonged endplate currents, and consequent muscle damage.
25 been found to be upregulated by exercise or muscle damage.
26 or satellite cell activation following local muscle damage.
28 controls, Akita mice demonstrated increased muscle damage after eccentric exercise along with a decl
29 y, dramatically prevented lovastatin-induced muscle damage and abrogated atrogin-1 induction both in
30 estoring muscle ERRgamma pathway ameliorated muscle damage and also prevented DMD hallmarks of postex
31 oprene units to protein targets cause statin muscle damage and atrogin-1 induction in cultured cells
33 nonimmune mechanism responsible for skeletal muscle damage and dysfunction in autoimmune myositis.
35 deficiency reduced quadriceps and diaphragm muscle damage and fibrosis at 14 wk but not at 6 mo, and
36 890F)/mdx showed a significant resistance to muscle damage and force loss following repeated eccentri
37 amma signaling in muscular dystrophy reduces muscle damage and improves motor performance by promotin
39 hed protein biomarkers associated with heart muscle damage and point-of-care monitoring of both these
41 agic buildup may be responsible for skeletal muscle damage and prevent efficient trafficking of repla
42 can to the cytoplasm is sufficient to induce muscle damage and provides a new model of muscular dystr
43 ion-reambulation model was used for inducing muscle damage and recovery in the lower hindlimbs in mic
46 The strong correlation between the degree of muscle damage and Xin immunoreactivity suggests that Xin
47 their varied etiologies, are associated with muscle damage and, often, other organ system involvement
50 indicating that MTR may be more sensitive to muscle damaged by denervation than conventional MRI.
52 ral treatment with UDCA prevents gallbladder muscle damage caused by BDL, whereas oral treatment with
53 ndlimb was found to have a greater amount of muscle damage compared to that in the contralateral noni
55 ted the elevation of inflammatory markers of muscle damage (creatine kinase activity, C-reactive prot
56 ewing the ECT complication, it appeared that muscle damage due to catatonic immobility led to acute h
57 Two cohorts of young adults-the Eccentric Muscle Damage (EMD; n = 156) cohort and the Functional S
58 e-induced microtrauma. kg(-1) . d(-1)) after muscle-damaging exercise (300 eccentric contractions).
61 roles of ER stress and autophagy in skeletal muscle damage have been explored in multiple muscle dise
62 lemmal nNOS leads to functional ischemia and muscle damage; however, the mechanism of nNOS subcellula
64 ced biochemical and histological evidence of muscle damage, improved muscle function and increased ex
66 markably, loss of Fnip1 profoundly mitigated muscle damage in a murine model of Duchenne muscular dys
67 lovastatin-induced atrogin-1 expression and muscle damage in cultured mouse myotubes and zebrafish c
68 ata demonstrate Xin as a useful biomarker of muscle damage in healthy individuals and in patients wit
69 muscle regeneration give rise that ischemic muscle damage in limb transplantation might be reversibl
76 In contrast, ablation of IFN-gamma reduced muscle damage in vivo during the regenerative stage of t
77 ve of severe inflammation, coagulopathy, and muscle damage including less bacterial clearance, hypogl
87 ggest that myalgias and relatively low-level muscle damage may occur in a substantial number of patie
89 otassium homeostasis mechanisms may minimize muscle damage of myopathies due to certain RyR1 mutation
92 to muscle size) and histological markers of muscle damage (percentage of regenerating fibers and fib
93 Macrophages recruited at the site of sterile muscle damage play an essential role in the regeneration
94 low-choline diet, some people presented with muscle damage rather than liver damage; several effect a
98 that cachexia was associated with a type of muscle damage resulting in activation of both satellite
100 GTP-binding proteins lead to statin-induced muscle damage since these molecules require modification
101 t of HSPs may provide protection against the muscle damage that occurs by a pathological increase in
107 e diagnostic importance of CK in determining muscle damage, we tested the association of the variant
109 ostmenopausal women developed fatty liver or muscle damage, whereas only 44% of premenopausal women d
110 d signs of organ dysfunction (fatty liver or muscle damage), while less than half of premenopausal wo
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