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1 eated disease (symptoms for >2 months before muscle biopsy).
2 nderlying pathology on biochemistry tests or muscle biopsy.
3 synthesis rates in skeletal muscle without a muscle biopsy.
4 kness, and specific pathological features on muscle biopsy.
5 derestimated data acquired via more invasive muscle biopsy.
6 myopathy associated with inclusion bodies on muscle biopsy.
7 um of diseases associated with a necrotizing muscle biopsy.
8 or isolation of Sarcocystis species DNA from muscle biopsy.
9 sment of the same muscle with repeat MRI and muscle biopsy.
10 e frequent absence of rimmed vacuoles in the muscle biopsy.
11 arcocystis nesbitti DNA was recovered from 1 muscle biopsy.
12 d avoid issues associated with open skeletal muscle biopsy.
13 e need for invasive diagnostic tests such as muscle biopsy.
14 versally present in patients who underwent a muscle biopsy.
15 most commonly defined by changes observed in muscle biopsy.
16 ng of the gene may preclude performance of a muscle biopsy.
17 genes, which result in dystrophic changes on muscle biopsy.
18 ere was some variability for each individual muscle biopsied.
19 nalyses on protein and RNA isolated from the muscle biopsies.
20 ation in the sarcolemma, as assessed through muscle biopsies.
21 criptional profiles of MRI-guided human FSHD muscle biopsies.
22 ing (e.g. Akt/mTORC1) by immunoblotting from muscle biopsies.
23 alanine [3-13C] assessed by LC-tandem MS in muscle biopsies.
24 ntification of amyloid deposits in nerve and muscle biopsies.
25 its contribution to gene expression in FSHD muscle biopsies.
26 ever, implying a non-myogenic cell source in muscle biopsies.
27 pression profiling were performed on fat and muscle biopsies.
28 in permeabilized muscle fibres prepared from muscle biopsies.
29 alpha-dystroglycan, which can be detected in muscle biopsies.
30 mic clamp, muscle microdialysis studies, and muscle biopsies.
31 e, and the presence of tubular aggregates in muscle biopsies.
32 des, and protein expression were measured in muscle biopsies.
33 milder SMA mouse model and in human patient muscle biopsies.
34 y contribute the molecular landscape of FSHD muscle biopsies.
35 st, isokinetic muscle function, and skeletal muscle biopsies.
36 RNA expression and disease activity in FSHD muscle biopsies.
37 ons with the collection of blood samples and muscle biopsies.
38 macrophages in PAD versus non-PAD (controls) muscle biopsies.
39 single muscle fibers, or when they reside in muscle biopsies.
40 data from magnetic resonance imaging-guided muscle biopsies.
41 nal proteomic analysis of the 2 crewmembers' muscle biopsies.
42 ified 731 known and 325 novel lncRNAs in the muscles biopsies.
46 apacity for fatty acid oxidation in skeletal muscle biopsies, along with enhanced efficiency of oxyge
49 se continuous tracer infusions combined with muscle biopsies and arterio-venous (A-V) studies across
52 erinsulinemic-euglycemic clamp with skeletal muscle biopsies and indirect calorimetry before and afte
53 However, DUX4 is difficult to detect in FSHD muscle biopsies and it is debatable how robust changes i
54 eport DUX4-fl mRNA and protein expression in muscle biopsies and myogenic cells from genetically unaf
58 of muscles on imaging, myopathic changes on muscle biopsy and loss of calpain 3 protein on western b
60 ted disease (symptoms for </=2 months before muscle biopsy), and 17 had long duration of untreated di
61 mic clamps, magnetic resonance spectroscopy, muscle biopsies, and assessment of ex vivo mitochondrial
62 ein is rare and difficult to detect in human muscle biopsies, and pathological mechanisms are obscure
63 ed 1) OGTT, 2) euglycemic insulin clamp with muscle biopsy, and 3) (1)H-magnetic resonance spectrosco
77 n summary, the regenerative response in FSHD muscle biopsies correlates with the severity of patholog
78 Deep sequencing of the TCR Vbeta region from muscle biopsies demonstrated a limited number of T cell
79 much larger collection of myogenic cells and muscle biopsies derived from biceps and deltoid muscles
80 an inconsistent biomarker for FSHD skeletal muscle biopsies, displaying efficacy only on pathologica
81 5]phenylalanine infusion in conjunction with muscle biopsies during basal, postabsorptive conditions
82 t myopathic features that were detectable on muscle biopsies, electromyography, muscle magnetic reson
83 muscles such as those obtained from patient muscle biopsies exhibit a significant decrease in expres
84 d later or are nonaffected; and (2) in adult muscle biopsies, FAT1 expression is lower in FSHD muscle
86 with autosomal dominant distal myopathy and muscle biopsy features of both minicores and nemaline ro
87 0 g protein) states after WM and ED by using muscle biopsies, fluorescence-based assays, immunoblot a
88 tion at the protein level by immunolabelling muscle biopsies for developmental myosin heavy chain.
89 of sarcopenia versus age-matched controls in muscle biopsies from 119 older men from Singapore, Hertf
91 fluence gene expression, we analyse skeletal muscle biopsies from 271 well-phenotyped Finnish partici
93 udies were also undertaken in human skeletal muscle biopsies from a cohort of coronary artery bypass
95 between capillary-fiber ratio (p < 0.01) in muscle biopsies from amputated limbs and Grad measured p
96 ammonia in both plasma samples and skeletal muscle biopsies from cirrhotic patients compared with he
101 ategies in mice, together with assessment of muscle biopsies from humans, demonstrated that type I mu
104 he myogenesis biomarker was also elevated in muscle biopsies from most independent FSHD, DM2 or Duche
105 espoke analysis for applying IMC in skeletal muscle biopsies from patients with genetically-character
106 re conducted an expression analysis of human muscle biopsies from patients with T2D; normoglycemic bu
109 r more regenerating myofibres in 76% of FSHD muscle biopsies from quadriceps and 91% from tibialis an
110 chondrial myopathy, we investigated skeletal muscle biopsies from seven subjects with genetically def
111 etal muscle and spinal cord of SMA mice, and muscle biopsies from SMA patients and controls, using qu
113 NA methylation (DNAme) in 265 human skeletal muscle biopsies from the FUSION study with >7 million ge
117 ater than or equal to 8 underwent a skeletal muscle biopsy from the vastus lateralis at median day 5
118 Analysis of the RyR1 protein content in a muscle biopsy from this individual showed a content of o
119 s shown using meta-analysis of over six FSHD muscle biopsy gene expression studies, and validated by
120 bulbar involvement and tubular aggregates on muscle biopsy help to distinguish DPAGT1 CMS from the ma
121 cephalography (EEG), electromyography (EMG), muscle biopsy, high-resolution molecular karyotype array
122 le myopathies may have prominent necrosis on muscle biopsy, immune-mediated myopathies are emphasized
123 rst study to use cells derived from skeletal muscle biopsies in CFS patients and healthy controls to
124 o address this question, we performed serial muscle biopsies in healthy, lean subjects before and dur
127 may enable a more rapid diagnosis and avoid muscle biopsy in patients with progressive external opht
128 max) and microcirculation loss on quadriceps muscle biopsy (in CD31(+) immunofluorescence experiments
134 of a number of histopathological findings on muscle biopsy--namely, rimmed vacuoles, an inflammatory
137 n sequencing to examine the transcriptome in muscle biopsies obtained from two histologically distinc
138 SINV infection ex vivo by examining a unique muscle biopsy obtained from a patient with chronic myalg
140 found reduced alpha-DG glycosylation in the muscle biopsies of affected individuals and in available
142 omal pathway of intracellular proteolysis in muscle biopsies of CHF patients and healthy controls in
143 nd protein expression plus ultrastructure in muscle biopsies of lowlanders at sea level and following
153 DMD based on findings of clinical follow-up, muscle biopsy, or direct mutational testing of the DMD g
154 I and IV were assessed in peripheral blood, muscle biopsy, or postmortem brain at the level of enzym
155 sue elements were observed in seven of eight muscle biopsies performed in the irradiated field; and m
157 a clinical phenotype suggestive of CMD, with muscle biopsy reserved as a second-tier investigation.
158 iased RNA sequencing of adipose and skeletal muscle biopsies revealed fatty acid metabolism as a key
166 gth CFL2 transcript was also observed in the muscle biopsy sample of the patient with p.A35T mutation
168 ng revealed a substantial Treg population in muscle biopsy samples containing AAT-expressing myofiber
170 We analyzed the expression of PDGF-BB in muscle biopsy samples from controls and patients with DM
171 t regenerating and necrotic muscle fibers in muscle biopsy samples from DMD patients expressed PDGF-B
174 tial expression of microRNA-126 (miR-126) in muscle biopsy samples from the 2 patient groups and the
183 emoral arterial and venous blood samples and muscle biopsy samples were collected throughout the stud
187 s currently assessed through methods such as muscle biopsy, serum biomarkers, functional testing, and
200 ne kinase was normal or mildly elevated, and muscle biopsy showed mild myopathic changes with selecti
208 he findings, especially those related to the muscle biopsy specimens and electromyography, were consi
212 btained muscle fiber fragments from skeletal muscle biopsy specimens from adult donors aged 20 to 80
213 Immunohistological and RT-PCR analysis of muscle biopsy specimens from anti-MDA5 and classic DM we
214 naling molecules were determined in skeletal muscle biopsy specimens from BMI- and age-matched overwe
215 High levels of moesin were also observed in muscle biopsy specimens from DMD, Ullrich CMD, and meros
217 ession of nucleolar protein 66 (NO66), as do muscle biopsy specimens from patients with CKD or those
219 ream targets ACC-beta, TBC1D1, and TBC1D4 in muscle biopsy specimens obtained from 13 overweight/obes
224 roximately 18,000 genes in each of 113 human muscle biopsy specimens, and studied biopsy specimens an
229 ter baseline bilateral vastus lateralis (VL) muscle biopsies, subjects consumed 150 ml D2 O (70 atom%
230 ter baseline bilateral vastus lateralis (VL) muscle biopsies, subjects consumed 150 ml D2O (70 atom p
232 fusion), and 3) saline control with skeletal muscle biopsies taken just before, 30 min after, and 75
234 rimental measurements show that in PAD human muscle biopsies the VEGF165b isoform is at least as abun
235 hypothesis, transcriptomics data from human muscle biopsy tissue revealed misregulation of the AMP-a
240 ify senescent cells in frozen human skeletal muscle biopsies using these markers to determine the eff
242 METHODS AND In human PAD versus control muscle biopsies, VEGF165b: (1) is elevated, (2) is bound
245 n of l-[ring-13C6]-phenylalanine with serial muscle biopsies was used to determine postabsorptive and
246 of l-[ring-(13)C6] phenylalanine with serial muscle biopsies was used to measure MPS under baseline f
253 between NDD-CKD and HC populations, skeletal muscle biopsies were collected from the vastus lateralis
260 tentials after direct muscle stimulation and muscle biopsies were obtained at median days 7 and 5, re
261 and eight controls, serial vastus lateralis muscle biopsies were obtained before and 7 hours after a
272 glycemic-hyperinsulinemic clamp and skeletal muscle biopsies were performed in 73 individuals encompa
279 after 50 ml week(-1) ), further bilateral VL muscle biopsies were taken at 3 and 6 weeks to quantify
286 00 ECs of the knee extensors with 1 leg, and muscle biopsies were taken from both legs 3 h post-EC.
296 e, or nonsense DMD mutations, with available muscle biopsy Western blot data, were included irrespect
297 ation identified by histological analysis on muscle biopsies, while our two late DUX4 target gene exp
298 ne myopathy have a predominantly necrotizing muscle biopsy with minimal lymphocytic infiltration.
299 etal muscle dysfunction and a non-dystrophic muscle biopsy with the presence of one or more character
300 gnetic resonance imaging-directed diagnostic muscle biopsies yielded samples from 20 children with ju