ライフサイエンスコーパス: vastus

1 weaken skeletal strength and stiffness of A. vastus.

2 oleus), 0.031 +/- 0.001 and 0.060 +/- 0.001 (vastus), and 0.027 +/- 0.001 and 0.055 +/- 0.001 (tricep

3 me of a hexactinellid sponge, Aphrocallistes vastus, and compared it to published poriferan mtDNAs to

4 The glass sponge Aphrocallistes vastus contributes to the formation of large reefs uniqu

5 Analysis of the mtDNA of A. vastus has provided evidence diagnostic for +1 programme

6 us medialis [VM], vastus lateralis [VL], and vastus intermedius [VI]) produce knee extension and so h

7 nounced at proximal (1.05) and middle (1.64) vastus intermedius compared to the other sites (0.72-0.7

8 he muscles studied were latissimus dorsi and vastus intermedius.

9 butamol did not produce these effects in the vastus intermedius.

10 ecially affects proximal-middle sites of the vastus intermedius.

11 or (129 +/- 44 per participant; n=8) and the vastus lateralis (130 +/- 63 per participant; n=8) muscl

12 lis anterior (p = 0.001), and shorter EMD in Vastus Lateralis (p = 0.001), Vastus Medialis Oblique (p

13 e CLBP group had longer than the Non-CLBP in Vastus Lateralis (p = 0.010), Vastus Medialis Oblique (p

14 predominately Type I fiber), and superficial vastus lateralis (SVL, predominately Type II fiber), of

15 nsity surface EMG signals were recorded from vastus lateralis (VL) and medialis (VM) and decomposed i

16 Vastus lateralis (VL) and vastus medialis (VM) in the ra

17 arge populations of motor units (MUs) in the vastus lateralis (VL) and vastus medialis muscles follow

18 Vastus lateralis (VL) biopsies were also obtained.

19 ography (iEMG) bilaterally recorded from the vastus lateralis (VL) during knee extensor contractions

20 tromyographic signals were recorded from the vastus lateralis (VL) during voluntary contractions held

21 Significant increases in vastus lateralis (VL) fat fraction were observed in 3 an

22 nt regions along the rectus femoris (RF) and vastus lateralis (VL) influence muscle morphology, inclu

23 study was to investigate sex differences in vastus lateralis (VL) MU structure and function in early

24 After baseline bilateral vastus lateralis (VL) muscle biopsies, subjects consumed

25 After baseline bilateral vastus lateralis (VL) muscle biopsies, subjects consumed

26 We obtained dual-leg vastus lateralis (VL) muscle cross-sectional area (mCSA)

27 We examined mtDNA-deletion mutations in vastus lateralis (VL) muscle of human subjects aged 49-9

28 etal muscle biopsies were collected from the vastus lateralis (VL) of n=16 non-dialysis dependent CKD

29 while muscle fascicle length changes of the vastus lateralis (VL) were captured using B-mode ultraso

30 ialis anterior (TA), medial hamstrings (MH), vastus lateralis (VL), rectus femoris (RF) and iliopsoas

31 and 25% MVC isometric contractions from the vastus lateralis (VL).

32 motor units from two lower limb muscles: the vastus lateralis (VL; up to 60 motor units per participa

33 Muscle biopsies were obtained from the vastus lateralis [n = 23 subjects (six male and 17 femal

34 ar quadriceps muscles (vastus medialis [VM], vastus lateralis [VL], and vastus intermedius [VI]) prod

35 Muscle biopsies were obtained from the vastus lateralis after the periods of fasting and hyperg

36 .m.) of total fibres in soleus, 59 +/- 3% in vastus lateralis and 22 +/- 2% in triceps.

37 asures and ultrasound images of the dominant Vastus Lateralis and Biceps Brachii from 32 young (18-35

38 oppler ultrasound and muscle biopsies of the vastus lateralis and biceps brachii were used to assess

39 s (tibialis anterior, lateral gastrocnemius, vastus lateralis and biceps femoris).

40 Muscle biopsy samples from vastus lateralis and blood samples were collected before

41 me, calpain, and caspase 3 activities in the vastus lateralis and diaphragm muscles did not differ be

42 Enzymatic activities were measured in the vastus lateralis and diaphragm.

43 ectromyography (sEMG) recordings, taken from vastus lateralis and erector spinae longissimus.

44 At exhaustion in both protocols, the vastus lateralis and intercostal muscle oxygen saturatio

45 the activity of the motor units between the vastus lateralis and medialis muscles during the knee ex

46 scles (gastrocnemius lateralis and medialis, vastus lateralis and medialis, and tibialis anterior).

47 Muscle biopsies of the vastus lateralis and real-time polymerase chain reaction

48 ean fiber diameter decreased with age in the vastus lateralis and rectus femoris but not the soleus o

49 and lateral gastrocnemius, vastus medialis, vastus lateralis and rectus femoris).

50 Gastrocnemius, superficial vastus lateralis and soleus muscles were excised at 120

51 OPD and the numbers of autophagosomes in the vastus lateralis and tibialis anterior muscles, the leve

52 dependence of the neural drive to the human vastus lateralis and vastus medialis muscles during the

53 the discharge patterns of motor units in the vastus lateralis and vastus medialis were investigated d

54 Baseline vastus lateralis ascorbate concentrations were ~16 nmol/

55 scle biopsy specimens were obtained from the vastus lateralis at 1.5, 4, and 7 h.

56 Muscle biopsies were taken from the vastus lateralis at baseline and after 6 weeks.

57 underwent a skeletal muscle biopsy from the vastus lateralis at median day 5 in ICU.

58 Muscle biopsy samples were obtained from the vastus lateralis at pre-determined time points and oxyge

59 Muscle biopsies were taken from the vastus lateralis before and 60 and 90 min after exercise

60 Muscle biopsies were obtained from the vastus lateralis before and after 84 days of bed-rest fr

61 Muscle samples were obtained from the vastus lateralis before and after each trial.

62 vastus lateralis before and following 60 min cycling at

63 Muscle biopsies were taken from the m. vastus lateralis before and following 60 min cycling at

64 Muscle samples were collected from the vastus lateralis before exercise and after recovery.

65 Subjects provided vastus lateralis biopsies before and after one bout of R

66 ctromyography, nerve conduction studies, and vastus lateralis biopsies for histologic, cellular, and

67 individual muscle fibers were isolated from vastus lateralis biopsies from each of eight human subje

68 Mitochondrial volume in vastus lateralis biopsies increased significantly (50%)

69 ived multipotent cells (MDMCs) isolated from vastus lateralis biopsies obtained from controls and sub

70 ATP production in mitochondria isolated from vastus lateralis biopsies of 42 healthy sedentary and en

71 dy, muscle fiber bundles prepared from fresh vastus lateralis biopsies were analyzed by high-resoluti

72 emic clamp, and basal and insulin-stimulated vastus lateralis biopsies were collected pre- and postin

73 Vastus lateralis biopsies were obtained at baseline, 24

74 pulmonary exercise tests, fasting blood, and vastus lateralis biopsies were obtained before and after

75 pervised whole-body RT sessions, and resting vastus lateralis biopsies were obtained every 10 weeks f

76 standard bout of resistance leg exercise and vastus lateralis biopsies were obtained pre-, and at 24,

77 Vastus lateralis biopsies were taken in the basal (overn

78 nd fibre type-specific cross-sectional area (vastus lateralis biopsies) were evaluated.

79 5 age-matched healthy subjects who underwent vastus lateralis biopsies.

80 y in permeabilized muscle fibre bundles from vastus lateralis biopsies.

81 ydrogenase (SDH) activity were measured from vastus lateralis biopsies.

82 uding hyperinsulinemic-euglycemic clamps and vastus lateralis biopsies.

83 RNA was isolated from fasting-state vastus lateralis biopsy samples obtained at the end of e

84 control protein synthesis and breakdown, in vastus lateralis biopsy samples obtained from 10 patient

85 freshly isolated mitochondria obtained from vastus lateralis biopsy samples using the luciferase rea

86 and diacylglycerol content were measured in vastus lateralis biopsy specimens.

87 Vastus lateralis capillary density was not altered in ei

88 Protein expression of p62 in the vastus lateralis did not differ between the 2 groups.

89 Skeletal muscle oxygenation of the vastus lateralis during exercise was assessed with near-

90 catheterization and muscle biopsies from the vastus lateralis during the infusion of stable isotope t

91 area (CSA) (by magnetic resonance imaging), vastus lateralis fascicle length (L(f)) and pennation an

92 to two groups on the basis of their baseline vastus lateralis fat fraction (VLFF; measured by magneti

93 Changes in muscle strength, vastus lateralis fibre characteristics and myosin heavy-

94 otor unit and near fibre potentials from the vastus lateralis following 15 days of unilateral limb im

95 growth factor-beta1 signaling activation in vastus lateralis from ICU-acquired weakness patients.

96 ive-predominant SkM soleus in HFpEF mice and vastus lateralis from patients with HFpEF.

97 ctivity of GSK-3 were studied in biopsies of vastus lateralis from type 2 and nondiabetic subjects be

98 Comparisons were made between sequential Vastus Lateralis histological specimens and ultrasound a

99 assess intramyocellular lipid storage of the vastus lateralis in both cohorts and the secondary outco

100 with aligned T1p imaging and biopsies of the vastus lateralis in the healthy limb and anterior crucia

101 training, cross-sectional muscle area of the vastus lateralis increased in both groups (4.2 +/- 3.0%

102 Vastus lateralis k was measured in 12 participants using

103 ioned (preceded by a conditioning TMS pulse) vastus lateralis motor-evoked (cMEP) and cervicomedullar

104 A biopsy of the vastus lateralis muscle and submaximal incremental exerc

105 o determine mRNA levels in biopsies from the vastus lateralis muscle at baseline, after 5 and 12 week

106 ne in oxidative capacity per volume of human vastus lateralis muscle between nine adult (mean age 38.

107 mp with [3-(3)H]glucose/indirect calorimetry/vastus lateralis muscle biopsies before and after 16 wee

108 emoral arterial and venous blood samples and vastus lateralis muscle biopsies during a stable isotope

109 lycemic clamps with indirect calorimetry and vastus lateralis muscle biopsies in eight type 2 diabeti

110 e subjects completed 7 days of bed rest with vastus lateralis muscle biopsies obtained before and aft

111 Vastus lateralis muscle biopsies were obtained before an

112 ts with cirrhosis and eight controls, serial vastus lateralis muscle biopsies were obtained before an

113 Before and after the intervention, vastus lateralis muscle biopsies were obtained.

114 Vastus lateralis muscle biopsies were performed to inves

115 bilization upper leg bilateral MRI scans and vastus lateralis muscle biopsies were performed to measu

116 lyses of quadriceps and in vitro analyses of vastus lateralis muscle biopsies were performed.

117 In nine subjects, muscle cells from vastus lateralis muscle biopsies were placed into tissue

118 Venous blood samples and vastus lateralis muscle biopsy samples were obtained dur

119 myofibers and primary myotubes prepared from vastus lateralis muscle biopsy specimens.

120 After each treatment a vastus lateralis muscle biopsy was obtained.

121 Individual vastus lateralis muscle fibers (n = 264) were clipped in

122 Rectus femoris and vastus lateralis muscle fibers were analyzed for cytochr

123 Vastus lateralis muscle fibres from six young men (YM; 2

124 We determined cytokines levels the vastus lateralis muscle from genetically confirmed expPA

125 Mitochondria were isolated from vastus lateralis muscle from lean and insulin-sensitive

126 ene expression profile of 7,070 genes in the vastus lateralis muscle from rhesus monkeys.

127 We studied IkappaB/NFkappaB signaling in vastus lateralis muscle from six subjects with type 2 di

128 Type II muscle fiber area of the vastus lateralis muscle increased with RT for all men co

129 oute for vaccine administration and that the vastus lateralis muscle is preferred over the deltoid mu

130 intramuscular adrenaline into the middle of vastus lateralis muscle is the optimum treatment.

131 Here we report increases in vastus lateralis muscle mitochondrial ATP production cap

132 e-specific phosphorylation of IRS-1 in human vastus lateralis muscle obtained by needle biopsy basall

133 method of single-fiber analysis was used on vastus lateralis muscle obtained by percutaneous biopsy

134 side (42 mm; endothelium-independent) in the vastus lateralis muscle of 17 healthy adults (seven wome

135 microdialysis probes were inserted into the vastus lateralis muscle of 6 healthy male subjects and p

136 compared with controls, rectus abdominis and vastus lateralis muscle of critically ill patients showe

137 T) ; used here as a proxy for LT) within the vastus lateralis muscle of eight young adults during a s

138 e tags from polyadenylated RNA obtained from vastus lateralis muscle of healthy young men.

139 he activities of PKClambda/zeta and PDK-1 in vastus lateralis muscle of lean, obese, and obese/type 2

140 ber number and fiber type composition in the vastus lateralis muscle of the CR50 rats.

141 our weeks later, motoneurons innervating the vastus lateralis muscle of the quadriceps were labeled w

142 methacholine and sodium nitroprusside in the vastus lateralis muscle of young healthy humans.

143 obtained from the involved and non-involved vastus lateralis muscle on 27 subjects who had an anteri

144 ialis muscle was larger in comparison to the vastus lateralis muscle over all the different TD subtyp

145 Needle biopsies samples were taken from the vastus lateralis muscle Pre-ULLS, Post-ULLS and after 3

146 vastus lateralis muscle samples were collected before ex

147 Fast glycolytic white vastus lateralis muscle showed sarcomere degeneration an

148 titial glucose, lactate, and pyruvate in the vastus lateralis muscle using microdialysis.

149 Vastus lateralis muscle was obtained by percutaneous bio

150 Vastus lateralis muscle was obtained by percutaneous bio

151 In additional studies, vastus lateralis muscle was obtained by percutaneous bio

152 Vastus lateralis muscle was obtained from healthy lean i

153 Under local anesthesia, approximately 1 g of vastus lateralis muscle was obtained from six healthy su

154 Vastus lateralis muscle was sampled before, immediately

155 18, and 24 months postburn, a biopsy of the vastus lateralis muscle was taken and snap frozen at -80

156 horus magnetic resonance spectroscopy of the vastus lateralis muscle was used to calculate ATP flux (

157 Similarly, the vastus lateralis muscle weights and fiber cross-sectiona

158 ter, motoneurons innervating the ipsilateral vastus lateralis muscle were labeled with cholera toxin-

159 Needle biopsies of vastus lateralis muscle were obtained before and after e

160 Muscle biopsies from vastus lateralis muscle were obtained from all three gro

161 Biopsies from the vastus lateralis muscle were taken before and after a 5-

162 Biopsies of vastus lateralis muscle were taken before exercise, afte

163 Needle biopsies of vastus lateralis muscle were taken from nine subjects at

164 ere infused, with measurements in plasma and vastus lateralis muscle.

165 sions of stable isotopes and biopsies of the vastus lateralis muscle.

166 c tracers of amino acids and biopsies of the vastus lateralis muscle.

167 iceps femoris muscle group and biopsy of the vastus lateralis muscle.

168 ests and greater cross-sectional area of the vastus lateralis muscle.

169 methacholine and sodium nitroprusside in the vastus lateralis muscle.

170 IGF1 increase was weakly significant only in Vastus lateralis muscle.

171 roximately 15 s isometric contraction of the vastus lateralis muscle.

172 autophagy-related genes were measured in the vastus lateralis muscle.

173 tely the same level of TBC1D1 in biopsies of vastus lateralis muscle.

174 Each subject had two open biopsies of vastus lateralis muscle; one at rest and one 3-6 weeks l

175 evels significantly decrease from midlife in vastus lateralis muscles and highly correlate with muscl

176 Biopsy samples obtained from vastus lateralis muscles of both legs before and after e

177 single motor unit contractions in soleus and vastus lateralis muscles of healthy individuals.

178 ise rapidly activated ERK and aPKCs in mouse vastus lateralis muscles.

179 nd to be consistently down-regulated in OPMD vastus lateralis muscles.

180 f the medialis, the lateral retinaculum, the vastus lateralis obliquus, the iliotibial band, and the

181 vastus lateralis of 13 (11 males, 2 females) healthy lea

182 tractile mechanics of muscle fibres from the vastus lateralis of 13 young (20-32 years, seven women)

183 1); P < 0.001) greater, respectively, in the vastus lateralis of cancer patients than in that of cont

184 04) and cathepsin B and L expressions in the vastus lateralis of cancer patients than in that of cont

185 rotein expressions were also measured in the vastus lateralis of control (n = 7) and cancer (n = 8) p

186 on at task failure (P <= 0.020), and greater vastus lateralis oxygenation (P <= 0.039) during both tr

187 (rest)) in flexor digitorum brevis (FDB) and vastus lateralis prepared from heterozygous (Het) and ho

188 men, muscle biopsies were obtained from the vastus lateralis prior to (Pre), after 1 week and after

189 scle biopsies were collected from the medial vastus lateralis prior to supplementation and pre-, imme

190 The vastus lateralis promoted tendon energy storage and cont

191 om 37,154 nuclei comprising 14 cell types in vastus lateralis samples collected before and 3.5 h afte

192 In vastus lateralis skeletal muscle of individuals homozygo

193 accrual of oxidative damage in rhesus monkey vastus lateralis skeletal muscle.

194 Motoneuronal output was estimated through vastus lateralis surface electromyography (EMG).

195 sured with double barreled microelectrode in vastus lateralis that is disproportional to upregulation

196 ved body composition and strength, increased vastus lateralis thickness, mixed and type II fCSA, myon

197 taken before and after training from the m. vastus lateralis to measure muscle microvascular endothe

198 Muscle biopsies were obtained from m. vastus lateralis twice before, and 100 and 150 min after

199 icomotor excitability of gluteus maximus and vastus lateralis using normalized electromyography (EMG)

200 Biopsies of the vastus lateralis were also collected before and after th

201 Skeletal muscle biopsy specimens from the vastus lateralis were analyzed at 3 and 12 months after

202 Muscle biopsies from m. vastus lateralis were collected, and 1 repetition maximu

203 min, soleus, gastrocnemius, and superficial vastus lateralis were excised for tracer determination.

204 ll as the maximum MEP of gluteus maximus and vastus lateralis were found to exhibit good to excellent

205 Biopsies of vastus lateralis were obtained 24 h before and 72 h afte

206 Percutaneous biopsies of the vastus lateralis were obtained before, immediately after

207 Muscle biopsies from the m. vastus lateralis were obtained from 12 male pediatric bu

208 after prolonged culture, needle biopsies of vastus lateralis were obtained from 8 healthy nondiabeti

209 Percutaneous muscle biopsies of the vastus lateralis were performed in conjunction with leg

210 Samples of the vastus lateralis were taken before and 48 h after SIT.

211 Type I fibers significantly increased in the vastus lateralis with age.

212 d mean power frequency (MPF) response of the vastus lateralis with the VO2 response during repeated b

213 77; soleus) to -0.71 (95% CI, -3.21 to 1.80; vastus lateralis) for MRS FF and -3.09 (95% CI, -7.62 to

214 To test this hypothesis, we measured muscle (vastus lateralis) LCACoA content and insulin action in m

215 rdiorespiratory fitness and skeletal muscle (vastus lateralis) mitochondrial content (citrate synthas

216 for MRS FF and -3.09 (95% CI, -7.62 to 1.45; vastus lateralis) to -0.44 (95% CI, -4.01 to 3.12; hamst

217 hondrial respiration of fibres biopsied from vastus lateralis) was compared with in vivo skeletal mus

218 c clamps were performed and skeletal muscle (vastus lateralis) was obtained in the basal and insulin-

219 Needle biopsies of skeletal muscle (vastus lateralis) were carried out before and after inte

220 Muscle biopsies (vastus lateralis) were examined for myosin heavy chain (

221 cle, compared with fast muscles (e.g., white vastus lateralis).

222 to the module for the other muscle (15% for vastus lateralis).

223 vastus lateralis).

224 The vastus lateralis, a large thigh muscle, undergoes extens

225 d contralateral responses in semitendinosus, vastus lateralis, and lateral gastrocnemius muscles at f

226 graphy (EMG) signals from the left and right vastus lateralis, and left and right erector spinae.

227 GNE-related myopathy, and the gastrocnemius, vastus lateralis, and rectus femoris muscles were evalua

228 letal muscle biopsies were obtained from the vastus lateralis, and we used ingested deuterated water

229 Chronic EMG electrodes were implanted into vastus lateralis, biceps femoris posterior, lateral gast

230 Muscle samples were obtained from vastus lateralis, cultured, and differentiated into myot

231 mma messenger RNA expression was elevated in vastus lateralis, independent of the myosin/actin ratio.

232 In the vastus lateralis, LC3B protein lipidation is increased b

233 cell RNA-seq of mononuclear cells from human vastus lateralis, mouse quadriceps, and mouse diaphragm.

234 ant statistically (triceps versus soleus and vastus lateralis, P < 0.05), were within approximately 1

235 By 36 months, vastus lateralis, rectus femoris and soleus muscles, fro

236 responses bilaterally in the biceps femoris, vastus lateralis, rectus femoris, medial gastrocnemius,

237 2 weeks apart), for the vastus medialis and vastus lateralis, respectively.

238 to 1050 and 1038 single myofibers from human vastus lateralis, respectively.

239 f markedly different fibre-type composition (vastus lateralis, triceps, soleus) after an overnight fa

240 mportant muscles for running, the soleus and vastus lateralis, we investigated physiological mechanis

241 ent factors, regardless of the muscle group (vastus lateralis-medialis and gastrocnemius lateralis-me

242 T) and L(F.OPT):r such as the brachialis and vastus lateralis.

243 s were collected at each time point from the vastus lateralis.

244 nificantly increase the HSP70 content of the vastus lateralis.

245 from two microdialysis probes placed in the vastus lateralis.

246 MRS FF was measured in the soleus and vastus lateralis.

247 odes was 60% for vastus medialis and 45% for vastus lateralis.

248 an skeletal muscle tissue harvested from the vastus lateralis.

249 s, n = 7) and underwent muscle biopsy of the vastus lateralis.

250 nderwater weighing, and muscle biopsy of the vastus lateralis.

251 ased carcass (p = 0.002) and muscle weights (Vastus Lateralis: p < 0.001; Semitendinosus: p = 0.075).

252 as muscle fiber cross-sectional area (fCSA; vastus lateralis; n = 109; age = 22 2 y, BMI = 24.7 3.1

253 men underwent a resting muscle biopsy of the vastus lateralis; they then performed a knee extensor re

254 d to reduce average muscular activity of the vastus medialis (30-60%), rectus femoris (30-38%), and g

255 Vastus lateralis (VL) and vastus medialis (VM) in the rat produce identical knee t

256 The three monoarticular quadriceps muscles (vastus medialis [VM], vastus lateralis [VL], and vastus

257 muscle-specific motor unit modes was 60% for vastus medialis and 45% for vastus lateralis.

258 es of the motor units in two knee extensors (vastus medialis and lateralis, eight men) and two hand m

259 work production: prolonged excitation in the vastus medialis and phase-advanced excitation (both earl

260 rom two quadricep femoris muscles (i.e., the vastus medialis and rectus femoris) and a calf muscle (i

261 two sessions (1 and 2 weeks apart), for the vastus medialis and vastus lateralis, respectively.

262 tuation and stimulation-induced artefacts in vastus medialis electromyographic recordings elicited by

263 positively with higher co-contraction of the vastus medialis medial hamstrings prior to plate movemen

264 instability had higher co-contraction of the vastus medialis medial hamstrings than did those who rep

265 The vastus medialis muscle was larger in comparison to the v

266 Motoneurons innervating the vastus medialis muscle were selectively killed by intram

267 ural drive to the human vastus lateralis and vastus medialis muscles during the production of isometr

268 units (MUs) in the vastus lateralis (VL) and vastus medialis muscles following ACLR.

269 shorter EMD in Vastus Lateralis (p = 0.001), Vastus Medialis Oblique (p = 0.003), and Semitendinosus

270 he Non-CLBP in Vastus Lateralis (p = 0.010), Vastus Medialis Oblique (p = 0.017), Semitendinosus (p =

271 The vastus medialis oblique (VMO) of the QF complex is parti

272 t the medial patellofemoral ligament and the vastus medialis obliquus are the primary restraints to l

273 (n = 10) were administered directly into the vastus medialis of anesthetized dogs.

274 tial doses of insulin were injected into the vastus medialis of one hind limb (INJ); the contralatera

275 s of motor units in the vastus lateralis and vastus medialis were investigated during voluntary force

276 tion, external power-producing muscles (e.g. vastus medialis) showing prolonged excitation and muscle

277 The FFA of the semitendinosus, vastus medialis, gluteus medius, and gastrocnemius muscl

278 r muscles (medial and lateral gastrocnemius, vastus medialis, vastus lateralis and rectus femoris).

279 adduction moment resulted in lower levels of vastus medialis-medial gastrocnemius muscle co-contracti

280 and non-susceptible (MHN) fibres from human vastus medialis.

281 ater GG than men (greatest difference in the vastus medialis: coeff. = 0.214, p < 0.001).

282 The A. vastus mtDNA consisted of a 17,427 base pair circular mo

283 The A. vastus mtDNA showed a typical hexactinellid nucleotide c

284 sment of glycogen and IMCL concentrations in vastus muscles, subjects rested for 24 h and ingested mi

285 ange is a serious and immediate threat to A. vastus, reef dependent communities, and potentially othe

286 One or more of the musculi vastus, the most frequently affected muscle group, were