ライフサイエンスコーパス: resistance exercise

1 ore, during, and for 2 h following a bout of resistance exercise.

2 l calcitonin with the osteogenic stimulus of resistance exercise.

3 nhibition of muscle protein synthesis during resistance exercise.

4 ulation of protein synthesis following acute resistance exercise.

5 otentially affect the adaptations to chronic resistance exercise.

6 o Sprague-Dawley rats 2 h prior to a bout of resistance exercise.

7 immediate phase of recovery following acute resistance exercise.

8 iduals and is compatible with high-intensity resistance exercise.

9 d drugs to augment the beneficial effects of resistance exercise.

10 dation in skeletal muscle is increased after resistance exercise.

11 eir DEN and expended 837 kJ/d in walking and resistance exercise.

12 an age 52 +/- 10 years) that did not perform resistance exercise.

13 onducted to evaluate the cognitive effect of resistance exercise.

14 ed to increase following ultra-endurance and resistance exercise.

15 000 +/- 69,900 particles/min during a set of resistance exercise.

16 ULLS) period, followed by 21-day AR based on resistance exercise.

17 fluenced neither MPS, nor MPB in response to resistance exercise.

18 phenylalanine and performed an acute bout of resistance exercise.

19 for skeletal muscle anabolism in response to resistance exercise.

20 an skeletal muscle after a high-fat diet and resistance exercise.

21 otein synthesis rates after an acute bout of resistance exercise.

22 ine infusions and performed a single bout of resistance exercise.

23 n enhanced mRNA translational capacity after resistance exercise.

24 l therapy, and 3.0 (1.0-5.0) for progressive resistance exercise.

25 bute to the rapamycin-independent effects of resistance exercise.

26 of motion, physical therapy, and progressive resistance exercise.

27 with measures of skeletal muscle response to resistance exercise.

28 t of PGC-1alpha4 and is induced in humans by resistance exercise.

29 ositive response to short-term and long-term resistance exercise.

30 lly induced in mouse and human muscle during resistance exercise.

31 nthesis and degradation, may be activated by resistance exercise.

32 anabolic resistance of signalling and MPS to resistance exercise.

33 ase; P<.05) more than did the stretching and resistance exercises.

34 rcise goals were at least moderate-intensity resistance exercise 2 times/wk and at least moderate-int

35 heart rate reserve), and (3) stretching and resistance exercises (2 sets of 10 repetitions on each l

36 g, 50-75% heart rate reserve), RT (n = 14, 6 resistance exercises, 4 x 12 repetitions, 60% maximum st

37 d fat)] combined with supervised aerobic and resistance exercise (60 min; 3 d/wk).

38 rcise (12% increase; P=.001), stretching and resistance exercises (9% increase; P<.02), and higher-in

39 xamine the systemic effects of endurance and resistance exercise across a range of ages and fitness l

40 ways through which insulin, amino acids, and resistance exercise act to regulate the protein kinase c

41 Here, we show that acute resistance exercise activated pathways controlling trans

42 eferentially induces PGC-1alpha1 expression, resistance exercise activates the expression of PGC-1alp

43 e participants were randomly assigned to the resistance exercise, aerobic exercise, diet, combined re

44 During a set of isokinetic resistance exercise, aerosol particle emission increased

45 To determine whether resistance exercise affects TNF-alpha expression, frail

46 ed resistance plus aerobic exercise, but not resistance exercise alone, improved composite CVD risk p

47 It is advisable to include resistance exercises alongside aerobic and HIIT programs

48 domized clinical trial, a 3-month program of resistance exercise among adults after COVID-19 infectio

49 rapamycin was unaltered in response to both resistance exercise and amino acid provision.

50 Resistance exercise and branched chain amino acid (BCAA)

51 protein synthesis (MPS) rates acutely after resistance exercise and can offset age-related loss in m

52 th the acute cellular response to heavy-load resistance exercise and demonstrated tentative long-term

53 e exercise, aerobic exercise, diet, combined resistance exercise and diet, combined aerobic exercise

54 of 40 min at 65% VO(2peak), (RES + MIC); (3) resistance exercise and high intensity interval cycling

55 Furthermore, resistance exercise and lower intensity muscular conditi

56 xercise (RES), 6 x 8 squats at 80% 1-RM; (2) resistance exercise and moderate intensity cycling of 40

57 R-1 is highly responsive to both aerobic and resistance exercise and NOR-1 overexpression is coincide

58 and contemporary work that has examined how resistance exercise and nutrition impact on MPS and MPB.

59 most rigorous evidence regarding efficacy of resistance exercise and provides a primer for putative p

60 ulated during the immediate period following resistance exercise and this response may constitute the

61 the first 24 h following a standard bout of resistance exercise, and this response is not altered wi

62 Resistance exercise appears to increase the efficiency o

63 The molecular responses to acute resistance exercise are well characterized.

64 gest support for the inclusion of structured resistance exercise as part of breast cancer treatment a

65 muscle anabolic signalling were affected by resistance exercise at 20-90% of 1 repetition maximum (1

66 rosol particle emission during an isokinetic resistance exercise at 80% of the maximal voluntary cont

67 to determine the effect of a single bout of resistance exercise at different intensities on the mobi

68 e bout of multiple joint, structural barbell resistance exercises (back squat, press, and deadlift) w

69 gated whether low-load blood flow restricted resistance exercise (BFRRE) or remote ischemic condition

70 In contrast, we found that an acute resistance exercise bout activates glycolysis in an AMPK

71 The resistance exercise bout caused an increase in phosphory

72 se in 3MH release during the 4 h following a resistance exercise bout compared with a non-exercised c

73 ys of bed-rest from six control (BR) and six resistance-exercised (BRE) men to examine slow- and fast

74 subcellular events occurring in response to resistance exercise by providing a time course of activi

75 Resistance exercise can stimulate muscle protein synthes

76 Resistance exercise causes little change in amino acid o

77 Squatting, a traditional resistance exercise classified as strength training, rel

78 n = 16), an experimental group with aerobic-resistance exercise combined with a high-protein, low-gl

79 The effects of resistance exercise combined with testosterone supplemen

80 Surprisingly, rapamycin treatment prior to resistance exercise completely blocked the contraction-i

81 trial that evaluated the effects of aerobic-resistance exercise, computerized cognitive training, an

82 Six months of resistance exercise, consisting of low back exercise tha

83 ained from 12 healthy young men 15 min after resistance exercise contained GH concentrations that wer

84 med to determine if a program of aerobic and resistance exercise could safely achieve body compositio

85 Resistance exercise decreased skeletal muscle miR-1 expr

86 ic efficacy of a 6-month program of specific resistance exercise designed to reverse glucocorticoid-i

87 he hypotheses that a 6-month intervention of resistance exercise did not increase the risk for or exa

88 Effect of resistance exercise dose components for tendinopathy man

89 oviders should recommend regular aerobic and resistance exercise during active treatment with curativ

90 rotein and inclusion of exercise (especially resistance exercise) during weight loss; new pharmacolog

91 mbrane phospholipids than HIIT, suggesting a resistance exercise effect on cellular membrane protecti

92 e groups: an experimental group with aerobic-resistance exercise (EG, n = 16), an experimental group

93 guidelines and to pursue a regimen of muscle resistance exercises (eg, squats, push-ups) and balance

94 Both aerobic exercise and resistance exercise enhance muscle protein synthesis and

95 (HFD) alone (Sed-HFD) or in combination with resistance exercise (Ex-HFD), using genome-wide profilin

96 rticipants were given 3 months of home-based resistance exercise focusing on the quadriceps muscles.

97 The intervention promoted aerobic and resistance exercise for 16 weeks.

98 -training group performed progressive weight-resistance exercises for the upper and lower body.

99 e participants' training involved heavy-load resistance exercise four times per week.

100 The resistance exercise group had an 8% lower score on the p

101 plant recipients were randomly assigned to a resistance exercise group that trained for 6 months (mea

102 y of studies have examined aerobic training, resistance exercise has also been shown to be inversely

103 Furthermore, resistance exercise has been proposed to activate mTOR s

104 This type of resistance exercise improved the information processing

105 Only the stretching and resistance exercises improved muscle strength.

106 mmediately, 1 and 3 h after an acute bout of resistance exercise in a fed (FED; 20 g Protein/40 g car

107 uscle is not more anabolically responsive to resistance exercise in a particular menstrual cycle phas

108 in other cell types, were upregulated after resistance exercise in a rapamycin-independent manner an

109 The beneficial effects of resistance exercise in aging populations are unequivocal

110 gistic effect of protein supplementation and resistance exercise in aging populations.

111 s, or lifestyle changes that include regular resistance exercise in attenuating lean-tissue loss with

112 Participants performed unilateral resistance exercise in each menstrual cycle phase, exerc

113 fore and for 24 h following a single bout of resistance exercise in eight young (27 +/- 2 years) and

114 ofibrillar protein breakdown (MPB) following resistance exercise in females (n = 12) in their follicu

115 es to increase long-term compliance to heavy resistance exercise in healthy older adults.

116 le protein synthesis during an acute bout of resistance exercise in humans would be associated with a

117 he functional and structural consequences of resistance exercise in knee OA, stratification of analys

118 tial for the beneficial metabolic effects of resistance exercise in mice.

119 tivated at rest and in response to a bout of resistance exercise in skeletal muscle of young and old

120 and (2) muscle and metabolic adaptations to resistance exercise in South Asian and white European ad

121 Following resistance exercise in the fasted state, both protein sy

122 Our data show no greater anabolic effect of resistance exercise in the follicular vs. the luteal pha

123 tudy show an attenuated MGF response to high resistance exercise in the older subjects, indicative of

124 al stimulation of the sciatic nerve to mimic resistance exercise in the tibialis anterior (TA) muscle

125 reakdown in response to 6 days of controlled resistance exercise in young females during peak oestrog

126 Resistance exercise increases muscle protein synthesis a

127 Protein consumed after resistance exercise increases postexercise muscle protei

128 able load during feeding, to investigate the resistance exercise-induced contractile and metabolic ad

129 eve these findings support the hypothesis of resistance exercise-induced mitochondrial gene-shifting

130 target of rapamycin (mTOR) signaling to the resistance exercise-induced stimulation of skeletal musc

131 We propose this ability can reduce or limit resistance exercise-induced, Ca(2+)-dependent damage to

132 Resistance exercise induces a hypertrophic response in s

133 al loading, such as that which occurs during resistance exercise, induces radial growth of muscle fib

134 intervention group received the personalized resistance exercise intervention for 3 months, and the c

135 These findings suggest that concise resistance exercise intervention holds the potential to

136 ysis of the effects of a 16-week aerobic and resistance exercise intervention on MOTS-c in Hispanic a

137 Resistance exercise is a potent stimulator of muscle pro

138 Progressive resistance exercise is an effective therapy for rheumato

139 ry response in muscle after an acute bout of resistance exercise is associated with single nucleotide

140 Resistance exercise is currently the mainstay of treatme

141 derlie the fact that muscle growth following resistance exercise is decreased by concurrent endurance

142 Because resistance exercise is known to serve as a stimulus for

143 Our results suggest that resistance exercise is osteogenic and should be initiate

144 egulation in skeletal muscle following acute resistance exercise is poorly understood.

145 Mechanical loading, through progressive resistance exercise, is an osteogenic stimulus in HTR.

146 tibility in adaptation between endurance and resistance exercise, it now seems likely that multiple i

147 Resistance exercise led to a prolonged (6-36 h) elevatio

148 Concurrently, resistance exercise led to the dissociation of TSC2 from

149 exercised (response to combined feeding and resistance exercise) leg.

150 Participants reported weekly time spent on resistance exercise, lower intensity muscular conditioni

151 Conversely, resistance exercise, mainly by activating mammalian targ

152 es to age-associated muscle wasting and that resistance exercise may attenuate this process by suppre

153 The combination of treadmill and resistance exercises may result in greater benefit and r

154 th high dietary protein density and habitual resistance exercise mediates muscle protein subfraction

155 with moderate or high-intensity progressive resistance exercise might maintain or improve bone mass

156 ponses to a single acute bout of aerobic and resistance exercise, more robust phosphoproteomic and me

157 nce (n = 10, 45 min cycling, 70% VO2max ) or resistance exercise (n = 10, 4 x 7 x 2 exercises); 10 co

158 d calcitonin and participated in 6 months of resistance exercise (n=10) or to a group that received o

159 ise (MedX) performed 1 day/week and variable resistance exercises (Nautilus) performed 2 days/week.

160 Nine male subjects performed resistance exercise on 4 occasions and were randomly sup

161 did not potentiate the effect of aerobic or resistance exercise on CERAD-TS.

162 y aimed to determine (1) the effect of acute resistance exercise on mechanisms of ribosome biogenesis

163 Beneficial effects of resistance exercise on metabolic health and particularly

164 , with traditional dynamic constant external resistance exercise on myoelectric activity during elbow

165 process, we studied the effects of aging and resistance exercise on TNF-alpha expression in human mus

166 cult to draw conclusions about the effect of resistance exercises on information processing speed and

167 transplantation and after 3 and 6 months of resistance exercise or a control period.

168 st that additional exercise modalities (e.g. resistance exercise) or other therapeutic interventions

169 taric acid (AKG) is a metabolic signature of resistance exercise performance.

170 as attenuated by a single bout of unilateral resistance exercise performed the evening prior to bed-r

171 In 2012, heavy resistance exercise plus good nutritional and vitamin D

172 eronegative men, synergy between progressive resistance exercise (PRE) and very high-dose testosteron

173 Nandrolone decanoate and resistance exercise produced anabolic effects among pati

174 e older adults during a hypocaloric diet and resistance exercise program and might therefore reduce t

175 a randomized clinical trial, an aerobic plus resistance exercise program improved cardiometabolic hea

176 An aerobic exercise program, a resistance exercise program, and a health education prog

177 from participating in either an aerobic or a resistance exercise program.

178 aintenance of whole muscle function with the resistance exercise programme is probably explained by (

179 Our data suggest that testosterone and resistance exercise promote gains in body weight, muscle

180 ntractions, such as those which occur during resistance exercise, promote an increase in muscle mass.

181 ected by bed-rest and less influenced by the resistance exercise protocol than the MHC IIa fibres.

182 , this 'muscle-full set-point' is delayed by resistance exercise (RE) (i.e. the feeding x exercise co

183 Resistance exercise (RE) activates signalling by the mam

184 MYC transcription are associated with acute resistance exercise (RE) and are distinct from endurance

185 al muscle after acute (anabolic) and chronic resistance exercise (RE) induced hypertrophy have been e

186 te hypertrophy, alone or in combination with resistance exercise (RE) interventions, on lean body mas

187 ctations in psychological responses to acute resistance exercise (RE) is largely unknown.

188 We investigated the effect of prior resistance exercise (RE) on MyoPS and muscle morphology

189 n exhibited greater activation of S6K during resistance exercise (RE) while dehydrated compared to wh

190 the effects of aerobic exercise (AE) versus resistance exercise (RE) without caloric restriction on

191 ized that lactate accumulation at the end of resistance exercise (RE) would be reduced if MIAE is per

192 d two baseline assessments and three trials: resistance exercise (RE), aerobic exercise (AE), or a re

193 ttle is known about the relationship between resistance exercise (RE), alone and in combination with

194 e content and characteristics in response to resistance exercise (RE), and whether macrophages are as

195 d capacity to induce muscle hypertrophy with resistance exercise (RE), which may contribute to the ag

196 ion (and the ensuing hyperaminoacidemia) and resistance exercise (RE).

197 tudy examined the intramuscular responses to resistance-exercise (RE) in RE-trained men under dehydra

198 ive arms (ie, arms 1 through 4) with aerobic-resistance exercise regardless of the addition of cognit

199 to mediate muscle remodeling in response to resistance exercise, regulating the activity of numerous

200 is was followed by 8 weeks of high intensity resistance exercise (REHAB).

201 lecular mechanisms underlying adaptations to resistance exercise remains elusive despite the signific

202 Eight male cyclists completed (1) resistance exercise (RES), 6 x 8 squats at 80% 1-RM; (2)

203 Six months of resistance exercise restored BMD of the whole body, femu

204 s the lumbar spine and a regimen of variable resistance exercises, restores BMD toward pretransplanta

205 High resistance exercise resulted in a significant increase i

206 he ingestion of whole eggs immediately after resistance exercise resulted in greater stimulation of m

207 Resistance exercise resulted in rapid translocation of m

208 or LP (0.8 g . kg(-1) . d(-1)) in rested and resistance exercise (REX) conditions.

209 generally accepted that muscle adaptation to resistance exercise (REX) training is underpinned by con

210 With resistance exercise, ribosome biogenesis was associated

211 tate at rest and about 3 h after a heavy leg resistance exercise routine.

212 teralis; they then performed a knee extensor resistance exercise session (29 contractions at approxim

213 Thirty-eight women performed a resistance exercise session at an intensity of 60% (n =

214 ise session was sixfold higher than during a resistance exercise session when assuming one infected p

215 ng male participants completed thrice-weekly resistance exercise sessions for 10 weeks.

216 The combined aerobic and resistance exercise sessions were performed twice a week

217 e the risk of infection during endurance and resistance exercise sessions with different mitigation s

218 Resistance exercise significantly improved information p

219 trials evaluating the impact of aerobic and resistance exercise, specific diets and foods, and inten

220 We observed that resistance exercise stimulated MPS, but there was no eff

221 In conclusion, acute resistance exercise stimulated rapamycin-sensitive and -

222 ug interventions include fall prevention and resistance exercises, supplementation with calcium, vita

223 function recovery in response to 21 days of resistance exercise that followed 10 days of unilateral

224 lammation of skeletal muscle following acute resistance exercise that may potentially affect the adap

225 investigated aerobic exercise, three studies resistance exercise, three studies mind-body therapies a

226 iable intensity programs and the addition of resistance exercise to a standard aerobic prescription.

227 pregulated following 14 weeks of progressive resistance exercise training (PRT).

228 ken 20 weeks of fully supervised, whole-body resistance exercise training (RET) (72.8 +/- 1.4 years;

229 Resistance exercise training (RET) can rejuvenate limb b

230 Resistance exercise training (RET) has a beneficial effe

231 Resistance exercise training (RET) is an effective count

232 Chronic resistance exercise training (RET) is largely understudi

233 Resistance exercise training (RET) is one of the most ef

234 Resistance exercise training (RET) is widely used to inc

235 Resistance exercise training (RET) leads to marked inter

236 al effects of combined NSAID consumption and resistance exercise training (RET) on muscle cross-secti

237 The salutary benefits of resistance exercise training (RET), a potential alternat

238 erable interindividual variability exists in resistance exercise training (RET)-induced muscle hypert

239 ated with impaired hypertrophic responses to resistance exercise training (RET).

240 All subjects performed resistance exercise training combined with high-intensit

241 n) or placebo injections and lower extremity resistance exercise training for 12 wk during hemodialys

242 Late-life combined endurance-resistance exercise training from 22-24 months of age in

243 Resistance exercise training had smaller but qualitative

244 ences between the ethnicities in response to resistance exercise training in body fat, resting carboh

245 atory drug (NSAID) ingestion over 84 days of resistance exercise training increased muscle cross-sect

246 whether anabolic steroid administration and resistance exercise training induce anabolic effects amo

247 Endurance and resistance exercise training induces specific and profou

248 ed study designed to determine the effect of resistance exercise training on bone metabolism in heart

249 randomized to either a combined aerobic and resistance exercise training program following RYGB (RYG

250 A moderate intensity endurance and resistance exercise training program improves muscle per

251 3 5 years) completed a 12-week endurance and resistance exercise training program.

252 sing weight pulling, a validated progressive resistance exercise training regimen, in mice fed either

253 regulation of energetics machinery, whereas resistance exercise training regulates phosphoproteomic

254 In response to resistance exercise training there were no differences,

255 trial of anabolic steroid administration and resistance exercise training was conducted in 79 patient

256 s interventions, including aerobic training, resistance exercise training, and combined training prog

257 asured at baseline and following 12 weeks of resistance exercise training.

258 weeks of high-intensity aerobic interval or resistance exercise training.

259 re impacted by acute and chronic aerobic and resistance exercise training.

260 ccurring with ageing muscle before and after resistance exercise/training.

261 of target dose), and 3 sets of 10 reps of 3 resistance exercises twice weekly for 12 weeks, without

262 chanical loading associated with progressive resistance exercise, using a specific exercise that isol

263 ciated mechanism for the salutary effects of resistance exercise, using AKG as a systemically derived

264 Resistance-exercise volume is a determinant of training

265 bundance after a single bout of unaccustomed resistance exercise was associated with myofibre hypertr

266 Resistance exercise was initiated 2 months after transpl

267 Resistance exercise was initiated at 2 months after tran

268 To address this issue, a familiarization of resistance exercise was introduced before the strength t

269 ested, weight loss plus combined aerobic and resistance exercise was the most effective in improving

270 entions alone, resistance training alone, or resistance exercise with a healthy diet on cognition.

271 hrough PI3K-PKB and mTOR following a bout of resistance exercise with eccentric contractions (EC).

272 ial, older adults with MCI receiving aerobic-resistance exercises with sequential computerized cognit

273 ophy and accelerate strength gain induced by resistance exercise without negative effects on fat mass

274 hesis or anabolic and metabolic responses to resistance exercise, yet there were less favourable resp

275 e-strengthening and conditioning activities (resistance exercise, yoga, stretching, toning) is associ