ライフサイエンスコーパス: cardiorespiratory fitness

1 ody mass index, systolic blood pressure, and cardiorespiratory fitness).

2 1) when compared with patients with adequate cardiorespiratory fitness.

3 behaviour as a means to maintain or improve cardiorespiratory fitness.

4 ence interval = -0.039, -0.011), but not via cardiorespiratory fitness.

5 weight gain, cigarette smoking, and loss of cardiorespiratory fitness.

6 ill graded exercise test was used to measure cardiorespiratory fitness.

7 ate in regular physical activity and improve cardiorespiratory fitness.

8 lerance, but there was less of an effect for cardiorespiratory fitness.

9 term weight loss, exercise participation, or cardiorespiratory fitness.

10 of obesity while simultaneously considering cardiorespiratory fitness.

11 moderate-to-vigorous physical activity, and cardiorespiratory fitness.

12 and ameliorated losses in neuromuscular and cardiorespiratory fitness.

13 nal cardiometabolic risk score also included cardiorespiratory fitness.

14 6%) for BMI and 1.8% (95% CI, 1.0%-2.5%) for cardiorespiratory fitness.

15 Multistage 20-m shuttle run test for cardiorespiratory fitness.

16 role as an exercise-stimulated transducer of cardiorespiratory fitness.

17 ow-up duration between the groups defined by cardiorespiratory fitness.

18 en childhood cognitive functioning and adult cardiorespiratory fitness.

19 itively associated (beta = .45, p<.001) with cardiorespiratory fitness.

20 ociated with 10-14 year-old schoolchildren's cardiorespiratory fitness.

21 relationship between sedentary behaviour and cardiorespiratory fitness.

22 -2.32) for BMI, 0.77 (95% CI, 0.68-0.88) for cardiorespiratory fitness, 1.45 (95% CI, 1.32-1.60) for

23 erage running distance (kilometers per day), cardiorespiratory fitness (10-km footrace performance),

24 cal care unit as younger people with similar cardiorespiratory fitness (13 vs 12; P = 0.08 and 1 vs 1

25 Participants achieved near age-predicted cardiorespiratory fitness (94.7+/-32.5% of age-predicted

26 Cardiorespiratory fitness also declines with age, and th

27 Effects on cardiorespiratory fitness and abdominal obesity are both

28 udy aimed to define the relationship between cardiorespiratory fitness and age in the context of post

29 independent and linked associations between cardiorespiratory fitness and age on postsurgical mortal

30 nsity exercise training was found to improve cardiorespiratory fitness and attenuate cutaneous vasodi

31 mary aim of this study was to investigate if cardiorespiratory fitness and body composition are risk

32 Cardiorespiratory fitness and body fatness are both rela

33 Cardiorespiratory fitness and body mass index (BMI) were

34 The combined associations of changes in cardiorespiratory fitness and body mass index (BMI) with

35 are strong associations between measures of cardiorespiratory fitness and burden of symptoms, qualit

36 ficant epidemiologic observations connecting cardiorespiratory fitness and cancer.

37 scribed cross-sectional associations between cardiorespiratory fitness and CHD risk factors in a larg

38 The association between cardiorespiratory fitness and covariate adjusted decline

39 M1, GMPS, COL18A1 and PRKCA) associated with cardiorespiratory fitness and endurance performance in C

40 SCT is beneficial for preserving a patient's cardiorespiratory fitness and exercise cardiac function.

41 We investigated the impact of cardiorespiratory fitness and exercise training on physi

42 elationships between hard physical activity, cardiorespiratory fitness and health parameters.

43 hese findings support the importance of high cardiorespiratory fitness and healthy body weight during

44 into the biological mechanisms underpinning cardiorespiratory fitness and highlight the importance o

45 Endurance exercise training promotes cardiorespiratory fitness and improves cardiometabolic r

46 re is a graded, inverse relationship between cardiorespiratory fitness and incident AF, especially am

47 The authors examined the association between cardiorespiratory fitness and incident hypertension in w

48 ey were used to describe the distribution of cardiorespiratory fitness and its association with obesi

49 ave demonstrated strong associations between cardiorespiratory fitness and lower cardiovascular disea

50 Markers of inflammation, cardiorespiratory fitness and measures of body compositi

51 udy, we investigated the association between cardiorespiratory fitness and measures of gray matter at

52 2-hour glucose level (primary outcomes) and cardiorespiratory fitness and measures of insulin action

53 Endurance exercise training promotes cardiorespiratory fitness and metabolic health but how g

54 udies have reported the relationship between cardiorespiratory fitness and metabolic syndrome inciden

55 tive tests, there was no association between cardiorespiratory fitness and midlife cognitive function

56 Cardiorespiratory fitness and mitochondrial oxidative ca

57 In summary, modulation of cardiorespiratory fitness and molecular markers of skele

58 inverse, dose-dependent association between cardiorespiratory fitness and mortality is well-establis

59 An inverse association between cardiorespiratory fitness and mortality was robustly dem

60 Both cardiorespiratory fitness and neuromuscular function wer

61 cacy of 2 exercise training dose regimens on cardiorespiratory fitness and patient-reported outcomes

62 High maternal BMI and low levels of cardiorespiratory fitness and physical activity independ

63 ge, during and after treatment) and improves cardiorespiratory fitness and physical function.

64 Low cardiorespiratory fitness and physical inactivity are in

65 een increased levels of physical activity or cardiorespiratory fitness and reduced coronary heart dis

66 nd no weight loss demonstrate that increased cardiorespiratory fitness and reduced intra-abdominal ad

67 We found a positive association between cardiorespiratory fitness and regional gray matter volum

68 The primary outcomes were cardiorespiratory fitness and skeletal muscle (vastus la

69 ned the effects of simvastatin on changes in cardiorespiratory fitness and skeletal muscle mitochondr

70 Simvastatin attenuates increases in cardiorespiratory fitness and skeletal muscle mitochondr

71 Cardiorespiratory fitness and skeletal muscle mitochondr

72 This study sought to evaluate the role of cardiorespiratory fitness and the incremental benefit of

73 High levels of cardiorespiratory fitness and/or habitual physical activ

74 r insulin sensitivity and secretion, greater cardiorespiratory fitness, and a predominantly lower bod

75 cise program in improving physical activity, cardiorespiratory fitness, and blood pressure.

76 strong association among physical activity, cardiorespiratory fitness, and cardiac function.

77 wer incident AMD risk independent of weight, cardiorespiratory fitness, and cigarette use.

78 n among physical activity type and duration, cardiorespiratory fitness, and injury.

79 metabolism, glucose control, blood pressure, cardiorespiratory fitness, and muscular strength.

80 mong type and duration of physical activity, cardiorespiratory fitness, and musculoskeletal injury in

81 ther, and to what extent, physical activity, cardiorespiratory fitness, and obesity at age 16 mediate

82 ect of percent body fat, hand grip strength, cardiorespiratory fitness, and physical activity levels

83 factors influence physical activity levels, cardiorespiratory fitness, and risk of death.

84 es, had their blood drawn, body composition, cardiorespiratory fitness, and strength assessed.

85 djustment or not for key confounders such as cardiorespiratory fitness, and to the lack of consensus

86 hanges in myocardial structure and function, cardiorespiratory fitness, and traditional cardiac risk

87 Moreover, cardiorespiratory fitness appears to be one of the stron

88 Low levels of cardiorespiratory fitness are associated with high risk

89 y while promoting physical activity, ET, and cardiorespiratory fitness are needed throughout the heal

90 Physical activity and cardiorespiratory fitness are not currently recognized a

91 muscle (low percentage of lean mass and low cardiorespiratory fitness) are likely to contribute thes

92 istory of ischemic heart disease, unfit (low cardiorespiratory fitness as determined by maximal exerc

93 no evidence for a neuroprotective effect of cardiorespiratory fitness as of midlife.

94 The primary outcome measures were weight and cardiorespiratory fitness (as measured with the 6-minute

95 HealthKit data from Apple Watch can estimate cardiorespiratory fitness, as compared with the gold sta

96 Body composition, cardiorespiratory fitness (assessed by VO2max ), maximal

97 oper Center Longitudinal Study who underwent cardiorespiratory fitness assessment at a mean age of 49

98 Every 1-minute increment in cardiorespiratory fitness at baseline was associated wit

99 Every 1-minute increment in cardiorespiratory fitness at baseline was associated wit

100 ocardial infarction, peak lung function, and cardiorespiratory fitness at baseline, preservation of c

101 Improvement in cardiorespiratory fitness augments the beneficial effect

102 rences were observed in daily step counts or cardiorespiratory fitness between the groups.

103 Body mass index (BMI), cardiorespiratory fitness, blood pressure, handgrip stre

104 study was to examine the association between cardiorespiratory fitness, body mass index (BMI), and wa

105 ardial infarction, type 2 diabetes mellitus, cardiorespiratory fitness, body mass index, systolic blo

106 Cardiorespiratory fitness, brachial artery flow-mediated

107 d mild anemia might be associated with lower cardiorespiratory fitness but not with anaerobic fitness

108 Exercise training improved cardiorespiratory fitness by 5.0 ml kg(-1) min(-1) (95%

109 Assessments of physical fitness included cardiorespiratory fitness (CF), muscular endurance (ME),

110 rformed to determine the association between cardiorespiratory fitness changes and bronchiectasis.

111 re made for height, weight, body mass index, cardiorespiratory fitness, cognitive ability, and socioe

112 The present review focuses on cardiorespiratory fitness (commonly measured by maximal

113 trategies was greatest in patients with high cardiorespiratory fitness compared to adequate or low ca

114 vity (>/=9 METs) holds greater potential for cardiorespiratory fitness compared to physical activity

115 s additional improvements in S(I), S(G), and cardiorespiratory fitness compared with a sedentary life

116 We review the prognostic utility of cardiorespiratory fitness compared with obesity and the

117 ine sample included fitness measurements for cardiorespiratory fitness (CRF) (running 1.5 km for girl

118 is study sought to determine the capacity of cardiorespiratory fitness (CRF) algorithms without exerc

119 t of a lifestyle intervention and changes in cardiorespiratory fitness (CRF) and body mass index on r

120 al factors influence the association between cardiorespiratory fitness (CRF) and cardiovascular disea

121 Cardiorespiratory fitness (CRF) and endurance performanc

122 It is unclear whether cardiorespiratory fitness (CRF) and physical activity ar

123 A positive association between cardiorespiratory fitness (CRF) and white matter integri

124 ce has firmly established that low levels of cardiorespiratory fitness (CRF) are associated with a hi

125 Cardiorespiratory fitness (CRF) as assessed by formalize

126 features around the home and workplace with cardiorespiratory fitness (CRF) based on a treadmill tes

127 helial function in non-exercisers with lower cardiorespiratory fitness (CRF) but not in exercisers wi

128 <.05) associated with BF%, diastolic BP, and cardiorespiratory fitness (CRF) for the Chu et al PT onl

129 has been shown to be effective in improving cardiorespiratory fitness (CRF) in patients with systoli

130 Poor cardiorespiratory fitness (CRF) is an independent risk f

131 Cardiorespiratory fitness (CRF) is associated with morta

132 Cardiorespiratory fitness (CRF) is inversely associated

133 It is well established that cardiorespiratory fitness (CRF) is inversely associated

134 Cardiorespiratory fitness (CRF) is not routinely measure

135 Cardiorespiratory fitness (CRF) levels appear to be an i

136 Low cardiorespiratory fitness (CRF) may contribute to CV ris

137 It has been suggested that cardiorespiratory fitness (CRF) may preserve and enhance

138 Evidence on the effect of cardiorespiratory fitness (CRF) on age-related longitudi

139 Despite the wide effects of cardiorespiratory fitness (CRF) on metabolic, cardiovasc

140 Cardiorespiratory fitness (CRF) refers to the capacity o

141 An increase in cardiorespiratory fitness (CRF) through exercise trainin

142 rength, muscular endurance, flexibility, and cardiorespiratory fitness (CRF) were performed in 22 int

143 Prospective data relating cardiorespiratory fitness (CRF) with nonfatal cardiovasc

144 ave examined the association between LTL and cardiorespiratory fitness (CRF), an enduring trait influ

145 the individual and joint associations among cardiorespiratory fitness (CRF), body mass index, and he

146 ted the association between overall diet and cardiorespiratory fitness (CRF).

147 45.9 +/- 12.7 years) completed assessment of cardiorespiratory fitness (CRF, VO(2peak)), muscle stren

148 A low level of cardiorespiratory fitness [CRF; defined as peak oxygen u

149 d self-reported physical activity, predicted cardiorespiratory fitness (cycle ergometer test), obesit

150 ise set of features extracted from patients' cardiorespiratory fitness data, our framework minimizes

151 Cardiorespiratory fitness (determined by a maximal exerc

152 Individuals' high cardiorespiratory fitness did not protect against declin

153 Aerobic training further improves cardiorespiratory fitness during calorie restriction.

154 Higher cardiorespiratory fitness during childhood is associated

155 ar function in individuals with high and low cardiorespiratory fitness during sitting.

156 Data were collected on cardiorespiratory fitness (e.g., peak oxygen uptake), di

157 Cardiorespiratory fitness (fitness) is associated with c

158 Cardiorespiratory fitness ("fitness") is related with lo

159 To determine the association among cardiorespiratory fitness ("fitness"), adiposity, and mo

160 milar if not indeed superior improvements in cardiorespiratory fitness for a given training volume an

161 hard physical activity were associated with cardiorespiratory fitness for boys (F = 5.64, p<.01) whe

162 sed national levels of physical activity and cardiorespiratory fitness for primary and secondary CHD

163 eficial effects of physical activity /ET and cardiorespiratory fitness for the prevention of chronic

164 All groups showed an increase in cardiorespiratory fitness from baseline to 18 months, wi

165 arable improvements in physical activity and cardiorespiratory fitness from baseline to 24 months.

166 demonstrated benefits in muscular strength, cardiorespiratory fitness, functional task performance,

167 ty decreased significantly in the group with cardiorespiratory fitness gain >/=2 METs as compared to

168 ts effect on AF recurrence or the benefit of cardiorespiratory fitness gain is unknown.

169 Impact of cardiorespiratory fitness gain was ascertained by the ob

170 Participants with better cardiorespiratory fitness had higher cognitive test scor

171 Higher cardiorespiratory fitness has been associated with impro

172 rbidity and mortality, but the prevalence of cardiorespiratory fitness has not been quantified in rep

173 Cardiometabolic risk and low cardiorespiratory fitness have been linked to age-relate

174 ellitus, abnormal resting ECG responses, and cardiorespiratory fitness, hazard ratios (95% confidence

175 s well known, there is a lack of data on how cardiorespiratory fitness (hereafter referred to as fitn

176 Cardiorespiratory fitness, homeostasis model assessment

177 Exercise training improves cardiorespiratory fitness (i.e., systemic oxidative meta

178 y secondary outcomes included changes in (i) cardiorespiratory fitness; (ii) cardiovascular risk fact

179 atory fitness and the incremental benefit of cardiorespiratory fitness improvement on rhythm control

180 Here, we examine genetic determinants of cardiorespiratory fitness in 450k European-ancestry indi

181 Further adjustment for cardiorespiratory fitness in a subset of 572610 men with

182 y living skills, overall quality of life and cardiorespiratory fitness in adults with schizophrenia;

183 chronic diseases and is associated with low cardiorespiratory fitness in adults.

184 ive breastfeeding has a beneficial effect on cardiorespiratory fitness in children and adolescents.

185 ysical activity subcomponents are related to cardiorespiratory fitness in children.

186 ercise testing as an objective assessment of cardiorespiratory fitness in clinical oncology research

187 However, the role of adolescent cardiorespiratory fitness in CVD may have been overstate

188 se relationship between cancer incidence and cardiorespiratory fitness in large population studies.

189 Higher cardiorespiratory fitness in middle age is strongly asso

190 tion of health care costs in later life with cardiorespiratory fitness in midlife after adjustment fo

191 e, is associated with modest improvements in cardiorespiratory fitness in patients previously treated

192 e, fat-free mass (FFM), and fat mass (FM) on cardiorespiratory fitness in pediatric renal transplant

193 -reported leisure-time physical activity and cardiorespiratory fitness in the elderly.

194 ctivity, exercise training (ET), and overall cardiorespiratory fitness in the prevention and treatmen

195 d consider the potential benefits of greater cardiorespiratory fitness in the primary prevention of m

196 /m(2)), physical activity (in km/d run), and cardiorespiratory fitness (in m/s during 10-km footrace)

197 Cardiorespiratory fitness increased by 10% (p < 0.05) in

198 Low cardiorespiratory fitness increases the risk for cardiom

199 exercise training (i.e. body composition and cardiorespiratory fitness) influence this response.

200 Low cardiorespiratory fitness is a heritable trait associate

201 Low cardiorespiratory fitness is a strong and independent pr

202 Low cardiorespiratory fitness is an established risk factor

203 Cardiorespiratory fitness is an important marker of chil

204 Cardiorespiratory fitness is an independent predictor of

205 Poor cardiorespiratory fitness is an independent risk factor

206 Cardiorespiratory fitness is an integrative measure of c

207 A high level of cardiorespiratory fitness is associated with a lower ris

208 Higher cardiorespiratory fitness is associated with lower risk

209 It is not known whether physical activity or cardiorespiratory fitness is associated with the onset o

210 Cardiorespiratory fitness is favorably associated with m

211 Cardiorespiratory fitness is impaired in type 2 diabetes

212 On the other hand, high cardiorespiratory fitness is known to be a strong predic

213 training (ET) leading to improved levels of cardiorespiratory fitness is needed in all age groups, r

214 ramming effect of exclusive breastfeeding on cardiorespiratory fitness is of public health interest.

215 Although cardiorespiratory fitness is protective against incident

216 Cardiorespiratory fitness is the most important variable

217 One consequence of inactivity, low cardiorespiratory fitness, is an established risk factor

218 Mean (SD) cardiorespiratory fitness levels also increased signific

219 Cardiorespiratory fitness levels were assessed between 1

220 r duration of physical activity per week and cardiorespiratory fitness levels.

221 r from oxidative to glycolytic type, reduced cardiorespiratory fitness, loss of muscle mass and stren

222 Cardiorespiratory fitness (maximum oxygen uptake (VO2max

223 Results suggest that cardiorespiratory fitness may be a surrogate for unmeasu

224 Energy metabolism, BC, and cardiorespiratory fitness may be associated with weight

225 These data indicate that enhanced levels of cardiorespiratory fitness may confer resistance to eleva

226 Cardiorespiratory fitness measured by a maximal exercise

227 ral adipose tissue [VAT], and lean mass) and cardiorespiratory fitness measured by peak oxygen uptake

228 nts were associated with distinct aspects of cardiorespiratory fitness (measured by VO2) during initi

229 Cardiorespiratory fitness [measured by the predicted max

230 al oxidative capacity alone or combined with cardiorespiratory fitness mediated ~20-70% of the differ

231 improvements in SI and that only EX improved cardiorespiratory fitness, mitochondrial respiration and

232 Exercise improved cardiorespiratory fitness (moderate ES).

233 tive functioning predisposed to better adult cardiorespiratory fitness (neuroselection).

234 Low cardiorespiratory fitness, obesity, and the combination

235 well as the effect of physical activity and cardiorespiratory fitness on cardiovascular diseases.

236 , there are few data regarding the effect of cardiorespiratory fitness on health care costs independe

237 activity/exercise training, and increases in cardiorespiratory fitness on the prognosis of obese pati

238 Move and OnTrack resulted in less decline in cardiorespiratory fitness (P < .001), better physical fu

239 >/=2 compared to those with METs gain <2 in cardiorespiratory fitness (p < 0.001 for both).

240 piratory fitness compared to adequate or low cardiorespiratory fitness (p < 0.001 for both).

241 g program (25+/-9 miles/wk) led to increased cardiorespiratory fitness (peak oxygen consumption, 44.6

242 a trend for favorable effects of exercise on cardiorespiratory fitness (peak oxygen uptake or 6-min w

243 Cardiorespiratory fitness (peak oxygen uptake) was measu

244 Exercise training has been shown to improve cardiorespiratory fitness, physical capacity, and qualit

245 Exercise has been shown to improve cardiorespiratory fitness, physical functioning, body co

246 tic information beyond resting variables and cardiorespiratory fitness, potentially refining risk str

247 Cardiorespiratory fitness predicts arrhythmia recurrence

248 ercise ECG responses, with stratification by cardiorespiratory fitness, quantified as treadmill test

249 those without CHD into age- and sex-specific cardiorespiratory fitness quintiles.

250 ciation was found between sedentary time and cardiorespiratory fitness (r = -.13, p>.05).

251 It is also possible that low cardiorespiratory fitness, rather than overweight or obe

252 tivities of daily living, communication, and cardiorespiratory fitness results in disability, handica

253 Every 5% increment in cardiorespiratory fitness retained through year 20 was a

254 6), and the estimated HR per 5% increment in cardiorespiratory fitness retained throughout midlife wa

255 included physical activity (steps per day), cardiorespiratory fitness, self-efficacy, healthy living

256 ity, objectively measured physical activity, cardiorespiratory fitness, self-reported sports particip

257 Patients older than 75 years with low cardiorespiratory fitness spent a median of 11 days long

258 Older people with normal cardiorespiratory fitness spent the same number of days

259 Cardiorespiratory fitness (standardized odds ratio: 0.33

260 ring cancer treatment led to improvements in cardiorespiratory fitness, strength, fatigue, and other

261 nsitions revealed little variability between cardiorespiratory fitness tertiles.

262 axial accelerometers and undertook a maximal cardiorespiratory fitness test.

263 BMI, greater physical activity, and greater cardiorespiratory fitness, the latter being statisticall

264 arch is needed to clarify the association of cardiorespiratory fitness timing across the life course

265 -intensity interval training (HIIT) improves cardiorespiratory fitness (VO(2)max), but its impact on

266 Secondary outcomes measured were cardiorespiratory fitness (VO2 peak) and body compositio

267 Exercise improved cardiorespiratory fitness (VO2 peak) compared with the C

268 body fat distribution (computed tomography), cardiorespiratory fitness (VO2max on a treadmill), physi

269 Healthy older adults exhibit lower cardiorespiratory fitness ( VO2peak ) than young in the

270 In this analysis, low cardiorespiratory fitness was a strong and independent p

271 Cardiorespiratory fitness was assessed as maximal oxygen

272 Cardiorespiratory fitness was assessed by a maximal trea

273 Adult cardiorespiratory fitness was assessed using a submaxima

274 Cardiorespiratory fitness was assessed using the Multi-S

275 Low cardiorespiratory fitness was associated with increased

276 iratory fitness at baseline, preservation of cardiorespiratory fitness was associated with lower odds

277 n a long-term follow-up, the preservation of cardiorespiratory fitness was associated with lower odds

278 To determine a dose response, cardiorespiratory fitness was categorized as: low (<85%)

279 Cardiorespiratory fitness was determined according to th

280 Cardiorespiratory fitness was determined by a maximal in

281 Cardiorespiratory fitness was estimated by maximal metab

282 Cardiorespiratory fitness was estimated from a symptom-l

283 In the fully adjusted models, cardiorespiratory fitness was independently associated w

284 To determine whether cardiorespiratory fitness was longitudinally associated

285 Cardiorespiratory fitness was measured as peak metabolic

286 Cardiorespiratory fitness was measured with a 6-minute e

287 1.50 MJ/day, P = 0.01), but no difference in cardiorespiratory fitness was noted between groups.

288 Baseline cardiorespiratory fitness was quantified as duration of

289 Better cardiorespiratory fitness was significantly associated w

290 Low cardiorespiratory fitness was strongly associated with l

291 Significant weight loss and improved cardiorespiratory fitness were achieved through the comb

292 Following HIIT, improvements in RA cardiorespiratory fitness were associated with changes i

293 In addition, men with greater cardiorespiratory fitness were at significantly less ris

294 mass index (weight (kg)/height (m)(2)), and cardiorespiratory fitness were measured at the time of t

295 chool-based intervention improved children's cardiorespiratory fitness when delivered in a large numb

296 entify relationships between improvements in cardiorespiratory fitness with changes in peripheral T c

297 sociations of habitual physical activity and cardiorespiratory fitness with IHTG and the prevalence o

298 The implications of cardiorespiratory fitness with prognosis are discussed,

299 cent studies investigated the association of cardiorespiratory fitness with white matter microstructu

300 phenotype imparted by low parental (inborn) cardiorespiratory fitness would be overcome by early-lif