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1 Cox models and explored an interaction with exercise training.
2 or the prediction of the VO2 max response to exercise training.
3 scular dysfunction are reversed by late-life exercise training.
4 ronal precursor cell proliferation following exercise training.
5 d related signalling pathways in response to exercise training.
6 r treating multiple defects at once, as with exercise training.
7 ny of the adaptations that accompany chronic exercise training.
8 ameliorated by correcting anemia and through exercise training.
9 s a key factor in the beneficial outcomes of exercise training.
10 muscle or whole-body aerobic adaptations to exercise training.
11 ypically observed in sedentary subjects with exercise training.
12 genesis, exercise tolerance, and response to exercise training.
13 muscle or whole-body aerobic adaptations to exercise training.
14 imals also performed low intensity treadmill exercise training.
15 quired for metabolic adaptation to endurance exercise training.
16 modeling, and muscle strength in response to exercise training.
17 vements in insulin sensitivity after aerobic exercise training.
18 and no major adverse events were related to exercise training.
19 metabolism, and depot-specific responses to exercise training.
20 tolerate (and possibly even be improved by) exercise training.
21 ovements in glucose metabolism after aerobic exercise training.
22 raction </=35% to usual care with or without exercise training.
23 olic twist in an acute augmentation phase of exercise training.
24 LVCD may be possible with moderate lifelong exercise training.
25 by acute and chronic aerobic and resistance exercise training.
26 icular, for individuals involved in physical exercise training.
27 pleted 14 weeks of controlled and supervised exercise training.
28 rol and high fat diet groups with or without exercise training.
29 ly Study who completed 20 weeks of endurance exercise training.
30 chondrial activity similar to the effects of exercise training.
31 r athletes to perform and adapt optimally to exercise training.
32 reased during the second and third months of exercise training.
33 to 9, and also not in response to submaximal exercise training.
34 ng older adults undertaking resistance-based exercise training 3-d/wk, participants who consumed lean
35 ecutive function; (2) Cognitive and physical exercise training; (3) Cognitive training combined with
36 non-invasive brain stimulation and physical exercise training; (4) Active control training in adapti
43 ural and functional adaptations to endurance exercise training among competitive male rowers (n=12; a
44 s controversial with the association between exercise training and collateral growth still unclear.
47 ortance of lifestyle modification, including exercise training and energy restriction, in the regulat
50 se of VCO2 versus VO2 ) remains important in exercise training and in the clinic, but its conceptual
51 vely evaluated the effects of a home aerobic exercise training and maintenance program (EX) on aerobi
52 e induces physiological responses that mimic exercise training and may underlie the beneficial effect
55 erformance objectives and to provide optimal exercise training and nutritional support for the modern
56 d recipients and on the outcomes relevant to exercise training and physical function that should be e
57 current countermeasures including in-flight exercise training and volume resuscitation on return, no
58 enuated in healthy adults engaged in aerobic exercise training, and aerobic exercise interventions im
59 e benefits of weight loss, physical activity/exercise training, and increases in cardiorespiratory fi
60 computer-based cognitive training, physical exercise training, and non-invasive brain stimulation, a
61 mechanical changes may exist in response to exercise training, and provide evidence supporting a pot
63 ) at baseline and in response to 12-weeks of exercise training; and examined depot-specific associati
65 s age-related microvascular dysfunction, and exercise training appears to be particularly effective i
67 s to amygdala reactivity, and help establish exercise training as a form of anxiolytic therapy toward
74 rodent exercise studies have indicated that exercise training can alter circulating adipokine concen
76 sfunction; these data suggest that late-life exercise training can be implemented to improve coronary
79 to exercise intolerance, and conversely how exercise training can potentially modulate aging phenoty
80 may help to pinpoint the mechanisms by which exercise training can reduce the risk of brain diseases,
82 he change in body composition in response to exercise training combined with calorie restriction in o
85 estigated the tolerability and efficacy of 2 exercise training dose regimens on cardiorespiratory fit
86 one, with an additive benefit of surgery and exercise training (e.g., collagen I: RYGB -41% vs. RYGB
94 e value of high levels of physical activity, exercise training (ET), and overall cardiorespiratory fi
96 years) were randomized to either 2 years of exercise training (exercise group: n = 34) or control/yo
97 lity and induces insulin resistance, whereas exercise training exerts positive effects on substrate h
98 3+/-5 years) were randomized to 10 months of exercise training followed by 14 months of maintenance e
99 is study was to determine whether real-world exercise training for a first-time marathon can reverse
101 l events, but not a differential response to exercise training for clinical outcomes or changes in ex
103 ent advances in cognitive rehabilitation and exercise training for treating MS-related cognitive impa
104 to 2.21) mL/kg/min among participants in the exercise training group and +0.08 (95% CI, -0.62 to 0.79
105 cardiovascular death or HF hospitalization, exercise training had a greater impact on patients with
106 ata analysis, patients with HFPEF undergoing exercise training had significantly improved CRF (mL/kg
115 A Controlled Trial Investigating Outcomes of Exercise Training (HF-ACTION), 2279 (97.8%) completed su
117 ity and acceptability of two common types of exercise training-high-intensity interval training (HIIT
118 ions were not restored following 12-weeks of exercise training implying exercise resistance in this c
120 and arteriovenous oxygen difference, whereas exercise training improved cardiac output, citrate synth
121 Ts in adult SOT recipients demonstrated that exercise training improved exercise capacity, lower extr
123 iddle-aged adults, 2 years of high-intensity exercise training improved integrated cardiovascular reg
124 adults, a 2 year programme of high-intensity exercise training improved integrated cardiovascular reg
125 suggesting a cross-organ mechanism by which exercise training improves cardiac function in diabetes
126 To determine whether moderate-intensity exercise training improves exercise capacity in adults w
131 ased and expert-informed recommendations for exercise training in adult and children solid organ tran
132 affect the response to 3 weeks of endurance exercise training in CACs, muscle mitochondrial capacity
133 ll maintained during 3-month aerobic dynamic exercise training in children and young adults with repa
135 the current study, we aimed to determine if exercise training in humans diminished P-CoA attenuation
136 Here, we determined the metabolic impact of exercise training in obese mice with cardiac and skeleta
137 CE-I, reduced the peak work rate response to exercise training in patients with chronic obstructive p
139 inical trials that evaluated the efficacy of exercise training in patients with HFPEF were included i
141 e aim to evaluate the efficacy and safety of exercise training in patients with pulmonary hypertensio
142 es that evaluated the efficacy and safety of exercise training in patients with pulmonary hypertensio
144 The coactivator PGC-1alpha1 is activated by exercise training in skeletal muscle and promotes fatigu
145 oward raising awareness of the importance of exercise training in SOT patients among transplant profe
146 Furthermore, we highlight the benefits of exercise training in stimulating positive adaptations in
147 aimed to assess the haemodynamic effects of exercise training in transposition of the great arteries
149 whole-body metabolic adaptations to aerobic exercise training, in part, by allowing controlled subst
151 stable HFPEF, caloric restriction or aerobic exercise training increased peak VO2, and the effects ma
162 O2 supply, whereas, in trained subjects, an exercise training-induced mitochondrial reserve results
163 e corresponding ionic current, If, underlies exercise training-induced sinus bradycardia in rodents.
164 the effects of non-specific antioxidants on exercise training-induced vascular adaptations remain el
165 However, the effects of antioxidants on exercise training-induced vascular adaptations remain el
172 consumption (VO(2)peak) to 1 of 2 supervised exercise training interventions delivered with a standar
173 behind these impairments and the benefits of exercise training interventions, our laboratory has rece
174 he inclusion of cognitive rehabilitation and exercise training into clinical practice within the next
176 Previous studies have shown that short term exercise training is feasible in TGA patients, but its e
178 to increase with an additional 14 months of exercise training (LA volumes 55%; LV end diastolic volu
181 of other laboratories suggest that endurance exercise training leads to similar changes in sedentary
182 , the profound changes to WAT in response to exercise training may be part of the mechanism by which
183 ermine whether nutritional interventions and exercise training may preserve muscle area and thereby i
185 re we felt it essential to determine whether exercise training might injure a systemic right ventricl
188 lipids and steatosis risk; 3) the effects of exercise training (modalities, volume, intensity) for tr
189 y assigned to 16 weeks of moderate-intensity exercise training (n = 67) or usual activity (n = 69).
190 ized to a group that received 1 h supervised exercise training (n=10) or one that received equal-time
193 proximately 25% kcal reduction vs. O-SED) or exercise training (O-EX; treadmill running 20 m min(-1)
195 affect the response to 3 weeks of endurance exercise training on CD3(+) , CD3(+) /CD31(+) , CD14(+)
196 scribes the effects of physical activity and exercise training on coronary atherosclerosis in athlete
198 -analysis, we aim to evaluate the effects of exercise training on CRF, quality of life, and diastolic
200 ined the effect of 2 years of high-intensity exercise training on integrated cardiovascular function,
201 n analysis to assess the effect of prolonged exercise training on integrated cardiovascular regulatio
202 d the effects of 24 months of high intensity exercise training on left atrial (LA) mechanical and ele
203 There was no interaction between AF and exercise training on measures of functional status or cl
204 tudies that have investigated the effects of exercise training on mitochondrial function, the "beigin
206 ought to determine the beneficial effects of exercise training on oxidative stress and inflammation i
208 ed work examining the effects of obesity and exercise training on radiation-exposed bone marrow, we e
210 ations of endurance athletes are a result of exercise training or a genetically determined characteri
212 were randomly assigned to either submaximal exercise training or no forced exercise (untrained).
213 Young and old rats underwent 10 weeks of exercise training or remained as sedentary, cage-control
214 +) number did not change in this region with exercise training or skeletal myofiber VEGF gene deletio
219 The study design included a 6-month aerobic exercise training period followed by a 2-week detraining
221 ompleted a crossover study consisting of two exercise training phases at two hematocrit (Hct) values:
225 to either a combined aerobic and resistance exercise training program following RYGB (RYGB + ET) or
227 this study was to evaluate whether adding an exercise training program to an inpatient behavioral int
229 performed a pilot study to assess whether an exercise training program would result in adverse change
230 adults undergoing a 3-d/wk resistance-based exercise training program, we investigated whether those
231 with TGA and SRV were enrolled in a 12 week exercise training programme (moderate and high-intensity
232 ought to investigate the effect of a 12-week exercise-training programme on these aspects of mitochon
234 f brain diseases, inform the optimization of exercise training programmes and assist with the identif
235 d (and may be improved) in TGA patients with exercise training programmes that are typical of recreat
238 discuss the various mechanisms through which exercise training promotes mitochondrial quantity and qu
239 Mitochondrial adaptations to a treadmill exercise training protocol, in either low-fat or high-fa
240 A Controlled Trial Investigating Outcomes of Exercise Training) randomized 2,331 ambulatory HF patien
241 in fitness that are mediated by 16 weeks of exercise training reduce the severity of physiological s
247 nate manner in response to a sprint interval exercise training regimen in humans and to denervation o
250 ovements in mitochondrial respiration due to exercise training required Bcl2-mediated autophagy using
251 lume reserve during exercise correlates with exercise training response in our TGA patients, identify
255 s of fully supervised, whole-body resistance exercise training (RET) (72.8 +/- 1.4 years; BMI 26.3 +/
264 dysfunction, and (2) initiation of late-life exercise training reverses age-related diastolic and mic
265 h oxidative and glycolytic muscle, late-life exercise training reverses age-related microvascular dys
266 nor high-intensity intervals, nor short-term exercise training seem to injure the systemic right vent
270 Also independent of MitoQ supplementation, exercise training significantly increased quadriceps mus
272 odiesterase 5 inhibitors, muscle weakness by exercise training, sodium retention by diuretics and mon
276 stressors during acute bouts of exercise or exercise training stimulate enhancement of cellular stre
279 e analyzed public transcriptome data from an exercise training study and revealed significant changes
280 care such as adherence to medical treatment, exercise training, symptom monitoring and symptom manage
283 skeletal muscle function and is improved by exercise training through both mitochondrial biogenesis
284 ulin resistance and highlight the ability of exercise training to diminish P-CoA attenuation in mitoc
285 ations of an erythroid-stimulating agent and exercise training to examine if and where limitation to
286 red to clarify whether interventions such as exercise training to improve LV compliance may prevent t
287 education, health behavior modification, and exercise training to improve secondary prevention outcom
289 A Controlled Trial Investigating Outcomes of Exercise Training) trial to advance precepts of CR are c
290 A Controlled Trial Investigating Outcomes of exercise traiNing) trial, 10 CPX test variables measured
295 n, 16 weeks of supervised moderate intensity exercise training was found to improve cardiorespiratory
297 he chronic impacts of interventions, such as exercise training, which affect both sympathetic activit
298 A Controlled Trial Investigating Outcomes of Exercise Training, which randomized 2331 patients with e
299 marked energy deficit in addition to intense exercise training would affect changes in body compositi
300 othesis that, similar to humans and rodents, exercise training would enhance mitochondrial (Mt) bioge