ライフサイエンスコーパス: maximal oxygen consumption

1 pe natriuretic peptide (NTproBNP), and lower maximal oxygen consumption.

2 cidification in HG with reduced steady state/maximal oxygen consumption.

3 mass, adiposity, arterial blood pressure, or maximal oxygen consumption.

4 ts performed a 2 h laboratory ride at 72% of maximal oxygen consumption.

5 ren, and how these central factors relate to maximal oxygen consumption.

6 training was associated with improvements in maximal oxygen consumption.

7 0.9 mL/m(2) [95% CI, -6.1 to 4.3]; P = .73), maximal oxygen consumption (1.0 [95% CI, -0.42 to 2.34];

8 asurements, maximal inspiratory pressure, or maximal oxygen consumption among any of the three groups

9 Both maximal oxygen consumption and exercise duration were ma

10 etween groups as assessed by peak work rate, maximal oxygen consumption, and rate pressure product.

11 Higher levels of CRF (maximal oxygen consumption as milliliters per minute per

12 SCD1 activity is required for acquisition of maximal oxygen consumption at 31 C.

13 abnormalities, there were no differences in maximal oxygen consumption between the two groups and al

14 Assessed on the basis of basal and maximal oxygen consumption, both populations avail thems

15 ning, the older and younger groups increased maximal oxygen consumption by 17.8% and 20.2%, respectiv

16 rance and insulin sensitivity and have lower maximal oxygen consumption compared with the exercised w

17 Maximal oxygen consumption correlated linearly with maxi

18 ; distance walked; and peak and extrapolated maximal oxygen consumption during a 10-meter shuttle wal

19 Cardiorespiratory fitness was assessed as maximal oxygen consumption, estimated using a submaximal

20 ns of insulin, glucose, and triacylglycerol; maximal oxygen consumption (f1.gif" BORDER="0">O(2)max)

21 Twelve males exercised at 50% maximal oxygen consumption for 30 min once before and on

22 /day), an acute bout of exercise (1 h at 62% maximal oxygen consumption) has no effect on increasing

23 MEIS1 suppression with siRNA increased maximal oxygen consumption in fetal cells but not in pos

24 7.5 watts (-13 to +44 watts, 46%, p < 0.05), maximal oxygen consumption increased 0.16 L/min (-0.17 t

25 with 7 of 9 patients improving >/=30%), and maximal oxygen consumption increased from 13.6+/-2.9 to

26 Maximal oxygen consumption increased from 19.4+/-6.4 to

27 The age-related decline in maximal oxygen consumption is attenuated by habitual aer

28 ants of endurance exercise performance (i.e. maximal oxygen consumption , lactate threshold and exerc

29 re assessed for markers of disease severity (maximal oxygen consumption, left ventricular ejection fr

30 vels of oxygen use as indicated by basal and maximal oxygen consumption levels that are consistent wi

31 ce angiography (MRA), treadmill testing with maximal oxygen consumption measurement, and a 6-min walk

32 Estimated maximal oxygen consumption (milliliters per kilogram per

33 pressure of 16 +/- 9 mm Hg (mean +/- SD) and maximal oxygen consumption of 17.4 +/- 4.3 ml/min per kg

34 endurance-trained males, with a mean +/- SD maximal oxygen consumption of 58.2 +/- 5.3 mL . min(-1),

35 Maximal oxygen consumption on a cycle ergometer was exam

36 e LV EDV and SV response to exercise, or the maximal oxygen consumption or peak power output.

37 compared with placebo did not improve LVESV, maximal oxygen consumption, or reversibility on SPECT.

38 outflow tract gradients, exercise times and maximal oxygen consumption peak were similar between the

39 as measured by Doppler echocardiography, and maximal oxygen consumption (peak Vo(2)) and percentage o

40 , capillary density was inversely related to maximal oxygen consumption (r = 0.479, p = 0.02).

41 fat-free mass (r = 0.80-0.87); and AEE with maximal oxygen consumption (r = 0.54), fat-free mass (r

42 nfants who developed BPD or died had a lower maximal oxygen consumption rate (mean +/- SEM, 107 +/- 8

43 To analyze the onset of the pathology, maximal oxygen consumption rate of left ventricular perm

44 eased basal oxygen consumption rates, higher maximal oxygen consumption rate, and augmented spare res

45 l function measured by basal, ATP-linked and maximal oxygen consumption rates and by spare respirator

46 We also observed elevated basal and maximal oxygen consumption rates in the fibroblasts from

47 eases insulin signaling, glucose uptake, and maximal oxygen consumption, recapitulating the adaptive

48 tributes to the heat-induced improvements in maximal oxygen consumption remains unclear.

49 ings suggest that the age-related decline in maximal oxygen consumption results from a reversible dec

50 Mice (n = 12/group) completed both a maximal oxygen consumption test(VO2max) test and an endu

51 ehabilitation, there was a trend to a higher maximal oxygen consumption (V O(2)max) (13.3 +/- 3.0 ver

52 lues were calculated at approximately 75% of maximal oxygen consumption (V O2).

53 pressure with maximal sniff (Pdimax sniff), maximal oxygen consumption (V O2max), maximal minute ven

54 unning at intensities eliciting 70 and 100 % maximal oxygen consumption (V(O(2),max)).

55 Maximal oxygen consumption (VO(2)max) and 1 repetition m

56 l of 60 exercise sessions starting at 55% of maximal oxygen consumption (VO(2)max) for 30 min/session

57 For endurance sports three main factors--maximal oxygen consumption (.VO(2,max)), the so-called '

58 lidate a novel framework to estimate CRF (as maximal oxygen consumption, VO(2)max) from heart rate re

59 es provide significant predictive models for maximal oxygen consumption ( VO2max ) in children that a

60 ons to endurance training facilitate greater maximal oxygen consumption ( VO2max ), and such adaptati

61 vate haemoglobin mass (Hb(mass)) and enhance maximal oxygen consumption ( VO2max ).

62 ercise, matched for relative intensity [~50% maximal oxygen consumption ( VO2max )] and absolute inte

63 Relatives with LVE and abnormal maximal oxygen consumption (VO2max) (defined as VO2max <

64 Aerobic capacity was determined as maximal oxygen consumption (VO2max) (ml/kg/min) and anae

65 uring daily activities, muscle strength, and maximal oxygen consumption (VO2max) in 40 postmenopausal

66 Study objectives were to assess maximal oxygen consumption (VO2max) in TX and controls,

67 46) achieved a mean percentage predicted of maximal oxygen consumption (VO2max) of 76.1% +/- 21.1%.

68 Maximal oxygen consumption (VO2max) was estimated by mea

69 ed before and after weight loss and included maximal oxygen consumption (VO2max), resting blood press

70 of high-intensity running [76.7 +/- 0.4% of maximal oxygen consumption (VO2max)].

71 Liver transplantation patients had lower maximal oxygen consumption (VO2max/kg) (37.5 +/- 9.3 mL/

72 Maximal oxygen consumption was also restricted under the

73 Maximal oxygen consumption was higher (P < 0.001) and re

74 ght may be the best predictor of TEE, and 5) maximal oxygen consumption was the strongest marker of A

75 Exercise duration and maximal oxygen consumption were not related significantl