ライフサイエンスコーパス: exercise ECG

1 findings from ajmaline provocation (n=332), exercise ECG (n=304), and signal-averaged ECG (n=118) wh

2 men >/= 45 years of age, 45% had an abnormal exercise ECG, thallium scan, or both.

3 Across normal, equivocal, and abnormal exercise ECG groups, age- and examination year-adjusted

4 th diabetes mellitus, equivocal and abnormal exercise ECG responses were associated with higher risk

5 Siblings with a concordant abnormal exercise ECG and thallium scan had a relative risk of 14

6 Although abnormal exercise ECGs and thallium scans were both predictive of

7 n 29% of men and 9% of women, while abnormal exercise ECGs occurred in 12% and 5% respectively.

8 Forty-three subjects with abnormal exercise ECGs also underwent exercise thallium scintigra

9 entions, although rates of angiography after exercise ECG ranged from 0.6% to 2.9%.

10 All subjects had an echocardiogram and an exercise ECG performed, followed by magnetic resonance s

11 Women were less likely to undergo an exercise ECG (odds ratio, 0.81; 95% CI, 0.69 to 0.95) an

12 increased the chi-square of the clinical and exercise ECG model from 29 to 44.8 (p = 0.0001).

13 rospectively compares the utility of MPI and exercise ECG (EECG) in these patients.

14 After adjustment for age, sex, and exercise ECG results, the relative risk of developing cl

15 We examined the association between exercise ECG responses and mortality in 2854 men with do

16 patterns of associations were noted between exercise ECG testing and both CVD and all-cause mortalit

17 ttle is known about the relationship between exercise ECG responses and CHD risk in men with diabetes

18 ptomatic myocardial ischemia as evidenced by exercise ECG alone or in combination with thallium scan.

19 ed by 2-dimensional strain echocardiography, exercise ECG, and coronary angiography.

20 emed minimal (for resting ECG) or small (for exercise ECG).

21 osis in asymptomatic individuals and include exercise ECG testing, electron beam computed tomography,

22 of CE was compared with subjects with normal exercise ECG (n=611).

23 e main outcome measures across categories of exercise ECG responses, with stratification by cardiores

24 maximum on serial ECGs (Ser QTc-max), and on exercise ECGs (Ex QTc-max) and by T-wave patterns.

25 dle branch block, or left-axis deviation) or exercise ECG (ST-segment depression with exercise, chron

26 Abnormalities on resting or exercise ECG are associated with an increased risk for s

27 tudies evaluated abnormalities on resting or exercise ECG as predictors of cardiovascular events afte

28 efits and harms of screening with resting or exercise ECG for the prediction of CHD events in asympto

29 recommends against screening with resting or exercise ECG for the prediction of CHD events in asympto

30 ts (15 male, 61+/-4.3 years) with a positive exercise ECG and exertional angina completed the protoco

31 a Cox proportional hazards model, a positive exercise ECG by standard criteria was not predictive of

32 jects to asymptomatic subjects with positive exercise ECG alone to those with concordant positive ECG

33 raphic documentation of disease and positive exercise ECGs.

34 rsus standard functional testing strategies (exercise ECG, stress nuclear methods, or stress echocard

35 The exercise ECG was suggested as an Appropriate test for ca

36 with exercise increases the accuracy of the exercise ECG in the detection of CAD.

37 ctively; in contrast, the sensitivity of the exercise ECG was 37.5%.

38 otropic reserve in routine evaluation of the exercise ECG.

39 ssion to improve the predictive value of the exercise ECG.

40 were analyzed in 64 women who had undergone exercise ECG and coronary angiography for clinical indic

41 l models were exercise echocardiography with exercise ECG and exercise 201Tl SPECT with exercise ECG.

42 h exercise ECG and exercise 201Tl SPECT with exercise ECG.