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1 month period of exercise training with cycle ergometry.
2 te sessions per week of combined arm and leg ergometry.
3  incremental atrial pacing or supine bicycle ergometry.
4 n patients with COPD during exhaustive cycle ergometry.
5 otocol integrating submaximal supine bicycle ergometry (20 W) followed by maximal upright bicycle erg
6 t rest and during fixed low-workload bicycle ergometry (50, 75, and 100 W, each for 3 minutes) in 75
7 ur during prolonged submaximal upright cycle ergometry, analogous to those observed during graded max
8 e systems while completing incremental cycle ergometry and a test circuit composed of tasks that simu
9                                        Cycle ergometry and dual-energy X-ray absorptiometry were obta
10 ent symptom-limited maximal CPET using cycle ergometry and ramp protocols; blood gases and lactate co
11 e collected from human subjects during cycle ergometry and treadmill running.
12      We conducted electrocardiography (ECG), ergometry, and echocardiography assessments in normoxic
13 endurance shuttle walking, incremental cycle ergometry, and endurance cycle ergometry, performed to e
14      T-wave alternans, assessed with bicycle ergometry, and SAECG were measured before EPS.
15 lide ventriculography at rest and with cycle ergometry before and 60 minutes after administration of
16                                Bedside cycle ergometry can provide range of motion and muscle strengt
17 ial fibrillation, underwent semisupine cycle-ergometry cardiopulmonary exercise testing combined with
18 on, 68+/-1%) underwent maximum upright cycle ergometry cardiopulmonary exercise testing.
19 nce imaging (CMR), echocardiogram, and cycle ergometry cardiopulmonary exercise tests were performed
20  groups were examined, obtained from a cycle ergometry cohort study.
21 y volunteers performed symptom-limited cycle ergometry during 12-lead ECG monitoring.
22 rmed 6-min duration constant work rate cycle ergometry exercise (33.9+/-13.4 W).
23 U had negative responses to Pulse-Controlled Ergometry exercise test.
24 tional electrical stimulation-assisted cycle ergometry (FESCE) compared with standard of care.
25 e hundred seventeen patients performed cycle ergometry for a total of 124 tests (preoperative test in
26 e change in peak power (assessed using cycle ergometry) from baseline.
27 and elevated LA wedge pressure during supine ergometry (>=25 mm Hg).
28 hroughout prolonged submaximal upright cycle ergometry in 40 carefully screened healthy untrained vol
29 ry function during rapidly incremental cycle ergometry in sedentary males and females up to 80 yr of
30 d both maximal conventional two-legged cycle ergometry (large muscle mass) and single-leg knee extens
31 Holter monitoring, echocardiography, bicycle ergometry, measurement of N-terminal pro-B-type natriure
32 ized to 16 weeks of ET (walking, arm and leg ergometry, n = 32) or attention control (CT) (n = 31).
33 emental cycle ergometry, and endurance cycle ergometry, performed to exhaustion on four separate days
34 stemic oxygen consumption (VO2) during cycle ergometry, resistance to fatigue of the quadriceps femor
35 measures of BP response taken before bicycle ergometry testing.
36 /- 10 years underwent maximal-effort upright ergometry tests on two separate days after receiving eit
37        These subjects performed graded cycle ergometry to exhaustion, once breathing room air and onc
38 ulmonary function and performed graded cycle ergometry to exhaustion.
39 ercise tests: initial ramp-incremental cycle ergometry to the limit of tolerance and subsequently, on
40  inspiratory muscle training (IMT) and cycle ergometry training (CET) in 53 patients with moderate to
41 plemented subjects, a single period of cycle ergometry was found to significantly increase the HSP70
42                                 Supine cycle ergometry was performed at baseline (visit 1) and after
43                                   Ramp cycle ergometry was performed with expired gas.
44 er recall and mental arithmetic) and bicycle ergometry were evaluated in patients with implantable ca
45                 The patients performed cycle ergometry while breathing frigid air 30 minutes after th
46 diopulmonary exercise testing during upright ergometry, while using conductance catheters inserted in
47 y (20 W) followed by maximal upright bicycle ergometry with a breath-by-breath oxygen analyzer.
48 rta followed within 48 h by maximal exercise ergometry with expired gas analysis.
49 rophy underwent maximal-effort upright cycle ergometry with radionuclide ventriculography to determin