Key result
In-ICU leg-cycle ergometry did not significantly improve physical function at hospital discharge compared to no cycling (SMD 0.07; 95% CI -0.38 to 0.53).
Why the study?
Does in-ICU leg-cycle ergometry improve physical function, mechanical ventilation duration, length of stay, quality of life, or mortality in critically ill adults?
Meta-Analysis (n=926)
Does in-ICU leg-cycle ergometry improve physical function, mechanical ventilation duration, length of stay, quality of life, or mortality in critically ill adults?
Standardized Mean Difference: 0.07 (95% CI -0.38–0.53)
In-ICU leg-cycle ergometry appears safe but does not significantly improve physical function, mechanical ventilation duration, length of stay, quality of life, or mortality in critically ill adults.
Does not support routine in-ICU leg-cycle ergometry; confirms lack of benefit on function and other outcomes in critically ill adults.
Background Survivors of critical illness may experience physical-function deficits after intensive care unit (ICU) discharge. In-ICU cycle ergometry may facilitate early mobilization and decrease functional impairment. Objective We conducted a systematic review and meta-analysis to understand the effect of in-ICU leg-cycle ergometry on patient-important and clinically relevant outcomes. Data Sources We searched eight electronic databases from inception until July 2019. Data Extraction We included randomized controlled trials (RCTs) and nonrandomized studies of critically ill adults admitted to the ICU for ≥24 hours, comparing cycling interventions to control arms that did not receive cycling. Main outcomes included physical function, mechanical ventilation (MV) duration, length of stay (LOS), quality of life (QoL), mortality, and safety. We conducted independent duplicate-citation screening, data abstraction, and risk-of-bias assessments. We pooled RCTs using a random-effects model and calculated the risk ratio (RR), mean difference (MD), or standardized MD with 95% confidence intervals (CIs). We assessed certainty of outcomes using the Grading of Recommendations Assessment, Development, and Evaluation approach. Results Of 6,531 citations, we included 12 RCTs and 2 nonrandomized studies (n = 926). Between the cycling and control groups, there were no differences in physical function at hospital discharge (3 RCTs; n = 225; standardized MD, 0.07 [95% CI, −0.38 to 0.53]; very low certainty), MV duration (9 RCTs; n = 676; MD, 0.01 [−1.04 to 1.07] days; moderate certainty), ICU LOS (10 RCTs; n = 511; MD, 0.23 [−1.44 to 1.89] days; moderate certainty), hospital LOS (7 RCTs; n = 393, MD −0.07 [−3.87 to 3.73] days; moderate certainty), QoL at 6 months after hospital discharge (2 RCTs; n = 103; MD, 9.13 [13.80 to 32.05] points higher; very low certainty), or hospital mortality (7 RCTs; n = 710; RR 1.09 [0.82 to 1.46]; moderate-certainty). The adverse event rate in cycling sessions was 0.16% across studies (10 studies; 5 of 3,117 sessions; very low certainty). Conclusions Cycling initiated in the ICU is probably safe; however, we did not find any differences in physical function, MV duration, LOS, QoL, or mortality compared with those not receiving cycling. Rigorously designed RCTs are needed to improve precision and further investigate the effect of cycling on patient-important outcomes.
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Takaoka et al. (2020) conducted a meta-analysis in Critically ill adults (n=926). In-ICU leg-cycle ergometry vs. No cycling was evaluated on Physical function at hospital discharge (SMD 0.07, 95% CI -0.38 to 0.53). In-ICU leg-cycle ergometry did not significantly improve physical function at hospital discharge compared to no cycling (SMD 0.07; 95% CI -0.38 to 0.53).
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