Key result
60-second recovery LnRMSSD proves highly reliable and strongly correlates with peak power and cycling performance.
Why the study?
To determine whether post-exercise heart rate variability (LnRMSSD) can be measured reliably during recovery from a submaximal cycle test and to evaluate its relationship with cyclists' training status.
Does recovery heart rate variability (LnRMSSD) measured after a submaximal cycle test reliably correlate with training status in trained to elite cyclists?
Observational (n=70)
No
Does recovery heart rate variability (LnRMSSD) measured after a submaximal cycle test reliably correlate with training status in trained to elite cyclists?
A 60-second measurement of heart rate variability (LnRMSSD) immediately following a standardized submaximal cycle test is highly reliable and strongly predicts endurance performance markers in trained cyclists.
Answers are grounded in this paper and cite their sources.
May support brief recovery HRV monitoring in cyclists; leaves open longitudinal validation against training adaptations.
Purpose To determine if post-exercise heart rate variability, in the form of logged transformed root mean square of successive differences of the R–R intervals (LnRMSSD) can be measured reliably during the recovery from a submaximal cycle test and what the relationship of LnRMSSD is with training status of the cyclists. Methods Fourteen male cyclists participated in the reliability part for the study, which included performing six Lamberts Submaximal Cycle Test (LSCT), during which recovery LnRMSSD was measured over 30 s (LnRMSSD 30 s ), 60 s LnRMSSD 60 s )and 90 s LnRMSSD 90 s ). In addition, fifty male and twenty female cyclists completed a peak power output (PPO) test (including V O 2peak ) and 40 km time trial (40 km TT) before which they performed the LSCT as a standardized warm-up. Relationships between the LnRMSSD and PPO, V O 2peak and 40 km TT time were studied. Results Due to the design of the LSCT, submaximal heart and breathing rate were similar at the end of stage 3 of the LSCT, as well as during the recovery periods. The highest reliability was found in LnRMSSD 60 s (ICC: 0.97) with a typical error of the measurement (TEM: 5.8%). In line with this the strongest correlations were found between LnRMSSD 60 s and PPO ( r = 0.93[male]; 0.85[female]), V O 2peak ( r = 0.71[male]; 0.63[female];) and 40 km TT ( r = – 0.83[male]; – 0.63[female]). Conclusions LnRMSSD 60 s can be measured reliably after the LSCT and can predict PPO, V O 2peak and 40 km TT performance well in trained-to-elite cyclists. These findings suggest that recovery LnRMSSD can potentially play an important role in monitoring and fine-tuning training prescriptions in trained-to-elite cyclists.
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Lamberts et al. (2024) conducted an observational in Healthy trained to elite cyclists (n=70). Lamberts Submaximal Cycle Test (LSCT) with recovery LnRMSSD measurement was evaluated on Reliability of LnRMSSD over 60 seconds (LnRMSSD60s) measured by Intraclass Correlation Coefficient (ICC) (ICC 0.97, 95% CI 0.92-0.99). LnRMSSD measured over 60 seconds during recovery from the Lamberts Submaximal Cycle Test showed high reliability (ICC 0.97) and strongly correlated with peak power output and 40 km time trial performance.
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