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Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles

Objective: In two independent study arms, we determine the effects of strength training (ST) and high-intensity interval training (HIIT) overload on cardiac autonomic modulation by measuring heart rate (HR) and vagal heart rate variability (HRV). Methods: In the study, 37 well-trained athletes (ST:...

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Autores principales: Schneider, Christoph, Wiewelhove, Thimo, Raeder, Christian, Flatt, Andrew A., Hoos, Olaf, Hottenrott, Laura, Schumbera, Oliver, Kellmann, Michael, Meyer, Tim, Pfeiffer, Mark, Ferrauti, Alexander
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6538885/
https://www.ncbi.nlm.nih.gov/pubmed/31178746
http://dx.doi.org/10.3389/fphys.2019.00582
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author Schneider, Christoph
Wiewelhove, Thimo
Raeder, Christian
Flatt, Andrew A.
Hoos, Olaf
Hottenrott, Laura
Schumbera, Oliver
Kellmann, Michael
Meyer, Tim
Pfeiffer, Mark
Ferrauti, Alexander
author_facet Schneider, Christoph
Wiewelhove, Thimo
Raeder, Christian
Flatt, Andrew A.
Hoos, Olaf
Hottenrott, Laura
Schumbera, Oliver
Kellmann, Michael
Meyer, Tim
Pfeiffer, Mark
Ferrauti, Alexander
author_sort Schneider, Christoph
collection PubMed
description Objective: In two independent study arms, we determine the effects of strength training (ST) and high-intensity interval training (HIIT) overload on cardiac autonomic modulation by measuring heart rate (HR) and vagal heart rate variability (HRV). Methods: In the study, 37 well-trained athletes (ST: 7 female, 12 male; HIIT: 9 female, 9 male) were subjected to orthostatic tests (HR and HRV recordings) each day during a 4-day baseline period, a 6-day overload microcycle, and a 4-day recovery period. Discipline-specific performance was assessed before and 1 and 4 days after training. Results: Following ST overload, supine HR, and vagal HRV (Ln RMSSD) were clearly increased and decreased (small effects), respectively, and the standing recordings remained unchanged. In contrast, HIIT overload resulted in decreased HR and increased Ln RMSSD in the standing position (small effects), whereas supine recordings remained unaltered. During the recovery period, these responses were reversed (ST: small effects, HIIT: trivial to small effects). The correlations between changes in HR, vagal HRV measures, and performance were weak or inconsistent. At the group and individual levels, moderate to strong negative correlations were found between HR and Ln RMSSD when analyzing changes between testing days (ST: supine and standing position, HIIT: standing position) and individual time series, respectively. Use of rolling 2–4-day averages enabled more precise estimation of mean changes with smaller confidence intervals compared to single-day values of HR or Ln RMSSD. However, the use of averaged values displayed unclear effects for evaluating associations between HR, vagal HRV measures, and performance changes, and have the potential to be detrimental for classification of individual short-term responses. Conclusion: Measures of HR and Ln RMSSD during an orthostatic test could reveal different autonomic responses following ST or HIIT which may not be discovered by supine or standing measures alone. However, these autonomic changes were not consistently related to short-term changes in performance and the use of rolling averages may alter these relationships differently on group and individual level.
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spelling pubmed-65388852019-06-07 Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles Schneider, Christoph Wiewelhove, Thimo Raeder, Christian Flatt, Andrew A. Hoos, Olaf Hottenrott, Laura Schumbera, Oliver Kellmann, Michael Meyer, Tim Pfeiffer, Mark Ferrauti, Alexander Front Physiol Physiology Objective: In two independent study arms, we determine the effects of strength training (ST) and high-intensity interval training (HIIT) overload on cardiac autonomic modulation by measuring heart rate (HR) and vagal heart rate variability (HRV). Methods: In the study, 37 well-trained athletes (ST: 7 female, 12 male; HIIT: 9 female, 9 male) were subjected to orthostatic tests (HR and HRV recordings) each day during a 4-day baseline period, a 6-day overload microcycle, and a 4-day recovery period. Discipline-specific performance was assessed before and 1 and 4 days after training. Results: Following ST overload, supine HR, and vagal HRV (Ln RMSSD) were clearly increased and decreased (small effects), respectively, and the standing recordings remained unchanged. In contrast, HIIT overload resulted in decreased HR and increased Ln RMSSD in the standing position (small effects), whereas supine recordings remained unaltered. During the recovery period, these responses were reversed (ST: small effects, HIIT: trivial to small effects). The correlations between changes in HR, vagal HRV measures, and performance were weak or inconsistent. At the group and individual levels, moderate to strong negative correlations were found between HR and Ln RMSSD when analyzing changes between testing days (ST: supine and standing position, HIIT: standing position) and individual time series, respectively. Use of rolling 2–4-day averages enabled more precise estimation of mean changes with smaller confidence intervals compared to single-day values of HR or Ln RMSSD. However, the use of averaged values displayed unclear effects for evaluating associations between HR, vagal HRV measures, and performance changes, and have the potential to be detrimental for classification of individual short-term responses. Conclusion: Measures of HR and Ln RMSSD during an orthostatic test could reveal different autonomic responses following ST or HIIT which may not be discovered by supine or standing measures alone. However, these autonomic changes were not consistently related to short-term changes in performance and the use of rolling averages may alter these relationships differently on group and individual level. Frontiers Media S.A. 2019-05-22 /pmc/articles/PMC6538885/ /pubmed/31178746 http://dx.doi.org/10.3389/fphys.2019.00582 Text en Copyright © 2019 Schneider, Wiewelhove, Raeder, Flatt, Hoos, Hottenrott, Schumbera, Kellmann, Meyer, Pfeiffer and Ferrauti. http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Physiology
Schneider, Christoph
Wiewelhove, Thimo
Raeder, Christian
Flatt, Andrew A.
Hoos, Olaf
Hottenrott, Laura
Schumbera, Oliver
Kellmann, Michael
Meyer, Tim
Pfeiffer, Mark
Ferrauti, Alexander
Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title_full Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title_fullStr Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title_full_unstemmed Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title_short Heart Rate Variability Monitoring During Strength and High-Intensity Interval Training Overload Microcycles
title_sort heart rate variability monitoring during strength and high-intensity interval training overload microcycles
topic Physiology
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6538885/
https://www.ncbi.nlm.nih.gov/pubmed/31178746
http://dx.doi.org/10.3389/fphys.2019.00582
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