Cargando…

The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?

OBJECTIVES: Whole-body vibration (WBV) is applied to the sole of the foot, whereas local mechanical vibration (LMV) is applied directly to the muscle or tendon. The time required for the mechanical stimulus to reach the muscle belly is longer for WBV. Therefore, the WBV-induced muscular reflex (WBV-...

Descripción completa

Detalles Bibliográficos
Autores principales: Corum, Mustafa, Topkara, Betilay, Kokce, Mustafa, Ozkan, Mehmet, Bucak, Omer F., Ayture, Lutfiye, Karacan, Ilhan, Türker, Kemal S.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: International Society of Musculoskeletal and Neuronal Interactions 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8919650/
https://www.ncbi.nlm.nih.gov/pubmed/35234157
_version_ 1784668976606871552
author Corum, Mustafa
Topkara, Betilay
Kokce, Mustafa
Ozkan, Mehmet
Bucak, Omer F.
Ayture, Lutfiye
Karacan, Ilhan
Türker, Kemal S.
author_facet Corum, Mustafa
Topkara, Betilay
Kokce, Mustafa
Ozkan, Mehmet
Bucak, Omer F.
Ayture, Lutfiye
Karacan, Ilhan
Türker, Kemal S.
author_sort Corum, Mustafa
collection PubMed
description OBJECTIVES: Whole-body vibration (WBV) is applied to the sole of the foot, whereas local mechanical vibration (LMV) is applied directly to the muscle or tendon. The time required for the mechanical stimulus to reach the muscle belly is longer for WBV. Therefore, the WBV-induced muscular reflex (WBV-IMR) latency may be longer than the tonic vibration reflex (TVR) latency. The aim of this study was to determine whether the difference between WBV-IMR and TVR latencies is due to the distance between the vibration application point and the target muscle. METHODS: Eight volunteers participated in this study. The soleus reflex response was recorded during WBV, LMVs, and tendon tap. LMVs were applied to the Achilles tendon and sole of the foot. The latencies were calculated using the cumulative averaging technique. RESULTS: The latency (33.4±2.8 ms) of the soleus reflex induced by the local foot vibration was similar to the soleus TVR latency (30.9±3.2 ms) and T-reflex (32.0±2.4 ms) but significantly shorter than the latency of the soleus WBV-IMR (42.3±3.4 ms) (F((3,21))=27.46, p=0.0001, partial η(2)=0.797). CONCLUSIONS: The present study points out that the neuronal circuitries of TVR and WBV-IMR are different.
format Online
Article
Text
id pubmed-8919650
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher International Society of Musculoskeletal and Neuronal Interactions
record_format MEDLINE/PubMed
spelling pubmed-89196502022-04-14 The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex? Corum, Mustafa Topkara, Betilay Kokce, Mustafa Ozkan, Mehmet Bucak, Omer F. Ayture, Lutfiye Karacan, Ilhan Türker, Kemal S. J Musculoskelet Neuronal Interact Original Article OBJECTIVES: Whole-body vibration (WBV) is applied to the sole of the foot, whereas local mechanical vibration (LMV) is applied directly to the muscle or tendon. The time required for the mechanical stimulus to reach the muscle belly is longer for WBV. Therefore, the WBV-induced muscular reflex (WBV-IMR) latency may be longer than the tonic vibration reflex (TVR) latency. The aim of this study was to determine whether the difference between WBV-IMR and TVR latencies is due to the distance between the vibration application point and the target muscle. METHODS: Eight volunteers participated in this study. The soleus reflex response was recorded during WBV, LMVs, and tendon tap. LMVs were applied to the Achilles tendon and sole of the foot. The latencies were calculated using the cumulative averaging technique. RESULTS: The latency (33.4±2.8 ms) of the soleus reflex induced by the local foot vibration was similar to the soleus TVR latency (30.9±3.2 ms) and T-reflex (32.0±2.4 ms) but significantly shorter than the latency of the soleus WBV-IMR (42.3±3.4 ms) (F((3,21))=27.46, p=0.0001, partial η(2)=0.797). CONCLUSIONS: The present study points out that the neuronal circuitries of TVR and WBV-IMR are different. International Society of Musculoskeletal and Neuronal Interactions 2022 /pmc/articles/PMC8919650/ /pubmed/35234157 Text en Copyright: © Journal of Musculoskeletal and Neuronal Interactions https://creativecommons.org/licenses/by-nc-sa/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution-Noncommercial-Share Alike 4.0 Unported, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
spellingShingle Original Article
Corum, Mustafa
Topkara, Betilay
Kokce, Mustafa
Ozkan, Mehmet
Bucak, Omer F.
Ayture, Lutfiye
Karacan, Ilhan
Türker, Kemal S.
The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title_full The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title_fullStr The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title_full_unstemmed The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title_short The reflex mechanism underlying the neuromuscular effects of whole-body vibration: Is it the tonic vibration reflex?
title_sort reflex mechanism underlying the neuromuscular effects of whole-body vibration: is it the tonic vibration reflex?
topic Original Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8919650/
https://www.ncbi.nlm.nih.gov/pubmed/35234157
work_keys_str_mv AT corummustafa thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT topkarabetilay thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT kokcemustafa thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT ozkanmehmet thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT bucakomerf thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT ayturelutfiye thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT karacanilhan thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT turkerkemals thereflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT corummustafa reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT topkarabetilay reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT kokcemustafa reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT ozkanmehmet reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT bucakomerf reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT ayturelutfiye reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT karacanilhan reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex
AT turkerkemals reflexmechanismunderlyingtheneuromusculareffectsofwholebodyvibrationisitthetonicvibrationreflex