Analgesic effects and neural oscillatory mechanisms of music-synchronized virtual reality intervention

Chronic pain affects over 30% of the global population, yet non-pharmacological interventions with clear neurophysiological mechanisms remain limited. While virtual reality (VR) and music therapy independently show promise in pain management, the neural oscillatory underpinnings of rhythm-synchronized audiomotor integration in VR therapy remain poorly understood. This study aimed to investigate whether music-synchronized virtual reality (MSVR) enhances analgesia through distinct neural mechanisms compared to conventional distraction-based VR or non-immersive interventions. 90 healthy adults (45 female, 22 ± 2 years) were randomized to a single session of: (1) MSVR (rhythm-synchronized visuomotor tasks with music), (2) conventional VR (identical tasks with white noise), or (3) non-immersive 2D control. Pressure pain thresholds (PPT) were measured at five movement-generating muscle sites. Conditioned pain modulation (CPM) efficiency was assessed using PPT and cold-water stimulation. 64-channel EEG recorded theta, alpha, beta, and gamma oscillations. Outcomes included PPT changes, CPM efficiency, cold pain intensity/unpleasantness, and neural spectral power. MSVR significantly increased PPTs across all sites (15-25% vs. control, P < 0.001; superior to VR in upper limbs, P < 0.05) and enhanced CPM efficiency by 18% (vs. control, P = 0.010; vs. VR, P = 0.046). Cold pain intensity decreased by 22% with MSVR (P < 0.05 vs. both groups). MSVR uniquely enhanced parietal alpha oscillations during and post-intervention (P = 0.001). MSVR also induced greater immersion and realism than VR (P < 0.001). MSVR significantly enhances endogenous pain inhibition and elevates pain thresholds more effectively than conventional VR or 2D interventions, primarily through rhythmic audiomotor integration modulating parietal alpha-oscillation modulation. These findings suggest MSVR as a scalable digital therapeutic strategy for pain management.

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Publication Details

Journal
Journal of NeuroEngineering and Rehabilitation
Published
2025-09-29
DOI
https://doi.org/10.1186/s12984-025-01740-7
Citations
1
Primary Topic
Music Therapy and Health
Type
article
Field-Weighted Citation Impact
2.44

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article

Analgesic effects and neural oscillatory mechanisms of music-synchronized virtual reality intervention

Shu-Hao Du, Xue‐Qiang Wang, Qi‐Hao Yang, Yong-Hui Zhang et al.
1 citations
Journal of NeuroEngineering and Rehabilitation
Music Therapy and Health
2.44
article

Analgesic effects and neural oscillatory mechanisms of music-synchronized virtual reality intervention

Shu-Hao Du, Xue‐Qiang Wang, Qi‐Hao Yang, Yong-Hui Zhang, Le Tang
article en
1 citations

Abstract

Chronic pain affects over 30% of the global population, yet non-pharmacological interventions with clear neurophysiological mechanisms remain limited. While virtual reality (VR) and music therapy independently show promise in pain management, the neural oscillatory underpinnings of rhythm-synchronized audiomotor integration in VR therapy remain poorly understood. This study aimed to investigate whether music-synchronized virtual reality (MSVR) enhances analgesia through distinct neural mechanisms compared to conventional distraction-based VR or non-immersive interventions. 90 healthy adults (45 female, 22 ± 2 years) were randomized to a single session of: (1) MSVR (rhythm-synchronized visuomotor tasks with music), (2) conventional VR (identical tasks with white noise), or (3) non-immersive 2D control. Pressure pain thresholds (PPT) were measured at five movement-generating muscle sites. Conditioned pain modulation (CPM) efficiency was assessed using PPT and cold-water stimulation. 64-channel EEG recorded theta, alpha, beta, and gamma oscillations. Outcomes included PPT changes, CPM efficiency, cold pain intensity/unpleasantness, and neural spectral power. MSVR significantly increased PPTs across all sites (15-25% vs. control, P < 0.001; superior to VR in upper limbs, P < 0.05) and enhanced CPM efficiency by 18% (vs. control, P = 0.010; vs. VR, P = 0.046). Cold pain intensity decreased by 22% with MSVR (P < 0.05 vs. both groups). MSVR uniquely enhanced parietal alpha oscillations during and post-intervention (P = 0.001). MSVR also induced greater immersion and realism than VR (P < 0.001). MSVR significantly enhances endogenous pain inhibition and elevates pain thresholds more effectively than conventional VR or 2D interventions, primarily through rhythmic audiomotor integration modulating parietal alpha-oscillation modulation. These findings suggest MSVR as a scalable digital therapeutic strategy for pain management.

Journal of NeuroEngineering and RehabilitationVol. 22(1)
Shanghai University of Sport (CN), Wenzhou Medical University (CN), Shanghai University of Traditional Chinese Medicine (CN), Zhejiang DongFang Vocational and Technical College (CN), Shuguang Hospital (CN)
National Natural Science Foundation of China, Wenzhou Municipal Science and Technology Bureau
Openalex Percentile: Top 10%
Music Therapy and Health
2.44
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