Design of a Physiologically Based Feedback Loop Using Biosensors for Interactive XR and Spatial Computing Environments

This work investigates the signal characteristics of a physiological response (acute stress) and determines the viability of developing a Virtual Reality (VR) integrated physiologically based real-time feedback loop. This work has possible applications in physiotherapy and patient rehabilitation for long-term conditions including long COVID, persistent pain, and chronic fatigue. Using real-time physiological data, this approach can offer an individualised and immersive therapeutic experience. By synchronizing VR experiences with physiological responses, clinicians can optimise treatment efficacy and facilitate targeted rehabilitation efforts. A design and early prototype were developed to include a feedback loop driven by an ensemble of biosignal signatures, correlating with stress responses, that adjusts dynamic components in the environment. The prototype shows the feasibility of developing a physiologically based XR environment suitable for virtual physiotherapy interventions.

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Published
2024-12-05
DOI
https://doi.org/10.1109/icir64558.2024.10976814
Primary Topic
Context-Aware Activity Recognition Systems
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article
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article

Design of a Physiologically Based Feedback Loop Using Biosensors for Interactive XR and Spatial Computing Environments

David Murphy, Denis Martin, Joseph McVeigh, Bróna M. Fullen et al.
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Context-Aware Activity Recognition Systems
article

Design of a Physiologically Based Feedback Loop Using Biosensors for Interactive XR and Spatial Computing Environments

David Murphy, Denis Martin, Joseph McVeigh, Bróna M. Fullen, Eoghan Ó Riain
article en

Abstract

This work investigates the signal characteristics of a physiological response (acute stress) and determines the viability of developing a Virtual Reality (VR) integrated physiologically based real-time feedback loop. This work has possible applications in physiotherapy and patient rehabilitation for long-term conditions including long COVID, persistent pain, and chronic fatigue. Using real-time physiological data, this approach can offer an individualised and immersive therapeutic experience. By synchronizing VR experiences with physiological responses, clinicians can optimise treatment efficacy and facilitate targeted rehabilitation efforts. A design and early prototype were developed to include a feedback loop driven by an ensemble of biosignal signatures, correlating with stress responses, that adjusts dynamic components in the environment. The prototype shows the feasibility of developing a physiologically based XR environment suitable for virtual physiotherapy interventions.

University College Dublin (IE), University College Cork (IE), Teesside University (GB)
Openalex Percentile: Top 70%
Context-Aware Activity Recognition Systems
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Design of a Physiologically Based Feedback Loop Using Biosensors for Interactive XR and Spatial Computing Environments — David Murphy, Denis Martin, et al. · (2024) | TGRS Research Map | TGRS