The Mechanobiology of body-device interfaces
Body device interfacing technologies are crucial to the primary care and rehabilitation of many conditions. Continued research in this field is required to further optimize body device interface design and reduce instances of discomfort and injury. One of the next frontiers in body device interface research is the mechanobiology of body device interactions. The aim of this symposium is to discuss what is already known about body device interface mechanobiology, where the most significant gaps in our understanding are, and how this information could benefit the design, prescription, and management of body device interfacing technologies.
Mechanobiology
Our Work
2.08 Body-device interface interactions: Things you should know about mechanobiology
Understanding how load is transferred from the prosthetic socket to the weight bearing structure, the skeleton, is still limited. Considerable efforts are therefore required to further optimise body-device interface design and reduce instances of discomfort and injury. One of the next frontiers in this area is the mechanobiology of body-device interactions. This symposium used a multidisciplinary team of researchers, users, clinicians and industry proffesionals to discuss:
1. what is already known about body-device interface mechanobiology,
2. where the most significant gaps in our understanding are, and
3. how this information could benefit the design, prescription, and management of body-device interfacing technologies.
More specifically, the team discussed the reaction of skeletal muscle to prosthesis-related loading, as well as open challenges in the prosthetic interface system. Beside the risk for deformation-induced soft tissue injury, mechanical loading can also affect the vascular supply. Current results from oximetry studies will therefore be reviewed and the need for further research highlighted. Lastly, different approaches to postoperative treatments and shape capturing methods will be discussed from a clinical perspective, which have a direct influence on pressure distribution across the residual limb and therefore the mechanobiological environment.
Chairs:
Arjan Buis - Dept Biomedical Engineering, University of Strathclyde, Glasgow, United Kingdom
Sarah Day - Dept Prosthetics and orthotics, University of Strathclyde, Glasgow, United Kingdom
Presenters:
Morag Robertson - Dept Biomedical Engineering, University of Strathclyde, Glasgow, United Kingdom
Anton Johannesson - Ă–ssur, Reykjavik / Oslo, Iceland / Norway
Marisa Sargent - Dept Biomedical Engineering, University of Strathclyde, Glasgow, United Kingdom