Ultrasonic tool to cut human bone: Cutting speed and forces necessary for potential remote robotic arms

Procedural-related musculoskeletal pain is common among orthopaedic surgeons, often caused by the repetitive use of high-force bone-cutting tools. Ultrasonic cutting devices, which can operate with lower force, may help reduce this physical burden. In this study, three practising orthopaedic surgeons each performed two cuts on three fresh cortical bone samples, harvested from excised femoral necks from three patients undergoing hip replacement surgery. The study was conducted using an ultrasonic cutting device in a controlled yet clinically reflective environment. A novel setup captured real-time data on surgeon-related parameters, including vertical cutting force and vertical and horizontal cutting speed. Consistent with previous research, we confirmed that ultrasonic devices enable low force cutting (average 1.91 N). However, our findings revealed significant variability in how each surgeon interacted with the device - including how much force each surgeon applied, and how the device was manoeuvred which can influence device performance, thermal effects, and overall clinical outcomes. Given the critical importance of surgeon-related factors, our results highlight the need to understand how each surgeon interacts with these devices differently. This insight can inform training and device optimisation strategies; help translate bench testing results into effective clinical use and ultimately improve surgical performance and patient outcomes. Additionally, our findings support the potential benefits of integrating ultrasonic devices with robotic platforms to maintain consistent cutting parameters. Future research should investigate optimal cutting parameters, evaluate different blade profiles, assess result generalisability and compare outcomes before and after training or system enhancements.

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Publication Details

Journal
Proceedings of the Institution of Mechanical Engineers Part H Journal of Engineering in Medicine
Published
2025-12-25
DOI
https://doi.org/10.1177/09544119251399865
Primary Topic
Soft Robotics and Applications
Type
article
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article

Ultrasonic tool to cut human bone: Cutting speed and forces necessary for potential remote robotic arms

Russell Buchanan, X. Y. Li, A. Hamish R. W. Simpson, Irene Yang et al.
Proceedings of the Institution of Mechanical Engineers Part H Journal of Engineering in Medicine
Soft Robotics and Applications
article

Ultrasonic tool to cut human bone: Cutting speed and forces necessary for potential remote robotic arms

Russell Buchanan, X. Y. Li, A. Hamish R. W. Simpson, Irene Yang, Nisreen Al-Namnam, Margaret Lucas
article en

Abstract

Procedural-related musculoskeletal pain is common among orthopaedic surgeons, often caused by the repetitive use of high-force bone-cutting tools. Ultrasonic cutting devices, which can operate with lower force, may help reduce this physical burden. In this study, three practising orthopaedic surgeons each performed two cuts on three fresh cortical bone samples, harvested from excised femoral necks from three patients undergoing hip replacement surgery. The study was conducted using an ultrasonic cutting device in a controlled yet clinically reflective environment. A novel setup captured real-time data on surgeon-related parameters, including vertical cutting force and vertical and horizontal cutting speed. Consistent with previous research, we confirmed that ultrasonic devices enable low force cutting (average 1.91 N). However, our findings revealed significant variability in how each surgeon interacted with the device - including how much force each surgeon applied, and how the device was manoeuvred which can influence device performance, thermal effects, and overall clinical outcomes. Given the critical importance of surgeon-related factors, our results highlight the need to understand how each surgeon interacts with these devices differently. This insight can inform training and device optimisation strategies; help translate bench testing results into effective clinical use and ultimately improve surgical performance and patient outcomes. Additionally, our findings support the potential benefits of integrating ultrasonic devices with robotic platforms to maintain consistent cutting parameters. Future research should investigate optimal cutting parameters, evaluate different blade profiles, assess result generalisability and compare outcomes before and after training or system enhancements.

Proceedings of the Institution of Mechanical Engineers Part H Journal of Engineering in MedicineVol. 240(1)
Western University (CA), University of Waterloo (CA), London Health Sciences Centre (CA), Edinburgh Royal Infirmary (GB), Victoria Hospital (CA), Fraunhofer Centre for Applied Photonics (GB), University of Southampton (GB), University of Edinburgh (GB)
Openalex Percentile: Top 42%
Soft Robotics and Applications
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