Bioengineering (Basel)
January 2025
The haptic fidelity of biomimetic materials used in the design of procedural task trainers is of growing interest to the medical community. Shore hardness has been proposed as a method for assessing tissue biomechanics and replicating the results as a way to increase the fidelity of biomimetics to tissues. However, there is limited research on the reliability of human tissue measurements using Shore scales.
View Article and Find Full Text PDFIt is generally accepted that the human abdominal wall comprises skin, subcutaneous tissues, muscles and their aponeuroses, and the parietal peritoneum. Understanding these layers and their mechanical properties provides valuable information to those designing procedural skills trainers, supporting surgical procedures (hernia repair), and engineering-based work (in silico simulation). However, there is little literature available on the mechanical properties of the abdominal wall in layers or as a composite in the context of designing a procedural skills trainer.
View Article and Find Full Text PDFObjective: The objective of this review was to identify quantitative biomechanical measurements of human tissues, the methods for obtaining these measurements, and the primary motivations for conducting biomechanical research.
Introduction: Medical skills trainers are a safe and useful tool for clinicians to use when learning or practicing medical procedures. The haptic fidelity of these devices is often poor, which may be because the synthetic materials chosen for these devices do not have the same mechanical properties as human tissues.
Objective: The objective of this scoping review is to identify instruments that measure the physical haptic fidelity of procedural skills trainers.
Introduction: Procedural skills trainers have demonstrated beneficial outcomes for clinicians when used to practice and rehearse procedures. Despite this, several design flaws currently limit the widespread implementation of such trainers.
Objective: The objective of this scoping review is to identify the availability of quantitative biomechanical measurements from human tissues. This review will also consider the primary motivations for collecting biomechanical measurements of human tissues. The overall purpose of our research is to develop medical skills trainers that provide better haptic fidelity than those that are currently available.
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