Author :
Puangmali, Pinyo ; Althoefer, Kaspar ; Seneviratne, Lakmal D. ; Murphy, Declan ; Dasgupta, Prokar
Abstract :
Haptic perception plays a very important role in surgery. It enables the surgeon to feel organic tissue hardness, measure tissue properties, evaluate anatomical structures, and allows him/her to commit appropriate force control actions for safe tissue manipulation. However, in minimally invasive surgery, the surgeon´s ability of perceiving valuable haptic information through surgical instruments is severely impaired. Performing the surgery without such sensory information could lead to increase of tissue trauma and vital organic tissue damage. In order to restore the surgeon´s perceptual capability, methods of force and tactile sensing have been applied with attempts to develop instruments that can be used to detect tissue contact forces and generate haptic feedback to the surgeon. This paper reviews the state-of-the-art in force and tactile sensing technologies applied in minimally invasive surgery. Several sensing strategies including displacement-based, current-based, pressure-based, resistive-based, capacitive-based, piezoelectric-based, vibration-based, and optical-based sensing are discussed.
Keywords :
electric sensing devices; endoscopes; force control; force feedback; force sensors; grippers; medical robotics; optical sensors; pressure sensors; surgery; tactile sensors; anatomical structures; capacitive-based sensing; current-based sensing; displacement-based sensing; endoscope; force control; force sensing; gripper; haptic perception; minimally invasive surgery; optical-based sensing; organic tissue hardness; piezoelectric-based sensing; pressure-based sensing; resistive-based sensing; robotic surgery; surgical instruments; tactile sensing; tissue contact forces; tissue manipulation; vibration-based sensing; Anatomical structure; Force control; Force feedback; Force measurement; Haptic interfaces; Minimally invasive surgery; Optical feedback; Surges; Surgical instruments; Tissue damage; Force feedback; force sensor; haptic perception; minimally invasive surgery (MIS); robotic surgery; tactile sensor;