TY - JOUR
T1 - Augmenting Robot-Assisted Pattern-Cutting With Periodic Perturbations
T2 - Can We Make Dry Lab Training More Realistic?
AU - Sharon, Yarden
AU - Nevo, Tifferet
AU - Naftalovich, Daniel
AU - Bahar, Lidor
AU - Refaely, Yael
AU - Nisky, Ilana
N1 - Publisher Copyright:
© 2024 The Authors.
PY - 2025/1/1
Y1 - 2025/1/1
N2 - Objective: Teleoperated robot-assisted minimally-invasive surgery (RAMIS) offers many advan tages over open surgery, but RAMIS training still requires optimization. Existing motor learning theories could improve RAMIS training. However, there is a gap between current knowledge based on simple movements and training approaches required for the more complicated work of RAMIS surgeons. Here, we studied how surgeons cope with time-dependent perturbations. Methods: We used the da Vinci Research Kit and investigated the effect of time-dependent force and motion perturbations on learning a circular pattern-cutting surgical task. Fifty-four participants were assigned to two experiments, with two groups for each: a control group trained without perturbations and an experimental group trained with 1 Hz perturbations. In the first experiment, force perturbations alternatingly pushed participants' hands inwards and outwards in the radial direction. In the second experiment, the perturbation constituted a periodic up-and-down motion of the task platform. Results: Participants trained with perturbations learned how to overcome them and improve their performances during training without impairing them after the perturbations were removed. Moreover, training with motion perturbations provided participants with an advantage when encountering the same or other perturbations after training, compared to training without perturbations. Conclusion: Periodic perturbations can enhance RAMIS training without impeding the learning of the perturbed task. Significance: Our results demonstrate that using challenging training tasks that include perturbations can better prepare surgical trainees for the dynamic environment they will face with patients in the operating room.
AB - Objective: Teleoperated robot-assisted minimally-invasive surgery (RAMIS) offers many advan tages over open surgery, but RAMIS training still requires optimization. Existing motor learning theories could improve RAMIS training. However, there is a gap between current knowledge based on simple movements and training approaches required for the more complicated work of RAMIS surgeons. Here, we studied how surgeons cope with time-dependent perturbations. Methods: We used the da Vinci Research Kit and investigated the effect of time-dependent force and motion perturbations on learning a circular pattern-cutting surgical task. Fifty-four participants were assigned to two experiments, with two groups for each: a control group trained without perturbations and an experimental group trained with 1 Hz perturbations. In the first experiment, force perturbations alternatingly pushed participants' hands inwards and outwards in the radial direction. In the second experiment, the perturbation constituted a periodic up-and-down motion of the task platform. Results: Participants trained with perturbations learned how to overcome them and improve their performances during training without impairing them after the perturbations were removed. Moreover, training with motion perturbations provided participants with an advantage when encountering the same or other perturbations after training, compared to training without perturbations. Conclusion: Periodic perturbations can enhance RAMIS training without impeding the learning of the perturbed task. Significance: Our results demonstrate that using challenging training tasks that include perturbations can better prepare surgical trainees for the dynamic environment they will face with patients in the operating room.
KW - Surgical skill acquisition
KW - human-robot interaction
KW - sensorimotor adaptation
KW - surgical robotics
UR - https://www.scopus.com/pages/publications/85202754646
U2 - 10.1109/TBME.2024.3450702
DO - 10.1109/TBME.2024.3450702
M3 - Article
C2 - 39190510
AN - SCOPUS:85202754646
SN - 0018-9294
VL - 72
SP - 264
EP - 275
JO - IEEE Transactions on Biomedical Engineering
JF - IEEE Transactions on Biomedical Engineering
IS - 1
ER -