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Main Authors: Pisla, Doina, Zima, Ionut, Vaida, Calin, Cailean, Andrei, Miclaus, Marius, Pisla, Adrian, Caprariu, Andrei, Bulbucan, Vasile, Gherman, Bogdan, Chablat, Damien
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2604.05610
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author Pisla, Doina
Zima, Ionut
Vaida, Calin
Cailean, Andrei
Miclaus, Marius
Pisla, Adrian
Caprariu, Andrei
Bulbucan, Vasile
Gherman, Bogdan
Chablat, Damien
author_facet Pisla, Doina
Zima, Ionut
Vaida, Calin
Cailean, Andrei
Miclaus, Marius
Pisla, Adrian
Caprariu, Andrei
Bulbucan, Vasile
Gherman, Bogdan
Chablat, Damien
contents Minimally invasive surgery (MIS) reduces patient trauma and shortens recovery time; however, conventional laparoscopic instruments remain constrained by limited range of movements. This work presents the control architecture of a 4-DOF flexible laparoscopic instrument integrating distal bending, independent distal head rotation, shaft rotation, and a gripper, while maintaining a 10 mm diameter compatible with standard trocars. The actuation unit and SpaceMouse teleoperation are implemented on Raspberry Pi 5 with Motoron controllers. An analytical scissor-linkage model is derived and parameterized. The predicted jaw opening corresponds to CAD measurements (MAE 0.13{\textdegree}) and OptiTrack motion capture (MAE 1.43{\textdegree}). Integration with the ATHENA parallel robot is validated through a simulated pancreatic surgery procedure.
format Preprint
id arxiv_https___arxiv_org_abs_2604_05610
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Control Architecture and experimental validation of a Novel Surgical Robotic Instrument
Pisla, Doina
Zima, Ionut
Vaida, Calin
Cailean, Andrei
Miclaus, Marius
Pisla, Adrian
Caprariu, Andrei
Bulbucan, Vasile
Gherman, Bogdan
Chablat, Damien
Robotics
Minimally invasive surgery (MIS) reduces patient trauma and shortens recovery time; however, conventional laparoscopic instruments remain constrained by limited range of movements. This work presents the control architecture of a 4-DOF flexible laparoscopic instrument integrating distal bending, independent distal head rotation, shaft rotation, and a gripper, while maintaining a 10 mm diameter compatible with standard trocars. The actuation unit and SpaceMouse teleoperation are implemented on Raspberry Pi 5 with Motoron controllers. An analytical scissor-linkage model is derived and parameterized. The predicted jaw opening corresponds to CAD measurements (MAE 0.13{\textdegree}) and OptiTrack motion capture (MAE 1.43{\textdegree}). Integration with the ATHENA parallel robot is validated through a simulated pancreatic surgery procedure.
title Control Architecture and experimental validation of a Novel Surgical Robotic Instrument
topic Robotics
url https://arxiv.org/abs/2604.05610