Telemedicine Journal and e-Health · 2008 · 77 citations · 10 references
EngineeringRobotics EngineeringSurgeryMedical RoboticsMobile RoboticsRoboticsRemotely Operated VehiclesRobot-assisted SurgerySurgical RoboticsTelemedicineTeleoperated Surgical SystemsTeleoperationBattlefield CommunicationsLow-latency Wireless LinksNetwork LatencyRemote Surgical AssistanceRobot End-effectorsRobotic Surgical SystemsSurgical End EffectorsTeleoperated Surgery
As unmanned extraction vehicles become a reality in the military theater, opportunities to augment medical operations with telesurgical robotics become more plausible. This project demonstrated an experimental surgical robot using an unmanned airborne vehicle (UAV) as a network topology. Because battlefield operations are dynamic and geographically challenging, the installation of wireless networks is not a feasible option at this point. However, to utilize telesurgical robotics to assist in the urgent medical care of wounded soldiers, a robust, high bandwidth, low latency network is requisite. For the first time, a mobile surgical robotic system was deployed to an austere environment and surgeons were able to remotely operate the systems wirelessly using a UAV. Two University of Cincinnati surgeons were able to remotely drive the University of Washington's RAVEN robot's end effectors. The network topology demonstrated a highly portable, quickly deployable, bandwidth-sufficient and low latency wireless network required for battlefield use.
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Transatlantic robot-assisted telesurgery
Jacques Marescaux, Joël Leroy, M. Gagner et al. · Nature · 2001 · 1K citations
ROBOT ASSISTED LAPAROSCOPIC NEPHRECTOMY
Bertrand Guillonneau, Christian Jayet, Ashutosh Tewari et al. · The Journal of Urology · 2001 · 143 citations
Effect of Time Delay on Surgical Performance During Telesurgical Manipulation
MICHAEL D. FABRLZIO, BENJAMIN R. LEE, David Y. Chan et al. · Journal of Endourology · 2000 · 120 citations