Covidien LP

Jaimeen Kapadia

Chi Min Seow

Mark H MacLeod

Michael A Zemlok

Richard S Lech

Josiah Rosmarin

Brian A Rockrohr

Eric J Taylor

Shane Reardon

Mike Zemlok

Mark Macleod

Ranjan Mishra

William J Peine

Dwight Meglan

Meir Rosenberg

Brock Kopp

Robert Pierce

Elizabeth Gayle Shields

Vipul Agarwal

Raymond P Pennoyer, Iv

Ranjan K Mishra

Adapter assemblies for connecting an endoscope to a robotic surgical system include a proximal housing, a distal housing, and a drive assembly. The distal housing is rotatable relative to the proximal housing via the drive assembly. A surgical assembly for interconnecting an endoscope and a surgical robotic arm includes a surgical instrument holder and an adapter assembly configured for receipt within the surgical instrument holder.

Robotic surgical assemblies and adapter assemblies thereof

A surgical robotic arm for use in a minimally invasive surgical procedure includes an elongated rail configured for slidable engagement of a surgical instrument, and a trocar mount disposed at an end portion of the rail. The trocar mount is rotatable relative to the end portion of the rail to assist with loading and unloading the surgical instrument.

Surgical robotic systems

A robotic surgical assembly includes an instrument drive unit and a sterile interface module for coupling an electromechanical robotic surgical instrument to the instrument drive unit. The sterile interface module is detachable from the instrument drive unit and is equipped with a mechanism that allows for a manual actuation of the surgical instrument.

Sterile interface module for robotic surgical assemblies

A surgical robotic system includes a ceiling mount assembly including a bracket configured to be fixed to a ceiling, and an elongate body extending horizontally from the bracket and defining a longitudinally-extending track. The surgical robotic system further includes a plurality of robotic arms coupled to a ceiling of an operating room via the ceiling mount assembly, wherein the plurality of robotic arms is configured to move along a horizontal axis defined by the track.

An instrument drive unit for use in a robotic surgical system includes a carriage configured to be coupled to a robotic arm, a hub rotationally coupled to the carriage and configured to be non-rotatably coupled to an electromechanical surgical instrument, a plurality of motors, a plurality of motor gears, a plurality of drive shafts, and a plurality of drive gears. Each motor gear is operably coupled to a corresponding motor, and each drive gear is fixed to a corresponding drive shaft. The drive shafts are rotationally supported in the hub and configured for interfacing with a corresponding driven member of the electromechanical surgical instrument. Each motor gear is configured to rotate a corresponding drive gear in response to an activation of a respective motor to actuate a function of the electromechanical surgical instrument.

A robotic surgical system includes an electrosurgical energy source, an instrument drive unit, a sterile interface module coupled to the instrument drive unit, and a robotic surgical instrument selectively couplable to the sterile interface module. The robotic surgical instrument may be disposed in electrical communication with the electrosurgical energy source while the robotic surgical instrument is coupled to the sterile interface module. The robotic surgical instrument is configured to automatically electrically disconnect from the electrosurgical energy source when the robotic surgical instrument is uncoupled from the sterile interface module.

Energy disconnect for robotic surgical assemblies

The sterile interface module includes a body member for coupling a surgical instrument to a robotic surgical assembly, a decoupling collar supported on the body member and movable relative to the body member from a first position to a second position, and a drive transfer assembly supported by the body member. The drive transfer assembly includes a drive coupler and a transfer shaft extending from the drive coupler. The drive coupler engages the robotic surgical assembly and the transfer shaft engages the surgical instrument. The drive coupler engages the robotic surgical assembly while the decoupling collar is in the first position to enable the robotic surgical assembly to robotically control the surgical instrument. The drive coupler is retracted within the body member while the decoupling collar is in the second position to prevent the drive coupler from engaging the robotic surgical assembly.

An instrument drive unit includes a housing defining a central longitudinal axis; an inertial measurement unit disposed within the housing and configured to determine a pose of the instrument drive unit; and a controller disposed within the housing, the controller configured to receive the pose of the instrument drive unit from the inertial measurement unit and to generate a corrected output signal which compensates for the pose of the instrument drive unit.

Instrument drive unit torque compensation using inertial measurement unit

An instrument drive unit for use in a robotic surgical system includes a carriage configured to be coupled to a robotic arm, a plurality of drive shafts rotationally supported in the carriage, a plurality of electric motors, and a plurality of concentric, tubular shafts extending through the plurality of electric motors. Each electric motor includes a stator and a rotor disposed within the stator. Each drive shaft is configured for interfacing with a corresponding driven member of the electromechanical surgical instrument. A rotation of a rotor of an electric motor rotates a corresponding tubular shaft, which, in turn, rotates a corresponding drive shaft to actuate a function of the electromechanical surgical instrument.

An instrument drive unit includes a hub, a motor pack, and an annular member disposed between the hub and the motor pack. The hub and motor pack each have a surface feature. The motor pack is rotatably coupled to the hub. The annular member defines an upper annular channel, and a lower annular channel. The annular member has a stop formed in each of the upper and lower annular channels. Upon the motor pack achieving a threshold amount of rotation relative to the hub, the surface feature of the motor pack abuts the stop of the lower annular channel to rotate the annular member. Upon the annular member achieving a threshold amount of rotation relative to the hub, the stop of the upper annular channel abuts the surface feature of the hub stopping further rotation of the motor pack.

Robotic surgical assemblies

Robotic surgical arm cart

A method of automatically assigning foot pedals of a robotic surgical system to surgical instruments of a surgical robot of the robotic surgical system includes: receiving a signal that a first electrosurgical pedal is actuated; determining a number of electrosurgical instruments connected to the surgical robot in response to actuation of the first electrosurgical foot pedal; assigning the first electrosurgical foot pedal to a first electrosurgical instrument connected to the surgical robot after the first electrosurgical foot pedal is actuated; and delivering electrosurgical energy to the first electrosurgical instrument in response to actuation of the first electrosurgical foot pedal after assigning the first electrosurgical foot pedal to the first electrosurgical instrument.

Foot pedal assignment for robotic surgical systems

A surgical cart for supporting a robotic arm includes a base, a plurality of casters coupled to the base, and first and second rods rotatably supported by the base. The first rod is operably coupled to a first caster and configured to rotate in a first direction to one of lock or unlock the first caster. The second rod is coupled to a second caster and operably coupled to the first rod such that rotation of the first rod in the first direction causes the second rod to rotate in a second direction to one of lock or unlock the second caster.

Robotic surgical systems and robotic arm carts thereof

A method of calibrating a torque sensor for a motor with a controller includes determining a gain of the torque sensor, zeroing a torque reading of the torque sensor, accelerating the motor at a known rate, and determining an inertia of the motor in response to accelerating the motor. Zeroing the torque reading occurs when the motor is in an unloaded and unactivated condition and accelerating the motor occurs when the motor is in an unloaded condition.

Method of calibrating torque sensors of instrument drive units of a surgical robot

A drape management assembly for a robotic surgical system includes a clip having a base portion configured for selective connection to the robotic surgical system and a grasping portion extending from the base portion. The base portion and the grasping portion may define a cavity therebetween. The base portion and the grasping portion may be arranged to retain a quantity of a surgical drape in the cavity to minimize an excess quantity of a surgical drape sheathed over a robotic arm of the robotic surgical system.

Growing community of inventors

Cambridge, MA, United States of America

Jaimeen Kapadia