Abstract: A control arm assembly for controlling a robot system includes a gimbal that is moveable and rotatable about three axes, and a handle assembly coupled to the gimbal. The handle assembly includes a body portion having a controller disposed therein and a first actuator disposed thereon. The first actuator is mechanically coupled to the controller via a four-bar linkage such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal.

Abstract: A foot pedal for a user interface of a robotic surgical system includes a frame, a lever, and a sensor system. The lever is coupled to the frame and is pivotable relative to the frame between an initial position and a fully actuated position. The sensor system has a first element associated with the frame and a second element that is associated with the lever. The sensor system is configured to determine the position of the lever relative to the frame.

Abstract: A control arm assembly for controlling a robot system includes a gimbal that is moveable and rotatable about three axes, and a handle assembly coupled to the gimbal. The handle assembly includes a body portion having a controller disposed therein and a first actuator disposed thereon. The first actuator is mechanically coupled to the controller via a four-bar linkage such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal.

Abstract: A control arm assembly for controlling a robot system includes a gimbal that is moveable and rotatable about three axes, and a handle assembly coupled to the gimbal. The handle assembly includes a body portion having a controller disposed therein and a first actuator disposed thereon. The first actuator is mechanically coupled to the controller via a four-bar linkage such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal.

Abstract: A gimbal for a robotic surgical system includes a support link, an input link, and a vibration assembly. The input link extends from the support link and the vibration assembly is mounted to the support link. The vibration assembly includes a central support, an end cap, and a voice coil. The end cap is moveable relative to the central support. The voice coil has an inner member that is fixed to the central support and an outer member that is fixed to the end cap. The voice coil is configured to vibrate the gimbal in response to a voltage being applied to one of the inner or outer members.

Abstract: A control arm assembly for controlling a robot system includes a gimbal that is moveable and rotatable about three axes, and a handle assembly coupled to the gimbal. The handle assembly includes a body portion having a controller disposed therein and a first actuator disposed thereon. The first actuator is mechanically coupled to the controller via a four-bar linkage such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal.

Abstract: An input device for a robotic surgical system includes a body, a light source, and control interfaces. The body is configured to couple to a user interface. The control interfaces are each associated with a function of the robot system. The light source is configured to selectively illuminate each of the control interfaces independent of one another.

Abstract: A foot pedal for a user interface of a robotic surgical system includes a frame, a lever, and a sensor system. The lever is coupled to the frame and is pivotable relative to the frame between an initial position and a fully actuated position. The sensor system has a first element associated with the frame and a second element that is associated with the lever. The sensor system is configured to determine the position of the lever relative to the frame.

Abstract: A gimbal for a robotic surgical system includes a support link, an input link, and a vibration assembly. The input link extends from the support link and the vibration assembly is mounted to the support link. The vibration assembly includes a central support, an end cap, and a voice coil. The end cap is moveable relative to the central support. The voice coil has an inner member that is fixed to the central support and an outer member that is fixed to the end cap. The voice coil is configured to vibrate the gimbal in response to a voltage being applied to one of the inner or outer members.

Abstract: A gimbal for a robotic surgical system includes a support link, an input link, and a vibration assembly. The input link extends from the support link and the vibration assembly is mounted to the support link. The vibration assembly includes a central support, an end cap, and a voice coil. The end cap is moveable relative to the central support. The voice coil has an inner member that is fixed to the central support and an outer member that is fixed to the end cap. The voice coil is configured to vibrate the gimbal in response to a voltage being applied to one of the inner or outer members.

Abstract: Methods and systems are provided of operating a dual console robotic surgical system. The method includes receiving an input from a first console of the dual console robotic surgical system via a first input handle to move a robotic arm of the robotic surgical system. In response to receiving the input from the first input handle, the robotic arm is moved. Additionally, substantially simultaneously with the moving of the first input handle, an output is provided to thereby move a second input handle of a second console of the dual console robotic surgical system in substantially the same motion as the first input handle.

Abstract: An input device for a robotic surgical system includes a body, a light source, and control interfaces. The body is configured to couple to a user interface. The control interfaces are each associated with a function of the robot system. The light source is configured to selectively illuminate each of the control interfaces independent of one another.

Abstract: A gimbal for a robotic surgical system includes a support link, an input link, and a vibration assembly. The input link extends from the support link and the vibration assembly is mounted to the support link. The vibration assembly includes a central support, an end cap, and a voice coil. The end cap is moveable relative to the central support. The voice coil has an inner member that is fixed to the central support and an outer member that is fixed to the end cap. The voice coil is configured to vibrate the gimbal in response to a voltage being applied to one of the inner or outer members.

Abstract: Self-Validating Thermocouple (SVT) Systems capable of detecting sensor probe open circuits, short circuits, and unnoticeable faults such as a probe debonding and probe degradation are useful in the measurement of temperatures. SVT Systems provide such capabilities by incorporating a heating or excitation element into the measuring junction of the thermocouple. By heating the measuring junction and observing the decay time for the detected DC voltage signal, it is possible to indicate whether the thermocouple is bonded or debonded. A change in the thermal transfer function of the thermocouple system causes a change in the rise and decay times of the thermocouple output. Incorporation of the excitation element does not interfere with normal thermocouple operation, thus further allowing traditional validation procedures as well.

Abstract: Self-Validating Thermocouple (SVT) Systems capable of detecting sensor probe open circuits, short circuits, and unnoticeable faults such as a probe debonding and probe degradation are useful in the measurement of temperatures. SVT Systems provide such capabilities by incorporating a heating or excitation element into the measuring junction of the thermocouple. By heating the measuring junction and observing the decay time for the detected DC voltage signal, it is possible to indicate whether the thermocouple is bonded or debonded. A change in the thermal transfer function of the thermocouple system causes a change in the rise and decay times of the thermocouple output. Incorporation of the excitation element does not interfere with normal thermocouple operation, thus further allowing traditional validation procedures as well.