47 results about "Instrument Driver" patented technology

A surgical system includes an instrument driver having a distal end positionable in a body cavity and a user input device. The instrument driver and user input device are positioned to removably receive distal and proximal portions, respectively, of a surgical instrument. The user input device is configured to generate movement signals in response to manual manipulation of the proximal portion of the surgical instrument. At least one motor operable to actuate the instrument driver in response to the movement signals and to thereby change position of the distal portion of the surgical instrument within the body cavity.

A system and associated method for delivering to an internal body site a selected one of a plurality of instruments including fluid-dispensing instruments. An instrument storage chamber is providing having passages for separately accommodating the plurality of instruments. An outlet guide tube couples from the instrument storage chamber and receives a selected one of these instruments for delivery to an internal operative site. An indexing mechanism is provided associated with the chamber for causing relative displacement between the instruments and the outlet guide tube. An instrument driver displaces the registered instrument from the chamber into the outlet guide tube for delivery to the internal operative site.

A medical instrument system includes a controller and a guide instrument coupled to an instrument driver, the instrument driver configured to manipulate a distal end portion of the guide instrument in response to control signals generated by the controller. A force sensor is associated with the guide instrument or with a working instrument carried by the guide instrument, and generates force signals responsive to a force applied to a respective distal end portion of the guide instrument or working instrument. A position determining system generates position data indicative of a position of the respective guide or working instrument distal end portion associated with the force sensor, and a processor operatively coupled to the force sensor and position determining system processes respective force signals and position data to generate and display a geometric rendering of an internal body tissue surface based on sensed forces applied to the respective instrument distal end portion as the guide instrument is maneuvered within an interior region of a body containing the body surface.

A robotic medical system comprises an instrument driver having a driver shaft, a driver cable slidably disposed through the shaft, and a driver coupling member respectively mounted to the driver cable, and an instrument having an instrument shaft, an end effector, an instrument cable slidably disposed through the shaft for actuating the end effector, and an instrument coupling member mounted to the instrument cable. The robotic medical system further comprises a storage chamber having a passage that stores the instrument, a drive unit coupled to the instrument driver, and an electric controller configured for directing the drive unit to distally advance the instrument driver within the passage of the storage chamber and engage the driver coupling member and instrument coupling member, and for directing the drive unit to proximally retract the instrument driver within the passage of the storage chamber and disengage the driver coupling member and instrument coupling member.

A system and method for CT guided instrument targeting including a radiolucent instrument driver; a robot and a control box. The robot includes a robotic module that positions the radiolucent driver about two directions coincident a predetermined point. The control device is connected to the robot and the radiolucent instrument driver. The control driver sends a robot control signal to the robot that causes the robotic module to place the radiolucent instrument driver in a desired orientation with respect to the predetermined point. After the radiolucent instrument driver is in the desired orientation, the control device sends a driver control signal to the radiolucent instrument driver that causes the radiolucent driver to insert a medical instrument or device through the predetermined point to a location proximate a target point in a patient.

A robotic medical system comprises a medical instrument assembly having a retainer, a serial array of instruments disposed in the retainer, a chamber, and an instrument driver. The robotic medical system further comprises a user interface configured for generating at least one command signal, a drive unit coupled to the first mechanism, second mechanism, and instrument driver, and an electric controller configured, in response to the command signal(s), for directing the drive unit to linearly displace the array of instruments within the retainer, to displace a selected one of the instruments from the retainer into the chamber, and to distally advance the instrument driver within the chamber to engage the selected instrument.

A system and method for controlling an instrumentation system, wherein the present invention includes an improved instrument driver software architecture. The instrument driver software architecture of the present invention provides a number of features, including instrument interchangeability, i.e., the use of interchangeable virtual instruments or interchangeable instrument drivers, improved performance, an improved attribute model, improved range checking, and improved simulation features, among others.

A system and method for controlling an instrumentation system, wherein the present invention includes an improved instrument driver software architecture. The instrument driver software architecture of the present invention provides a number of features, including instrument interchangeability, i.e., the use of interchangeable virtual instruments or interchangeable instrument drivers, improved performance, an improved attribute model, improved range checking, and improved simulation features, among others.

A system and method for controlling an instrumentation system, wherein the present invention includes an improved instrument driver software architecture. The instrument driver software architecture of the present invention provides a number of features, including instrument interchangeability, i.e., the use of interchangeable virtual instruments or interchangeable instrument drivers, improved performance, an improved attribute model, improved range checking, and improved simulation features, among others.

A device may operate a guide wire and be operable by a single operator digit. The device may include an insertion control device for advancing the guide wire in a forward and in a reverse direction and along a longitudinal axis of the guide wire; and a rotary device for rolling a guide wire about the longitudinal axis. A robotic instrument driver may be operatively coupled to the device and configured to control axial movement of the guide wire along the longitudinal axis according to input received from the insertion control device and to control rotational movement of the guide wire according to input received from the rotary device.

Embodiments of the invention provide a debugging tool configured to serialize function calls made to a graphics API on a remote device such as a hand-held videogame system. Embodiments of the invention may be used to emulate the performance of the same graphics API calls made on the remote device to generate a given display frame. An instrumented driver may capture and serialize each graphics API call invoked by a graphics application running on the remote device. Thus, the host component of the graphical application debugger may generate and display the same image as displayed on the target device without the latency of waiting for a set of framebuffer data to be transmitted over the communication link for each frame rendered on the target device.

An application programming interface (API) for synchronizing multiple devices in a system. The API includes a plurality of functions invocable in a program to synchronize multiple devices, where each function is executable to perform a respective functionality related to synchronizing the devices, and at least one of the functions is executable to access a plurality of instrument drivers corresponding respectively to the plurality of devices to synchronize the plurality of devices. In synchronizing the plurality of devices, the functions determine a trigger clock signal for each of the plurality of devices, and synchronize the plurality of devices based on the determined trigger clock signals. The API also includes a plurality of attributes corresponding to respective properties of the system related to synchronization of the devices, including one or more trigger attributes and/or one or more trigger clock attributes for each of the devices. The API representations may be text-based and/or graphical.

The invention belongs to the field of computer automatic testing, and provides an implementation method of a universal virtual instrument interface. In the method, a universal software interface layer is added between a common instrument driver and a application program, the application program is completely separated from the calling of the actual instrument, and a unified calling interface function and a universal software interface description file are defined, thereby replacing the instruments in the testing system under the conditions of not changing application program codes and not recompiling a source program; a testing software pack can adapt to the existing or even future testing systems composed of different types of instrument hardware and buses; and the testing codes can be transplanted to different instruments without being modified. In addition, the method can be used for realizing data communication functions among different software program modules.