Intuitive Surgical Operations, Inc.

Zoll Circulation, Incorporated

Other

Terus Medical, Inc.

Charles E Swinehart

Amir Belson

Giuseppe Maria Prisco

Theodore W Rogers

Robert Matthew Ohline

John Ryan Steger

Craig R Gerbi

Paul Quentin Escudero

Marc S Kreidler

Keith Phillip Laby

Bruce Robert Woodley

Christopher Allen Julian

Aaron W Brown

Christoph Matthias Pistor

Katherine Whitin

Scott J Reiner

Mark Harasym

Enrique Romo

Renaldo J Quintana

Tyler J Morrissette

Reynaldo J Quintana

Kerry S Wang

Joseph Orban, Iii

Gregory Walter Hall

Margaret M Nixon

Edward P Donlon

Samuel Kwok Wai Au

Bob H Katz

Michael Turner

Chris A Julian

Brian M Crews

Samuel T Crews

Lawrence Kerver

Timothy R Dalbec

James Craig Milroy

Joseph P Orban

Alain F Sadaka

James O Jensen

Alain Sadaka

Peling G Lee

Kenneth L Gong

Vladimir Rappoport

Robert Mastromattei

Jacques Van Dam

Eric Knisley

Andrew Crews

Karnarnadakala D Krishnanand

Joseph P Iii Orban

Rogert M Ohline

Aaron Wesley Brown

Scott James Reiner

A teleoperational system receives a movement command in response to movement of an input device, in response to determining an instrument is being controlled based on the movement of the input device, maps the movement command to a first movement of the instrument in an instrument frame using a first mapping, and in response to determining a tissue probe is being controlled based on the movement of the input device, maps the movement command to a second movement of the tissue probe in a tissue probe frame using a second mapping. The first mapping maps motion in an input direction in the input frame to an instrument direction in the instrument frame. The second mapping maps motion in the input direction to a tissue probe direction in the tissue probe frame. The instrument direction corresponding with the input direction. The tissue probe direction not corresponding with the input direction.

Systems and methods for controlling a surgical instrument

A medical instrument may comprise a first articulatable segment having a first diameter, and a second articulatable segment having a second diameter smaller than the first diameter, wherein the second articulatable segment is coupled to the first articulatable segment and extends in a distal direction past the first articulatable segment. The instrument may also comprise a first force transmission element coupled to the first articulatable segment and extending in a proximal direction from the first articulatable segment to a first connector portion, the first connector portion being configured to be releasably coupled with a first actuator, and a second force transmission element coupled to the second articulatable segment and extending in a proximal direction from the second articulatable segment to a second connector portion, the second connector portion being configured to be releasably coupled with a second actuator. The first and second force transmission elements may be configured to transmit actuation forces, respectively, to articulate the first and second articulatable segments independently of one another.

Connector device for a controllable instrument

A surgical port feature may include a funnel portion, a tongue, a waist portion, and surgical instrument channels. The waist portion may be located between the funnel portion and the tongue. The surgical instrument channels may extend from the funnel portion through the waist portion. The surgical port feature may further include a second tongue, with the wait portion being located between the funnel portion, the tongue, and the second tongue.

Surgical port feature

A teleoperational medical system comprises an input device and a manipulator configured to couple with and move an instrument. The system also comprises a control system including one or more processors. In response to a determination that the instrument is inserted into an instrument workspace in a corresponding direction to a field of view of the workspace, the control system is configured to map movement of the input device to movement of the instrument according to a first mapping. In response to a determination that the instrument is inserted into the instrument workspace in a non-corresponding direction to the field of view, the control system is configured to map movement of the input device to movement of the instrument according to a second mapping. The second mapping includes an inversion of the first mapping for at least one direction of motion of the instrument.

A system for controlling movement of a remotely controlled steerable instrument may comprise a flexible instrument comprising a steerable portion configured to articulate to change a shape of the steerable portion. The system may also comprise a shape sensing device comprising a first resistance-changing flexible sensor. The first resistance-changing flexible sensor may be configured to generate a signal indicative of a first bend change in the steerable portion. The system may also comprise a controller in signal communication with the first resistance-changing flexible sensor. The controller may be logically coupled to the flexible instrument and is configured to output a control signal to articulate the steerable portion of the flexible instrument in response to receiving at least the signal from the first resistance-changing flexible sensor.

System for controlling an instrument using shape sensors

A system for controlling movement of a remotely controlled steerable instrument comprises a flexible instrument. The flexible instrument comprises a steerable distal portion and a passive proximal portion. The steerable distal portion is configured to articulate to change a shape of the steerable distal portion. The system further comprises a shape sensing device comprising an optical fiber that spirals around the steerable distal portion. The optical fiber is configured to provide a signal indicative of the shape of the steerable distal portion. The system further comprises a controller in signal communication with the optical fiber. The controller is logically coupled to the flexible instrument and is configured to output a control signal to articulate the steerable distal portion of the flexible instrument in response to receiving at least the signal from the optical fiber.

A connector assembly for controllable articles is described herein. The connector assembly engages force transmission elements used to transmit force from one or more force generators with the force transmission elements used to manipulate a controllable article. Additionally, the connector assembly provides organization thereby simplifying the process of connecting a plurality of elements, usually with a quick, single movement.

The application discloses devices, delivery tools, systems, and methods for treating biliary disease. Device comprise, for example, a component configured for deployment between a gallbladder and location within a gastrointestinal tract of a patient which has a proximal end and a distal end with a lumen extending therethrough. A method of deploying the device can be achieved by, for example, creating a duct or fistula between a gallbladder lumen and a portion of a gastrointestinal tract; and providing for drainage from the gallbladder to the gastrointestinal tract.

Biliary shunts, delivery systems, and methods of using the same

A cannula mounting fixture may include a base, a first arm with a first cannula mounting bracket and a second arm with a second cannula mounting bracket. The first arm may be coupled to the base so that a first cannula mounted at the first mounting bracket is positioned within an opening in a patient's body. The second arm may be coupled to the base and includes a joint that allows a second cannula mounted at the second mounting bracket to be inserted through the opening. A cannula stabilizing fixture may include a base and a repositionable arm. The base may be configured to be securely and removably coupled to a first cannula that extends into an opening in a patient's body. The repositionable arm may include a first cannula holder coupled to the base and is configured to support a second cannula that extends into the opening.

Cannula mounting fixture

The present invention relates, generally, to controlling a steerable instrument having an elongate body. More particularly, the present invention relates to a system and method for sensing the shape of a steerable instrument and controlling the steerable instrument in response to a control signal from a user input device and a shape signal corresponding to the sensed shape of at least a portion of the steerable instrument. The present invention also relates to a system for sensing the shape of a flexible instrument with an optical shape sensor.

A surgical apparatus includes a cannula and a surgical instrument. The cannula includes a curved longitudinal axis along at least a portion of its length. The surgical instrument includes an elongated shaft having a distal end and a proximal end, and an end effector coupled to the distal end of the elongated shaft. At least a portion of the end effector is configured to contact an inner surface of the cannula during insertion of the surgical instrument into the curved cannula. A threshold galling stress between the portion of the end effector and an inner surface of the curved cannula is at least 10,000 pounds per square inch.

Surgical instruments having improved wear resistance, and methods of making the same

Devices and methods for attaching a belt cartridge to a belt drive platform. A clip attached to the belt is inserted into a slot in the drive spool of the belt drive platform. The cover plate of the belt cartridge fits into a channel beam in the housing of the belt drive platform, thereby securing the cartridge to the housing. Belt guards, for protecting the cartridge, belt drive platform, patient and rescuer, are rotatably attached to the cover plate and are secured around spindles disposed on the sides of the housing.

Methods and devices for attaching a belt cartridge to a chest compression device

Growing community of inventors

San Jose, CA, United States of America

Charles E Swinehart