Intuitive Surgical Operations, Inc.

Intuitive Surgical, Inc.

Han Sen Medical, Inc.

Disney Enterprises, Inc.

Massachusetts Institute of Technology

Auris Health, Inc.

Leland Stanford Junior University

California Institute of Technology

Intuitive Sugrical Operations, Inc.

Gunter D Niemeyer

Frederic H Moll

Robert G Younge

William C Nowlin

Gary S Guthart

J Kenneth Salisbury, Jr

Daniel T Wallace

Kenneth M Martin

David F Moore

Daniel Thomas Adams

David S Mintz

Brandon D Itkowitz

David Joseph Rosa

David Charles Lundmark

Stephen J Blumenkranz

David Q Larkin

Yulun Wang

Giuseppe Maria Prisco

Brian David Hoffman

Darrin R Uecker

Simon Peter DiMaio

James W Wright

Amante A Mangaser

Rajesh Kumar

Lanny Starkes Smoot

Anthony M Accardo

Miquel Angel Farre Guiu

Thomas G Cooper

Nitish Swarup

Simon P Dimaio

Eugene F Duval

Federico Barbagli

Scott Frazier Watson

Michael R Zinn

Gregory J Stahler

Andris D Ramans

Michael J Tierney

Steven J Blumenkranz

Modjtaba Ghodoussi

John D Stern

David S Gere

Ranjan Mauherjee

Akhil Jiten Madhani

Gregory K Toth

David Loyal Christensen

Kenneth D Salter

J Kenneth Salisbury

Jean-Jacques Emile Slotine

Michael Holton

Neal A Tanner

Avner Swerdlow

Ranjan Mukherjee

Mark Sox Setrakian

Vincent H Roberts

Morgan Thomas Pope

Anthony Paul Dohi

Grant Masaru Imahara

Frederick H Moll

Vince Roberts

Aaron D Ames

Matthew Keith Xi-Jie Pan

Vinay Chawda

Matthew K Pan

Meredith Bailey Antonia Scheff-King

Sean Kallas

Kenneth J Salisbury, Jr

Meredith Bailey Antonia Scheff King

Steven Niels Christensen

Techniques for ratcheting an alignment between an input means and an instrument include a teleoperated system comprising a robotic means configured to support an instrument, an input means configured to be manipulated by an operator to command motion of the instrument, and a ratcheting means. The ratcheting means is configured to determine first rotation values describing an orientation of the input means; determine second rotation values describing an orientation of the instrument; determine, based on the first rotation values and the second rotation values, an orientation error between the orientation of the input means and the orientation of the instrument; generate, based on the orientation error, a motion command for the instrument to reduce the orientation error by increasing an alignment between the input means and the instrument; and command the robotic means to move in accordance with the motion command.

Ratcheting for master alignment of a teleoperated minimally invasive surgical instrument

The apparatus of one embodiment of the present invention is comprised of a flexible sheath instrument, a flexible guide instrument, and a tool. The flexible sheath instrument comprises a first instrument base removably coupleable to an instrument driver and defines a sheath instrument working lumen. The flexible guide instrument comprises a second instrument base removably coupleable to the instrument driver and is threaded through the sheath instrument working lumen. The guide instrument also defines a guide instrument working lumen. The tool is threaded through the guide instrument working lumen. For this embodiment of the apparatus, the sheath instrument and guide instrument are independently controllable relative to each other.

Robotic catheter system and methods

A teleoperated system includes a robotic arm configured to support an instrument, a grip configured to be manipulated by an operator to command motion of the instrument, and a control system communicatively coupled to the robotic arm and the grip. To align the grip with the instrument by the grip, the control system is configured to determine grip rotation values describing an orientation of the grip, determine instrument rotation values describing an orientation of the instrument, determine an orientation error between the orientation of the grip and the orientation of the instrument based on the grip rotation values and the instrument rotation values, produce a motion command by selectively imposing, based on the orientation error, an artificial joint limit on a commanded movement of the instrument, and command the robotic arm to move in accordance with the motion command.

A robotic catheter system includes a controller with a master input device. An instrument driver is in communication with the controller and has a guide instrument interface including a plurality of guide instrument drive elements responsive to control signals generated, at least in part, by the master input device. An elongate guide instrument has a base, distal end, and a working lumen, wherein the guide instrument base is operatively coupled to the guide instrument interface. The guide instrument includes a plurality of guide instrument control elements operatively coupled to respective guide drive elements and secured to the distal end of the guide instrument. The guide instrument control elements are axially moveable relative to the guide instrument such that movement of the guide instrument distal end may be controlled by the master input device.

Robotic catheter system

A teleoperated system includes a master grip and a ratcheting system coupled to the master grip. The ratcheting system is configured to align the master grip with a slave instrument commanded by the master grip by determining grip rotation values describing an orientation of the master grip, determining instrument rotation values describing an orientation of the instrument, determining an orientation error between an orientation of the master grip and the orientation of the instrument based on the grip rotation values and the instrument rotation values, and reducing the orientation error by low pass filtering the grip rotation values or the instrument rotation values.

Ratcheting for master alignment of a teleoperated minimally-invasive surgical instrument

Robotic, telerobotic, and/or telesurgical devices, systems, and methods take advantage of robotic structures and data to calculate changes in the focus of an image capture device in response to movement of the image capture device, a robotic end effector, or the like. As the size of an image of an object shown in the display device varies with changes in a separation distance between that object and the image capture device used to capture the image, a scale factor between a movement command input may be changed in response to moving an input device or a corresponding master/slave robotic movement command of the system. This may enhance the perceived correlation between the input commands and the robotic movements as they appear in the image presented to the system operator.

Autofocus and/or autoscaling in telesurgery

A teleoperated system includes a master grip and a ratcheting system coupled to the master grip. The ratcheting system is configured to align the master grip with a slave instrument commanded by the master grip by determining a grip orientation by which the master grip is gripped by an operator, determining a commanded velocity for the slave instrument based on a manipulation of the master grip by the operator, determining an error, and altering the commanded velocity for the slave instrument based on at least the grip orientation and the error. The error includes a parameter selected from a group consisting of a position error between a position of the master grip and a position of the slave instrument and an orientation error between an orientation of the master grip and an orientation of the slave instrument.

A system configured for stabilizing or balancing objects in an upright state. The system includes a motion system with an upper support surface for receiving an object that is positionable in a vertical state. The system includes a sensor assembly with at least one sensor generating sensor data by tracking at least one of three dimensional (3D) position and angular movement for the object. The system includes a controller with a stabilizing module to process the sensor data to determine when the object is tipping from the vertical state, and, in response to the tipping away of the object from the vertical state, the stabilizing module generates control signals to modify operations of the motion system to move at least a portion of the upper support surface in contact with a lower contact surface of the object through stabilizing movements, whereby the object remains balanced in the vertical state.

System for stabilizing an object to control tipping during omnidirectional movement

A teleoperated system includes a master grip and a ratcheting system coupled to the master grip. The ratcheting system is configured to be coupled to a slave instrument. The ratcheting system is further configured to align the master grip with the slave instrument by determining a commanded angular velocity for the slave instrument based on a command from the master grip, determining a current alignment error between an alignment of the master grip and an alignment of the slave instrument, and altering the commanded angular velocity for the slave instrument based on the current alignment error. In some embodiments, the ratcheting system is further configured to introduce a control system error to alter the commanded angular velocity. In some embodiments, the current alignment error is a rotation angle error between the alignment of the master grip and the alignment of the slave instrument.

An embodiment provides a motorized monopole for a camera, including: a hand-held monopole; a first motor positioned at an end of the hand-held monopole; a first connecting element attached to the first motor; a second motor positioned at an end of the first connecting element; a second connecting element attached to the second motor; a third motor positioned at an end of the second connecting element; and a camera mounting plate attached to the second connecting element by the third motor, where components of the multi-axis gimbal are positioned such that a camera viewing axis, a horizontal image axis, and a vertical image axis of a camera mounted on the camera mounting plate need not be aligned with any of a rotational axis of the first motor, a rotational axis of the second motor, or a rotational axis of the third motor. Other aspects are described and claimed.

Motorized monopod jib for cameras

A robot configured to provide accurate control over the rate of spin or rotation of the robot. To control the rate of spin, the robot includes an inertia shifting (or moving) assembly positioned within the robot's body so that the robot can land on a surface with a target orientation and 'stick the landing' of a gymnastic maneuver. The inertia shifting assembly includes sensors that allow the distance from the landing surface (or height) to be determined and that allow other parameters useful in controlling the robot to be calculated such as present orientation. In one embodiment, the sensors include an inertial measurement unit (IMU) and a laser range finder, and a controller processes their outputs to estimate orientation and angular velocity. The controller selects the right point of the flight to operate a drive mechanism in the inertia shifting assembly to achieve a targeted orientation.

Robot with inertia shifting assembly providing spin control during flight

One embodiment provides a monopole for a camera, including: a pole of length sufficient for two handed operation; an offset arrangement attached to an end of the pole, the offset arrangement comprising a first element connected at an angle to the end of the pole and a second element connected to the first element; the first element rotating about a first axis with respect to the end of the pole; the second element rotating about a second axis with respect to the first element; a camera mount attached to the second element, wherein the camera mount rotates about a third axis with respect to the second element; and at least one motor aligned with the first, the second or the third axis and imparting movement to the camera mount with respect to the pole in at least one degree of freedom selected from the group consisting of tilt, pan and roll. Other aspects are described and claimed.

An embodiment provides a monopod jib for cameras, including: a pole; a multi-axis gimbal disposed at one end of the pole; and a user interface comprising: a first user interface element having a first plurality of camera controls; and a second user interface element having a second plurality of camera controls. Other embodiments are shown and described.

User interface aspects for a motorized monopod jib for cameras

Growing community of inventors

Mountain View, CA, United States of America

Gunter D Niemeyer