Cilag International Gmbh

Ethicon, Gmbh

Senco Products, Inc.

Senco Brands, Inc.

Ethicon Endo-surgery, Inc.

Cllag Gmbh International

Devicor Medical Products, Inc.

Shane R Adams

Frederick E Shelton, IV

Jason L Harris

Richard L Leimbach

Mark D Overmyer

Nicholas J Ross

Kevin Michael Fiebig

Brett E Swensgard

Taylor W Aronhalt

Kevin L Houser

David C Yates

Thomas W Lytle, Iv

Cory G Kimball

John V Hunt

Morgan Robert Hunter

Mark S Zeiner

Chester O Baxter, Iii

Charles J Scheib

Austin E Wise

Thomas E Adams

Gregory J Bakos

Michael J Vendely

Adam David Hensel

Kevin D Sackett

Sudhir B Patel

Jeffrey David Messerly

Michael J Stokes

John A Hibner

Andrew T Beckman

Sean P Conlon

Daniel J Mumaw

Bret William Smith

Geoffrey C Hueil

Brian D Schings

Sarah Alexandra Worthington

John E Brady

Bernhard A Fuerst

Douglas B Hoffman

Gregory G Scott

David Keith Norvell

Zhifan F Huang

Chad E Eckert

Michael D Auld

Matthew S Corbin

Nicholas Fanelli

Joshua P Morgan

Brendan J Oberkircher

Christopher J Schall

Jason M Rector

Thomas A McCardle

Matthew D Cowperthwait

Raymond E Parfett

Patrick L Creamer

Douglas E Withers

Tony C Siebel

Monica L Z Rivard

Conrad A Garvis

Leonardo N Rossoni

Risto Kojcev

Felix J Bork

Curtis A Maples

Joseph D Paulowski

Michael V Petrocelli

Jacqueline C Aronhalt

Thomas W Clark

John Scott Kimsey

Jordan B Wong

Teresa A Petrocelli, Legal Representative

Christopher A Denzinger

John T Burke

Sol A Posada

William R Stager

Timothy E Goode

Ismail Akram

Christopher Q Seow

Scott A Jenkins

Ellen E Burkart

Bradley A Arnold

Tyler N Brehm

Gary S Jaworek

David M Brooks

Pierre R Mesnil

Ryan J Reese

Ryan P Posey

Darwin L Schultz

Mark E Tebbe

Monica L Rivard

Robert L Lance, Jr

Joseph R Knueven

Danny L Bolender

Steve Dickinson

Louis P Mingione

Bingshi Wang

Patrick M Schleitweiler

Madison K Vanosdoll

Julie A Horning

Logan R Rose

Kharyl Evenson George Stephens

Bryce Hansen

Grace E Brooks

A method of assessing inter-device communication pairing in a surgical setting, may include transmitting, by a first intelligent medical device, wireless communication data within the surgical setting, receiving, by a second intelligent medical device, the wireless communication data from the first intelligent medical device, determining, by the second intelligent medical device, communication pairing data indicative of an inter-device communication pairing of the second intelligent medical device with the first intelligent medical device, transmitting, by the second intelligent medical device, the communication pairing data to a modular control tower, and displaying, by the modular control tower on a display device, an augmented reality display comprising one or more virtual objects indicative of the inter-device communication pairing. An interactive surgical system may include multiple intelligent medical devices and displays which can form communication pairs in this manner.

Indication of the couple pair of remote controls with remote devices functions

A surgical kit and related methods of assembly and disassembly include a surgical instrument having an end effector, a shaft assembly, and a body assembly. The surgical instrument includes a predetermined access portion configured to be at least partially removed for accessing an interior therein. The surgical kit also includes an instrument tool assembly with a tool body, a torque wrench connected to the tool body, and a removal portion for gaining access to the interior of the surgical instrument.

Surgical system and methods of assembly and disassembly of surgical instrument

A device may classify data associated with a surgical event of a surgery. The device may generate a third surgical data stream based on a mode of interaction between a first surgical data stream and a second surgical data stream. The device may determine a third classification parameter for the third surgical data stream based on a first classification parameter associated with the first surgical data stream, a second classification parameter associated with the second surgical data stream, and the mode of interaction between the first surgical data stream and the second surgical data stream. The device may determine a data handling scheme for the third surgical data stream based on the third classification parameter in consistency with a healthcare data policy. The device may handle the third surgical data stream according to the data handling scheme.

Surgical data system and classification

A device, such as a computing device or a surgical device, may receive surgical operation data associated with a surgical operation. Based on the surgical operation data, a device may identify a surgical device to be used for a surgical operation and/or one or more surgical steps associated with a surgical operation. Based on the identified surgical device, the one or more surgical steps, and/or the surgical operation data, a device may determine an allowable operation range controlling a surgical device for a surgical procedure. A device may receive an adjustment input configuration to control a surgical device for a surgical step. A device may determine whether the adjustment input configuration is outside of the determined allowable operation range. Based on a determination that the adjustment input configuration is outside of the determined allowable operation range, a device may block the adjustment input configuration to control a surgical device.

Adaptable operation range for a surgical device

A surgical system is configured to deploy staples from a staple cartridge reload into tissue. The surgical system includes a first sensor configured to measure a first parameter indicative of a force to form the staples, and a second sensor configured to measure a second parameter indicative of a position of a sled along a staple-forming distance. The system further includes a control circuit communicatively connected to a motor, the first sensor, and the second sensor, wherein the control circuit is configured to: receive a first signal from the first sensor indicative of the first parameter; receive a second signal from the second sensor indicative of the second parameter; and detect staple malformation of the staples based on the first signal and the second signals.

Surgical stapling systems with adaptive staple firing algorithms

A surgical system is for use in a surgical procedure. The surgical system includes a surgical instrument configured to treat tissue in the surgical procedure; an imaging device; a display configured to show a livestream of a surgical field of the surgical procedure, wherein the livestream is captured by the imaging device; and a control module. The control module is configured to detect a surgical risk; assign a display priority to the surgical risk; and determine a display arrangement of the surgical risk based on the display priority, wherein the display arrangement comprises overlaying an alert feature on the livestream.

Risk based prioritization of display aspects in surgical field view

Disclosed is a surgical system, comprising an end effector configured to grasp tissue and provide therapeutic treatment to tissue. The surgical system further comprises a motor, a motor drive circuit, and a motor control circuit. The motor control circuit is configured to provide a motor drive signal to the motor drive circuit and adaptively control elements of the motor drive circuit to control deceleration of the motor in the absence of the motor drive signal. When the motor drive signal is present, the motor drive circuit can be configured to pass the motor drive signal through to the motor.

Motor adjustments in absence of motor drive signal

A surgical instrument is disclosed including an end effector, a firing member movable from an unfired position toward a fired position during a firing stroke, a firing system comprising a motor, and a control system. The end effector comprises a first jaw, a second jaw moveable relative to the first jaw, and a staple cartridge. The firing system is configured to drive the firing member through the firing stroke. The control system is configured to drive the firing member from the unfired position toward the fired position with the firing system, detect a force to fire the firing member toward the fired position, predict a future force to fire the firing member, based on the detected force to fire, and dynamically adjust a firing algorithm of the firing system, based on the prediction.

Utilizing local firing parameters to initiate motor control adjustments in surgical systems

A surgical system is disclosed including an imaging device, a display, and a control system operably coupled to the imaging device and the display. The display is configured to show a livestream of a surgical field of a surgical procedure. The livestream is captured by the imaging device. The control system is configured to overlay, on the livestream, a first amount of information associated with the surgical procedure, detect an event configured to cause the first amount of information being overlaid to increase to a second amount of information being overlaid, compare the second amount of information to a distraction threshold, adjust the second amount of information to a third amount of information based on the comparison, and overlay, on the livestream, the third amount of information based on the second amount of information being adjusted. The third amount of information is less than the distraction threshold.

Systems and methods for controlling surgical data overlay

A surgical system for use in a surgical procedure to perform sequential firings of staple cartridges is disclosed. A control circuit is to monitor a parameter indicative of a tissue response associated with a first firing, assess the tissue response based on the parameter, and adjust an operational parameter associated with a second firing based on the tissue response during the first firing.

Learned triggers for adaptive control of surgical stapling systems

A surgical stapling instrument includes an anvil defining a plurality of staple forming pockets and a stapling head assembly. The stapling head assembly includes a body, a coupling member capable of actuating the anvil relative to the body, a staple deck defining a plurality of staple openings, and a firing assembly capable of driving a plurality of staples against the staple forming pockets of the anvil. The firing assembly includes a proximal driving body and an array of discrete staple driving segments positioned distal to the proximal driving body. The proximal driving body is slidably housed within the body. The staple driving segments each have a free proximal end. The proximal driving body is capable of simultaneously actuating the array of staple driving segments to drive the plurality of staples against the staple forming pockets of the anvil.

Staple driver and guide assembly for circular surgical stapler

A surgical instrument system comprising a drive train and a control circuit is disclosed. The drive train comprises a motor and a shaft actuatable by the motor to actuate a function of an end effector. The control circuit is coupled to the motor, wherein the control circuit is configured to determine a relative excess capacity of the drive train, compare the relative excess capacity to a predetermined shifting threshold, and increase the speed of the motor based on the relative excess capacity exceeding the predetermined shifting threshold.

Surgical system with motor relative capacity interrogations

An end effector of a surgical instrument may be equipped with a staple cartridge selection system, including a load sensing cartridge insertable into a channel of a cartridge jaw of an end effector for assembly therewith, the load sensing cartridge including: a body having a proximal end portion and a distal end portion; an elongated channel within the body between the proximal end portion and the distal end portion; a load sensor disposed within the elongated channel of the load sensing cartridge, the load sensor configured to sense a parameter indicative of a tissue thickness when tissue is clamped between an anvil jaw and the cartridge jaw in the clamped configuration; and a visual indicator configured to display a visual indication based on the parameter sensed by the load sensor.

Dummy cartridge with load cells for measuring tissue thickness and indicating cartridge selection

A surgical instrument is disclosed including a motor-powered firing system comprising a firing motor, a motor-powered closure system comprising a closure motor, and a control system. The firing motor is configured to drive a firing member between an unfired position and a fired position. The closure motor is configured to transition an end effector between an open state and a clamped state. The control system is configured to set a first parameter of the motor-powered closure system, based on a received first input, drive the end effector toward the clamped state with the motor-powered closure system using the first parameter, monitor a second parameter associated with the end effector transitioning toward the clamped state, set a third parameter of the motor-powered firing system, based on a received second input and the monitored second parameter, and drive the firing member toward the fired position using the third parameter.

Adaptation of independent firing and closure powered stapling systems

Disclosed is a method of adapting energy modality due to a short circuit or tissue type grasped in the jaws of an end effector of a surgical instrument and a system with a control circuit configured to execute the method. The method includes determining a first and second electrode of an array of segmented electrodes are shorted to each other, blending monopolar and bipolar RF energy to the array of segmented electrodes, and determining that the first and second electrodes remain shorted after the blending step. Additionally, or alternatively, the method may include determining that the first and second electrodes are no longer shorted after the blending step, sensing an electrical parameter of tissue grasped within jaws of the end effector, and determining an energy sealing and cutting procedure based on the sensed electrical parameter of the tissue.

Electrosurgical adaptation techniques of energy modality for combination electrosurgical instruments based on shorting or tissue impedance irregularity

Growing community of inventors

Lebanon, OH, United States of America

Shane R Adams