Covidien LP

Medtronic Advanced Energy LLC

Prakash Manley

Keir Hart

Arlen James Reschke

Weng-Kai K Lee

Geneva Ladtkow

Kelley D Goodman

Jeffrey R Townsend

Kenneth E Netzel

Joseph D Brannan

James D Allen, Iv

Gary M Couture

Scott N Lacosta

Robert H Wham

Dylan R Kingsley

Craig V Krastins

Susan Hiebert

Rebecca J Coulson

Diana Gunnarson

Tony Moua

Roger D Greeley

Thomas E Drochner

William E Robinson

Daniel W Mercier

Amanda K White

Jason T Sanders

Tyler J Bagrosky

Anthony D Ricke

Sara E Anderson

Martin Masson

Katherine M Puckett

Bradley W Jacobsen

Xiaoming Cheng

Anjali Dhiman

Yahia Laouar

Amy Bradley

Chelsea E Walbridge

Wade Schutte

Molly Ann Megna

Yeung Chow

Chandler E Lacy

Conor N Byrne

James D Allen

Tyler J Bragosky

Todd W Boucher

Weng-Kai Lee K

Sean W Miller

An electrosurgical device including an elongated body extending from a proximal portion to a distal portion and defining an internal passageway configured to convey tissue from the distal portion to the proximal portion, and a coring electrode positioned at the distal portion of the elongated body, where the coring electrode is at an opening to the internal passageway, and where the coring electrode is configured to deliver electromagnetic energy to adjacent tissue to cut a volume of the tissue as the tissue is conveyed into the internal passageway.

Energized corers with energized internals

A tissue removal system includes an electrosurgical generator including an active electrode port and a return electrode port, an active electrode device configured to connect to the active electrode port, and a return tissue guard configured to connect to the return electrode port. Another tissue removal system includes an electrosurgical generator including an active electrode port and a return electrode port, an active electrode device configured to connect to the active electrode port, and a return specimen bag configured to connect to the return electrode port.

Energy-based tissue specimen removal

An electrosurgical smoke evacuation pencil includes a handle housing having a proximal end portion and a distal end portion, the handle housing defining a first lumen therethrough. The electrosurgical pencil also includes a nozzle disposed within the first lumen and defining a second lumen, the nozzle being movable relative to and within the handle housing and extending proximally past the proximal end portion of the handle housing. The electrosurgical pencil may further include a swivel connector coupled to the distal end portion of the handle housing, the swivel connector configured to couple to a suction source. The electrosurgical pencil includes a hub assembly securedly disposed within the second lumen, the hub assembly including a conductive tube configured to couple to a source of electrosurgical energy, and an electrode slidably disposed within the conductive tube, the electrode being movable relative to and within the conductive tube.

Smoke evacuation electrosurgical pencil with adjustable electrode and vent tube

A bipolar forceps includes a mechanical forceps including first and second shafts each having a jaw member extending from a distal end thereof and a handle disposed at a proximal end thereof for effecting movement of the jaw members relative to one another about a pivot. A disposable housing is configured to releasably couple to at least one of the shafts and an electrode assembly has electrodes releasably coupleable to the jaw members and adapted to connect to a source of electrosurgical energy to allow selective conduction of electrosurgical energy through tissue held therebetween to effect a tissue seal. An electrically conductive cutting element is disposed on at least one of the electrodes and is adapted to connect to the source of electrosurgical energy to allow selective conduction of electrosurgical energy through tissue held between the electrodes to effect a tissue cut.

Bipolar surgical instrument

A system includes an energy source and a surgical device. The energy source has a receptacle configured to delivery energy to the surgical device through a receptacle. The surgical device is configured to deliver the energy to tissue. The surgical device includes a plug selectively engagable to the receptacle to couple the surgical device to the energy source. The plug includes a prong configured to mechanically transition from a condition permitting engagement of the plug and the receptacle to another condition inhibiting engagement of the plug with the receptacle upon reaching a predetermined usage threshold.

Limited-use surgical devices

The systems and methods according to embodiments of the present disclosure provide optimal tissue effect during an electrosurgical procedure. A system and method for controlling an electrosurgical generator is provided including sensing an impedance of target tissue; generating electrosurgical energy in a first phase at a first power level until the sensed impedance of the target tissue is greater than a first threshold impedance; generating a plurality of pulses of electrosurgical energy in a second phase at a second power level, each pulse being generated until the sensed impedance of the target tissue is greater than a second threshold impedance set for that pulse; and generating at least one high-voltage pulse in a third phase at a third power level for a predetermined duration to divide the target tissue.

Systems and methods for operating an electrosurgical generator

A jaw member includes an insulative member and a substrate. The substrate is formed as a single, integral component that has first and second side portions interconnected by a connector portion. The connector portion has first and second side portions that are interconnected by an arc-shaped portion. The connector portion is configured to be removed before use of the jaw member such that the first and second portions are electrically insulated from one another.

End effector assemblies and methods of manufacturing end effector assemblies for treating and/or cutting tissue

An electromagnetic surgical ablation system having a generator adapted to selectively provide surgical ablation energy to an ablation probe, and methods of operating same, are disclosed. The system includes a controller operatively coupled to the generator, and a tissue sensor probe operatively coupled to the controller. The tissue sensor provides a tissue temperature and at least one tissue dielectric property to the controller. During an electromagnetic tissue ablation procedure, the controller monitors tissue temperature and the at least one tissue dielectric property to determine tissue status, and to activate and deactivate the generator in accordance therewith.

Microwave ablation system with dielectric temperature probe

A method of manufacturing an end effector assembly including first and second energizable portions configured to supply energy to tissue is provided. The method includes forming a substrate including first and second portions interconnected by a connector portion. The substrate is formed as a single integrated component. The method further includes engaging the substrate with an insulative member, and removing the connector portion of the substrate to electrically insulate the first and second portions from one another.

A method for determining a volume of ablated tissue is provided. The method includes the steps of: supplying energy to tissue to create an ablation volume therein; excising one or more slices of the tissue having a portion of the ablation volume therein; and subjecting at least a portion of the slice to a first contrast agent for a predetermined period of time, wherein the contrast agent is configured to color dead cells within the ablation volume.

Method for ablation volume determination and geometric reconstruction

Growing community of inventors

Lafayette, CO, United States of America

Prakash Manley