Cardiac Pacemakers, Inc.

Conmed Corporation

USA As Represented by Secretary of the Navy

Boston Scientific Scimed, Inc.

Other

Surgiquest, Incorporated

Roar Consultants

Cameron Health, Inc.

Michael John Kane

Keith R Maile

Jeffrey E Stahmann

Allan Charles Shuros

Brendan Early Koop

Mikiya Silver

William J Linder

Paul J Huelskamp

Michael J Augelli

Benjamin J Haasl

Pramodsingh Hirasingh Thakur

Brian L Schmidt

Yinghong Yu

Qi An

Lance Eric Juffer

John O'Rourke

Jacob M Ludwig

Bin Mi

Krzysztof Z Siejko

Arthur J Foster

Moira B Sweeney

Gennady I Kleyman

Ron A Balczewski

Yingbo Li

Daniel J Foster

Eric A Mokelke

James Michael English

Howard D Simms, Jr

Craig Matzdorf

Kevin Robert Poppe

Stephen J Burke

Peter James Keogh

James Fouhy

John D Hatlestad

Jeffrey Allen Von Arx

Viktoria A Averina

Donald Lee Hopper

James Gregory Bentsen

Bradley S Swehla

Greg Paul Carpenter

Christopher Jay Scheff

James L Green, Iii

Craig A Matzdorf

James L Green

Dominick L Mastri

Joseph T Delaney, Jr

John M Edgell

Jihong Qu

Kevin G Wika

Bryan J Swackhamer

Daniel Joseph Landherr

John Reardon

Michael Keane

Mary Rose Cureton

Laura Kathryn Irvine

David J Ternes

Yi Zhang

Rodney W Salo

Ralph A Stearns

Ramesh Wariar

Dan Li

Brian D Soltis

David R Wulfman

Jonathan T Kwok

Jean M Bobgan

Arjun D Sharma

Haresh G Sachanandani

James E Blood

Danielle Frankson

Sarah Melissa Gruba

Kasyap Venkata Seethamraju

Robert Pedros

Michael Funk

Douglas J Gifford

Matthew P Jones

Daragh Nolan

Jack Gordon

Jennifer Lynn Pavlovic

Mahesh Krishnamoorthy

George R Trutza

Eoin P Enright

Joseph Allen

Sverre Gropen

James Green

Joseph Thomas Delanely, Jr

Amy Christine Kubas

Keith P Maile

Michael J Johnson

Gennady Kleyman

Jr Joseph T Delaney

Eoin Enright

Yinbo Li

Laura Cunningham

Kasyap Seethamraju

Embodiments herein relate to medical devices including electric field shaping leads and methods for using the same to treat cancerous tumors within a bodily tissue. In an embodiment, an implantable lead for a cancer treatment system is disclosed. The lead can include a lead body having a proximal end and a distal end, where the lead body can define a lumen. The lead can also include a paddle disposed at the distal end of the lead body, the paddle having a width that is greater than a width of the lead body. The paddle can include one or more electrodes disposed on the paddle and one or more electrical conductors disposed within the lumen of the lead body to provide electrical communication between the one or more electrodes and the proximal end of the lead body. Other embodiments are also included herein.

Electric field shaping leads for treatment of cancer

A filter cartridge for a surgical gas delivery system is disclosed which includes a housing having a front end and a rear end and defining a first interior flow path extending downstream from a first inlet at the rear end of the housing to a first outlet at the front end of the housing, and a second interior flow path extending upstream from a second inlet at the front end the housing to a second outlet at the rear end of the housing, a first pleated filter element operatively associated with the first interior flow path, a second pleated filter element operatively associated with the second interior flow path, and a carbon filter disc operatively associated with the second interior flow path and positioned adjacent a downstream side of the second pleated filter element.

Filter cartridge assemblies

Catheter and implantable leadless pacing devices, systems, and methods utilizing catheters and implantable leadless pacing devices are disclosed. An example catheter system may include a holding structure extending distally from a tubular member. An implantable device, such a leadless pacing device, may be located within a cavity of the holding structure and an electrical barrier may be located within the holding structure at a location between a proximal electrode and a distal electrode of the implantable device. The electrical barrier may inhibit electrical signals of the implantable device from traveling within the holding structure between the proximal electrode and the distal electrode of the implantable device. The holding structure may include one or more electrical ports adjacent the proximal end of the holding structure and adjacent or proximal of the proximal electrode of the implantable device.

Catheter and leadless cardiac devices including electrical pathway barrier

A system for performing an endoscopic surgical procedure in a surgical cavity of a patient that includes a multi-lumen tube set including a dual lumen portion having a pressurized gas line and a return gas line for facilitating gas recirculation relative to the surgical cavity of the patient, and a single lumen portion having a gas supply and sensing line for delivering insufflation gas to the surgical cavity of the patient and for periodically sensing pressure within the surgical cavity of the patient, a first gas sealed single lumen access port communicating with the dual lumen portion of the tube set and a second valve sealed single lumen access port communicating with the single lumen portion of the tube set.

Separable two-part single lumen gas sealed access port for use during endoscopic surgical procedures

An implantable medical device (IMD) is configured with a pressure sensor. The IMD includes a housing and a diaphragm that is exposed to the environment outside of the housing. The diaphragm is configured to transmit a pressure from the environment outside of the housing to a piezoelectric membrane. In response, the piezoelectric membrane generates a voltage and/or a current, which is representative of a pressure change applied to the housing diaphragm. In some cases, only changes in pressure over time are used, not absolute or gauge pressures.

Implantable medical device with pressure sensor

A system for performing an endoscopic surgical procedure in a surgical cavity of a patient that includes a gas delivery device configured to deliver a flow of pressurized gas to a gas delivery lumen extending therefrom, a gaseous sealing module communicating with a distal end of the gas delivery lumen and configured to generate a gaseous seal within a gas sealed lumen extending therefrom, and an access port communicating with a distal end of the gas sealed lumen so as to provide sealed instrument access to the surgical cavity and maintain a stable pressure within the surgical cavity.

Surgical gas delivery system with remote gaseous sealing module for maintaining stable pressure in a surgical cavity

Systems and methods for implantable medical devices and headers are described. In an example, an implantable medical device includes a device container including an electronic module within the device container. A modular header core includes a first core module including a first bore hole portion of a first bore hole, the first bore hole portion configured to couple a first electrical component with the electronic module. A second core module includes a second bore hole portion of a second bore hole different than the first bore hole, the second bore hole portion configured to couple a second electrical component with the electronic module. The first core module is detachably engaged with the second core module. A header shell is disposed around the modular header core and attached to the device container.

Implantable device header and method

A system for performing an endoscopic surgical procedure in a surgical cavity is disclosed which includes a primary gas circulation device housing a central processor and a primary pump, the primary pump controlled by the central processor and configured to deliver a flow of pressurized gas to a primary gas delivery lumen and to receive gas from a primary gas return lumen, and a plurality of subordinate gas circulation devices each housing a respective subordinate pump configured to deliver a flow of pressurized gas to a respective subordinate gas delivery lumen and to receive gas from a respective subordinate gas return lumen, wherein the subordinate pump in each subordinate gas circulation device is in networked communication with and controlled by the central processor of the primary gas circulation device.

Multi-modal surgical gas circulation system for controlling a network of gas sealed access devices

This document discusses, among other things, systems and methods to determine an indication of contractility of a heart of a patient using received physiologic information, and to determine blood pressure information of the patient using the heart sound information and the determined indication of contractility of the heart. The system can include an assessment circuit configured to determine an indication of contractility of a heart of the patient using first heart sound (S) information of the patient, and to determine blood pressure information of the patient using second heart sound (S) information of the patient and the determined indication of contractility of the heart.

Chronic monitoring of blood pressure using heart sounds

A system is disclosed for performing an endoscopic surgical procedure in a surgical cavity, which includes a multi-modal gas delivery device including a primary gas circulation pump, a secondary gas circulation pump and an insufflation subunit, and an interface plate adapted and configured to engage with the multi-modal gas delivery device and including a connector and a filter seat corresponding to five different lumens, each of which provides a different functionality.

Multi-modal five lumen gas circulation system for use in endoscopic surgical procedures

Systems and methods for monitoring patients with respiratory diseases are described. A system may include a sensor circuit configured to sense one or more physiological signals indicative of respiratory sounds, and a spectral analyzer to generate first and second spectral contents at respective first and second frequency bands. The system may produce a respiratory anomaly indicator using the first and second spectral contents, or additionally with other physiological parameters. The system may detect an onset or progression of a target respiratory condition such as asthma or chronic obstructive pulmonary disease using the respiratory anomaly indicator, or to trigger or adjust a therapy.

Systems and methods to detect respiratory diseases using respiratory sounds

A ventricularly implantable medical device that includes a sensing module that is configured to detect an atrial fiducial and identify an atrial contraction based at least on part on the detected atrial fiducial. Control circuitry in the implantable medical device is configured to deliver a ventricular pacing therapy to a patient's heart based at least in part on the identified atrial contraction, and can automatically switch or revert the ventricular pacing therapies on the fly.

Leadless cardiac pacemaker with reversionary behavior

A system for delivering an implantable medical device includes a handle housing. An outer sheath is coupler secured to a proximal end of an outer sheath that is configured to cover at least a portion of the implantable medical device. An outer sheath drive assembly is operably coupled to the outer sheath coupler and is configured to translate the outer sheath relative to the handle housing. An actuation shaft coupler is secured to a proximal end of an activation shaft. An actuation shaft drive assembly is operably coupled to the actuation shaft coupler and is configured to cause the actuation shaft to translate relative to the handle housing and shift the implantable medical device from a first position and a second position in which the implantable medical device is radially expanded relative to the first position.

Motorized telescoping medical device delivery system

Growing community of inventors

Roseville, MN, United States of America

Michael John Kane