Ablative Solutions, Inc.

Sequent Medical, Inc.

Topera, Inc.

The Johns Hopkins University

Advanced Cardiovascular Systems, Inc.

Abbott Cardiovascular Systems, Inc.

Microvention, Inc.

The General Hospital Corporation

Nocira, LLC

Kalera Medical, Inc.

Arya Medical, Inc.

Darrin James Kent

Eric Thomas Johnson

Robert Ryan Ragland

Andy Edward Denison

Jeff Alan Burke

David R Fischell

Tim A Fischell

Christopher Scott Hayden

John Nolting

Hung P Tran

James M Thompson

Tan Q Dinh

Robert E Fischell

Philippe Marchand

Brian J Cox

Robert Rosenbluth

Ruchir Sehra

Stephen D Pacetti

Daniel L Cox

David K Wrolstad

Diem Uyen Ta

Anthony Nicolas Kalloo

John Patrick Claude

Matthew Thomas Yurek

David James Prince

Peter J D'Aquanni

Sean A McNiven

Bruce M Wilson

Kenneth L Wantink

Christopher C Andrews

David Mager George

Boyd V Knott

Jessie Delgado

James A Milburn

Thomas F Kordis

Kevin Martin Magrini

Phillip Charles Burke

Leonard Darius Barbod

Kenneth Kay Armstrong

Mouen A Khashab

Jeremy Stigall

Thomas Ray Hatten

Philip C Burke

Caroline Wu

Brenna K Hearn

Nicole Haratani

Felix Vega

Daniel G Brown

Plaridel Kimpo Villareal

Kevin E Willey

Brian H Eisner

Shahin Sarkissian

John P Fezza

Kyle Marie Krueger

Steve Thompson

James A Millburn

Brett Hampton

Robert Rayan Ragland

Stephen Dirk Pacetti

Jeremy L Stigall

Methods of braiding using a braiding mechanism are described. The braiding mechanism includes a disc defining a plane and a circumferential edge, a mandrel extending from a center of the disc that is adapted to hold a plurality of filaments extending radially from the mandrel toward the circumferential edge of the disc, a plurality of catch mechanisms positioned circumferentially around the edge of the disc, a plurality of actuators adapted to move the plurality of catch mechanisms in a substantially radial direction relative to the circumferential edge of the disc, and a plurality of filaments extending radially from the mandrel towards circumferential edge of the disc. A middle portion of each filament of the plurality of filaments contacts an end of the mandrel.

Braiding mechanism and methods of use

A system for sensing multiple local electric voltages from endocardial surface of a heart, includes: an elongate tubular member having a lumen, a proximal end and a distal end; a plurality of flexible splines; an anchor for securably affixing the proximal portions of the splines, where the anchor is securably affixed within the lumen of the elongate tubular member at the distal end of the elongate tubular member; and a metallic tip for securably affixing the distal portions of the splines.

Basket style cardiac mapping catheter having a flexible electrode assembly for detection of cardiac rhythm disorders

A device for performing injections in a patient includes a syringe holder with a needle guard, a cannula extending from the syringe holder, a needle slidably disposed over the cannula, and a slider on the syringe holder. The cannula has a blunt tip and a cannula length, and the needle has a sharp tip and a needle length that is shorter than the cannula length. The slider is coupled with the needle and is configured to slide the needle along the cannula from an extended position, in which the sharp tip of the needle is located at or immediately adjacent the blunt tip of the cannula, to a retracted position, in which the sharp tip is housed within the needle guard of the syringe holder.

Combined needle and cannula

An intravascular catheter for peri-vascular or peri-urethral tissue ablation includes multiple needles advanced through supported guide tubes which expand around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, or nerve fibers in the outer layer or deep to the outer layer of the vessel, or in prostatic tissue. A method can involve injection/infusion of the ablative fluid over an extended time period of at least 10 seconds or with two injections at two different penetration depths to reduce or eliminate patient pain during ablation.

Method for painless renal denervation using a peri-vascular tissue ablation catheter with support structures

Caloric stimulation and pressure stimulation can be applied to the ear for treatment of neurological disorders, such as migraine, pain, and headache. Heat can be applied first to increase the sensitivity of the mechanoreceptors in the ear. The pressure can be applied after heating to produce a stronger neurological response than would occur without the heating. In some cases, cooling can be used. Valves can be used to direct fluid flow to a right ear, a left ear, or both. Valves can be used to transition the system between an irrigation or caloric mode and a pressure mode. Green eyewear can be used for therapeutic relief.

Systems and methods for treating neurological disorders

An intravascular catheter for peri-vascular and/or peri-urethral tissue ablation includes multiple needles advanced through supported guide tubes which expand around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, and/or nerve fibers in the outer layer or deep to the outer layer of the vessel, or in prostatic tissue. The system may also include a means to limit and/or adjust the depth of penetration of the ablative fluid into and beyond the tissue of the vessel wall. The catheter may also include structures which provide radial and/or lateral support to the guide tubes so that the guide tubes expand uniformly and maintain their position against the interior surface of the vessel wall as the sharpened injection needles are advanced to penetrate into the vessel wall.

Peri-vascular tissue ablation catheter with support structures

An intravascular catheter for peri-vascular and/or peri-urethral tissue ablation includes multiple penetrators advanced through supported guide tubes which expand around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, nerve sensing, nerve stimulation, or ablation by application of energy. The catheter can include a proximal handle for the advancement of guide tubes and penetrators.

Peri-vascular tissue access catheter with locking handle

An intravascular catheter for peri-vascular and/or peri-urethral tissue ablation includes multiple needles advanced through supported guide tubes which expand around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, and/or nerve fibers in the outer layer or deep to the outer layer of the vessel, or in prostatic tissue. The system may also include a means to limit and/or adjust the depth of penetration of the ablative fluid into and beyond the tissue of the vessel wall. The catheter may also include structures which provide radial and/or lateral support to the guide tubes so that the guide tubes expand uniformly and maintain their position against the interior surface of the vessel wall as the sharpened injection needles are advanced to penetrate into the vessel wall. A method can involve injection/infusion of the ablative fluid over an extended time period of at least 10 seconds or with two injections at two different penetration depths to reduce or eliminate patient pain during ablation.

Peri-vascular tissue ablation catheters

An intravascular catheter for peri-vascular and/or peri-urethral tissue ablation includes multiple needles advanced through supported guide tubes which expand with open ends around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, and/or nerve fibers in the outer layer or deep to the outer layer of the vessel, or in prostatic tissue. The system also includes means to limit and/or adjust the depth of penetration of the ablative fluid into and beyond the tissue of the vessel wall. The preferred embodiment of the catheter includes structures which provide radial and lateral support to the guide tubes so that the guide tubes open uniformly and maintain their position against the interior surface of the vessel wall as the sharpened injection needles are advanced to penetrate into the vessel wall.

Transvascular methods of treating extravascular tissue

Methods of braiding using a braiding mechanism are described. The braiding mechanism includes an array of filament engagement elements, a mandrel extending from the center of the circular array, a plurality of actuators disposed operably about the array, and a rotating mechanism adapted to rotate one or more filaments. The plurality of filaments are loaded onto the mandrel by looping a middle portion of each filament of the plurality of filaments over an end of the mandrel and extend radially toward and contact the circumferential edge of the circular array of filament engagement elements. The plurality of actuators are operated to engage a first subset of the plurality of filaments and move the engaged filaments in a generally radial direction to a position beyond the circumferential edge of the array. The rotating mechanism is operated to move the engaged filaments about the mandrel axis.

The present disclosure provides a device and methods for acquiring tissue within a lumen or for closure of bodily openings.

Method and device for tissue acquisition or closure

An intravascular catheter for peri-vascular and/or peri-urethral tissue ablation includes multiple needles advanced through supported guide tubes which expand around a central axis to engage the interior surface of the wall of the renal artery or other vessel of a human body allowing the injection an ablative fluid for ablating tissue, and/or nerve fibers in the outer layer or deep to the outer layer of the vessel, or in prostatic tissue. The catheter may also include structures which provide radial and/or lateral support to the guide tubes so that the guide tubes expand uniformly and maintain their position against the interior surface of the vessel wall as the sharpened injection needles are advanced to penetrate into the vessel wall.

Growing community of inventors

Murrieta, CA, United States of America

Darrin James Kent