Opielab, Inc.

Boston Scientific Scimed, Inc.

Other

University of Washington

Barosense, Inc.

Washington Research Foundation

Synecor LLC

C. R. Bard, Inc.

Lucent Medical Systems, Inc.

Bard Access Systems, Inc.

Varian Medical Systems, Inc.

Aradigm Corporation

Advanced Technology Laboratories, Inc.

Vision Sciences, Inc.

Silversquare

Fred E Silverstein

Richard S Stack

Richard Glenn

Nathan Every

Trevor Moody

Robert N Golden

William S Eubanks

William L Athas

Eric A Opie

Michael Scott Williams

Roy W Martin

John P Lunsford

Dan Balbierz

Andrew Hollis Proctor

Eric A Opie, Deceased

Christopher P Somogyi

Michael S William

David R Kreft

David A Gilbert

William Eubanks, Jr

Reid M Rubsamen

Stephen J Farr

Bandula Wijay

Curtis S King

David Giuliani

Eric Meier

Duane Durbin

Steve Vincent

Michael B Kimmey

Amy Kinsella

John A Myers

Darik Taniguchi

David Krag

Elizabeth J Terry

Steve Dimmer

Michael D Schuffler

Geoffrey C Jiranek

Rosemary Harry

Richard Frecksa

Jon Gilbert

Andrei J Gonzales

Mika N Sinanan

Richard A Glenn

Trevor J Moody

Michael S Williams

A method of training includes providing a medical device having a tangible proximal portion including a magnetic element, and using a virtual tracking system to simulate a distal portion of the medical device. The virtual tracking system can include a tracking component and a display. The tracking component can be configured to detect a magnetic field of the magnetic element and to generate magnetic field strength data. The tracking component can include a processor that iteratively computes position data of the distal portion of the medical device according to the magnetic field strength data to simulate insertion of the distal portion of the medical device into a body of a patient. The display can be configured to depict an image of the position data of the distal portion of the medical device.

System and methods for guiding a medical instrument

A virtual tracking system for a virtual medical device. The virtual medical device may include a tangible proximal portion that at least temporarily has a magnetic element attached thereto. The system includes a tracking circuit configured to track movement of the virtual medical device and a display. The tracking circuit may include at least one reception component configured to detect a magnetic field of the magnetic element and to generate magnetic field strength data. The tracking circuit may also include a processor that iteratively computes position data of a virtual distal portion of the virtual medical device according to the magnetic field strength data so as to simulate insertion of the virtual distal portion of the virtual medical device into a body of a patient. The display may be configured to depict an image of the computed position data of the virtual distal portion of the virtual medical device.

Systems and methods for guiding a medical instrument

A support structure device is configured to assist a human patient to rise. The support structure includes a tube bent into a shape described by way of a reference frustum such as a four-sided truncated pyramid. Each side of a top rectangular perimeter of the frustum is shorter than a corresponding side of the bottom rectangular perimeter, and each parallel side of a first trapezoidal perimeter of the frustum is shorter than a corresponding parallel side of a second trapezoidal perimeter. The reference frustum has a height between 10 and 18 inches, the top rectangular perimeter has a length between 10 and 16 inches and a width between 6 and 14 inches, and the bottom rectangular perimeter has a length between 12 and 18 inches and a width between 8 and 16 inches.

Support frame

A device for inducing weight loss in a patient includes a tubular prosthesis self-expandable from a collapsed position in which the prosthesis has a first diameter to an expanded position in which the prosthesis has a second, larger, diameter. In a method for inducing weight loss, the prosthesis is placed in the collapsed position and inserted into a stomach of a patient. The prosthesis is allowed to self-expand from the collapsed position to the expanded position and into contact with the walls of the stomach, where it induces feelings of satiety and/or inhibits modulation of satiety-controlling factors such as Ghrelin.

Satiation devices and methods

A medical device system includes a needle having a tip including a permanent magnet, and a magnet sensing device including a plurality of sensors configured to detect the magnetic field of the permanent magnet. The magnet sensing device is operable to localize a position of the permanent magnet relative to the magnet sensing device and to indicate a path of the needle on a display.

Percutaneous magnetic gastrostomy

A satiation device is described which includes a sheath or liner extending from the proximal or middle stomach to the distal antrum. Food ingested by the patient passes through the sheath or liner, thereby minimizing contact between the ingested food and the stomach. It is believed that over time, reduced contact between food and the stomach will result in decreased Ghrelin production by the patient and a consequent decrease in appetite. In some embodiments, the satiation device may also include a proximal pouch and/or a distal bypass tube.

Gastro-esophageal implants

A guidance system for assisting with the insertion of a needle into a patient body is disclosed. The guidance system utilizes ultrasound imaging or other suitable imaging technology. In one embodiment, the guidance system comprises an imaging device including a probe for producing an image of an internal body portion target, such as a vessel. One or more sensors are included with the probe. The sensors sense a detectable characteristic related to the needle, such as a magnetic field of a magnet included with the needle. The system includes a processor that uses data relating to the sensed characteristic to determine a 3-D position of the needle. The system includes a display for depicting the position of the needle. In other embodiments, a guidance system for guiding rigid or other medical instruments is disclosed, together with various example implementations thereof.

Systems and methods for locating and defining a target location within a human body. The system can include at least one marker, a probe, and a detector for use in locating the markers by providing information to a surgeon that is representative of changes in proximity between the probe and the marker. The marker can have various detection characteristics, e.g., gamma radiation, that are detectable by an associated probe and detector. The tissue volume is removed by manipulating a cutting tool based on the proximity information provided by the detector, which can be used by the surgeon to define the boundary of the tissue volume. The systems and methods of the invention are particularly useful in locating and then removing a tissue volume or other target location from amorphous, pliable tissue (e.g., breast tissue) or other body parts.

Systems and methods for locating and defining a target location within a human body

A system and method places a percutaneous gastrostomy device into a body cavity of a patient using a magnetic gastrostomy tube and a medical detection sensing device. The magnetic gastrostomy tube has a ferromagnetic element attached to its distal end. Various embodiments allow a needle to be passed from the magnetic detection sensing device outside the patient toward a magnetic gastrostomy tube inside the patient or, alternatively, from the magnetic gastrostomy tube inside the patient toward the magnetic detection sensing device outside the patient. After a needle makes a hole between the outside of the patient and the body cavity, a medical wire may be passed through the hole, and the medical wire can then be used to place the percutaneous gastrostomy device.

Growing community of inventors

Seattle, WA, United States of America

Fred E Silverstein