General Electric Company

United States Endoscopy Group, Inc.

General Electric Corporation Gmbh

Darren Charles Gregan

Victor Taracila

Fraser Robb

Alex Uspenski

Scott G Haack

Joseph Michelini

Reza Mohammadpour

Miguel A Navarro

Jessica Russo

Sarah Insull

Sahil Bhatia

Tae Young Yang

Joseph J Mrva

Christopher J Kaye

Keith R John

Kolman Juhasz

Yun-Jeong Stickle

Gary E Mann

John Edward Lorbiecki

John P Winstanley

Craig Culver

Cindy Ranallo

Thomas Edward Zink

Tony Martella

Sarah Grace Leversee

Michael James Calloway

Gerald Chiappone

Eric Roush

Gabriel Searles

Seth Byers

YunJeong Stickle

Tom Zink

Sven Huijs

Jessica Lynn Russo

Joseph Meva

An endoscopic resection assembly includes an adaptor configured to adapt to an endoscopic device. A pusher is disposed on the adaptor by inserting the adaptor into the central opening defined by the pusher. A cutting device includes a snare loop and a snare drive cable, and is removably coupled to the pusher. The cutting device is configured to resect a tissue when the snare loop is contracted by activation of the snare driver. A clip for engaging onto the tissue can be loaded onto the adaptor at a position distal to the pusher.

Endoscopic resection assembly

An endoscopic device, includes a clip assembly and a driving assembly. The clip assembly includes a first jaw, a second jaw, a pivot, a housing having an internal channel, and a release portion connecting to the first and second jaws. At least a portion of the first and second jaws is disposed within the internal channel, the first and second jaws selectively move along with the internal channel. The driving assembly includes an outer sheath, an inner tube, movably disposed within the outer sheath, and a driver, movably disposed within the inner tube, and removably received within the release portion. The driver is unbrokenly released from the release portion by a predetermined pull force. The housing and the outer sheath form a releasable handshake engagement. The inner tube extending into the housing prevents the handshake engagement from disengaging.

Clip and clip assembly

The present subject matter discloses a wire guided device, including a sheath, a working assembly, and a wire guide. The working assembly includes a working portion, configured to contact an intended tissue, and a connector, connecting the working portion and the sheath. The wire guide is disposed at and connected to the working assembly. The wire guide is configured to allow a guide wire to pass through, wherein the wire guide is disposed at a predetermined distance from a distal end of the working assembly. The wire guide and the guide wire do not interfere with an operation of the working portion.

Wire guided device

An adjustable MRI head coil apparatus and MRI system include a fixture and a plurality of plates attached to the fixture. Each of the plurality of plates includes a plurality of RF receive elements arranged in a fixed orientation. The adjustable MRI head coil apparatus and MRI system also include an actuator mechanism configured to adjust the relative position of each of the plurality of plates in order to fit a variety of different patient head sizes.

Adjustable MRI head coil apparatus and MRI system

An MR coil former apparatus includes a body, a coil array, and a coil cover. The body defines a patient-facing positive surface opposite a non-patient-facing negative surface. The positive surface of the body includes an anatomic contour, and the coil array is disposed adjacent and conformed to the anatomic contour. The coil cover is disposed overlying the coil array and conformed to the anatomic contour.

Expanded foam former apparatus and method for making the same

Systems and methods for coil arrangements in Magnetic Resonance Imaging (MRI) are provided. One arrangement includes a magnet bore, a radio-frequency (RF) transmit coil coupled to the magnet bore and at least one RF neck coil coupled to the magnet bore. The RF neck coil is movable within the magnet bore under and separate from a table within the magnet bore.

Neck coil arrangements for magnetic resonance imaging

A non-cylindrical cable balun design having reduced space requirements and that provides for a lighter-weight RF coil is disclosed. The balun includes a balun shell having a non-cylindrical profile, a dielectric foam positioned within the balun shell so as to fill an interior volume defined by the balun shell, and one or more capacitors formed on the balun shell. A non-cylindrical coaxial cable that transmits electromagnetic signals to the balun extends through a length of the balun and is surrounded by the dielectric foam.

Non-cylindrical cable balun design for RF coils

Growing community of inventors

Auburn Township, OH, United States of America

Darren Charles Gregan