General Electric Company

Other

Kenneth William Rohling

Ronald Dean Watkins

Christopher Judson Hardy

Harvey E Cline

Charles L Dumoulin

Randy Otto John Giaquinto

Mehmet Arik

Selaka Bandara Bulumulla

William D Barber

Seung-Kyun Lee

Robert H Ettinger

Erika Schneider

Randy Otto Giaquinto

Evangelos Trifon Laskaris

Lionel M Levinson

Robert David Darrow

Thomas Kwok-Fah Foo

Minfeng Xu

Robert Steven Stormont

Peter B Roemer

Egidijus Edward Uzgiris

Kathleen Melanie Amm

John F Schenck

Ileana Hancu

Luca Marinelli

Joseph Edward Piel, Jr

Jean-Baptiste Mathieu

Eric William Fiveland

Sow T Chu

Jason Scott Pelc

Charles John Rossi, Jr

Michael Edward Moran

Keith J Park

Walter R Abeling

A warm bore cylinder assembly having an outer wall, an inner wall, and a plurality of braces is provided. The outer wall is configured to define an inner exterior portion of a cryostat assembly. The outer wall is generally cylindrical, is made of a conductive material, and has an outer wall thickness. The inner wall is disposed radially inwardly of the outer wall. The inner wall is generally cylindrical, is made of a conductive material, and has an inner wall thickness. The braces extend along an axial direction defined by the outer wall and the inner wall. The plurality of braces are interposed between and join the outer wall and inner wall. The plurality of braces define openings disposed between adjacent braces.

Warm bore cylinder assembly

The present disclosure relates to a receive coil assembly for use in magnetic resonance imaging of breast tissue. In certain embodiments the assembly comprises separable parts: a configurable mechanical support and a flexible receive coil array. The adjustability and separability of the receive coil array relative to the mechanical support allows the receive coil array to substantially conform to the breasts of the patient during imaging.

Breast coil for use in magnetic resonance imaging

A system for inductively communicating signals in a magnetic resonance imaging system is presented. The system in one embodiment includes a first array of primary coils disposed on a patient cradle of the imaging system, and configured to acquire data from a patient positioned on the patient cradle. Additionally, the system includes a second array of secondary coils disposed under the patient cradle, wherein a number of secondary coils is less than or equal to the number of primary coils, wherein the first array of primary coils is configured to inductively communicate the acquired data to the second array of secondary coils.

System and method for inductively communicating data

A hybrid microstrip coil for magnetic resonance imaging including a microstrip assembly aligned in the superior/inferior (S/I) direction. In one example, the microstrip assembly has conductive strips disposed on one side of a substrate corresponding shield planes disposed on the other side of the substrate. The microstrip assemblies are coupled together by coaxial sections forming a continuous transmission line and having a specific overall electrical length.

Short hybrid microstrip magnetic resonance coils

A phased array for a magnetic resonance (MR) imaging apparatus is disclosed that includes a plurality of receiver coils arranged to form a staggered hexagonal coil array, with the staggered hexagonal coil array being rectangular in shape. Included in the plurality of receiver coils are a plurality of standard coils and a plurality of filler coils differing in shape from the standard coils. The shape of the filler coils is such that no more than negligible mutual inductance between the filler coils and all adjacent overlapping standard coils is present.

Tiled receiver coil array with improved spatial coverage

In one aspect, a magnetic resonance imaging (MRI) device includes a non-magnetic, thermally conductive spreader substrate having a broken metal layer coupled to a thermally conductive, electrically non-conductive layer, wherein the broken metal layer is configured to exchange heat with at least one serpentine cooling tube.

Thermal management apparatus and uses thereof

An RF coil assembly includes a plurality of coil supports rotatably interconnected to each other. Each coil support is configured to rotate with respect to at least one adjoining coil support. A plurality of RF coils is connected to each coil support.

Flexible RF coil assembly and method of making same

A cryogenically cooled radiofrequency (RF) coil structure for use in Magnetic Resonance Imaging (MRI) and method for cryogenically cooling RF coils are provided. The cryogenically cooled RF coil structure comprises a sealed structure constructed of non-conducting material and adapted for containing a cooling substance and at least one RF coil disposed integrally in contact with the sealed structure such that sealed structure and integrally disposed RF coil are disposed about an object to be imaged.

Cryogenically cooled radiofrequency coil array for magnetic resonance imaging

In one aspect, the present invention is a cooling assembly for an electrical component. The assembly includes a non-magnetic, thermally conducting spreader substrate, and at least one serpentine cooling tube disposed on and in thermal contact with the thermally conducting spreader substrate so that said substrate is cooled when the one or more serpentine cooling tubes are operating.

A magnetic resonance imaging (MRI) device and a method of imaging a volume of interest is provided. According to one aspect of the present technique, the MRI device includes an attachment portion having a profile at least partially defined by a cross-section thereof, and an array of radio-frequency coils arranged with respect to each other to generally correspond to the profile. In an exemplary embodiment, each coil may have a first turn portion located radially closer to the attachment portion than a second turn portion.

Method and system for reducing coupling in magnetic resonance RF coil arrays

An incubator arrangement and radiofrequency (RF) coil are provided for use in a Magnetic Resonance Imaging (MRI) system. The incubator arrangement comprises an enclosure adapted to support a subject in a magnet of the MRI system during imaging and a radiofrequency coil disposed within the enclosure. The RF coil is adapted to provide visual and physical access to the subject, and further adapted to obtain a selected signal to noise ratio.

Apparatus for use in neonatal magnetic resonance imaging

An insertable intracavity probe for use in Magnetic Resonance Imaging (MRI) and therapy of a region of interest proximal to a cavity, the probe having a substantially rigid probe shell for insertion into the cavity. The probe shell is adapted to incorporate at least one device for imaging the region of interest. A guide track is incorporated in the probe shell and is adapted to guide at least one biopsy or therapy device to the region of interest during imaging. Intracavity regions include cervical, rectal, and other regions associated with internal cavities of a patient.

Intracavity probe for MR image guided biopsy and delivery of therapy

An MRI system acquires NMR image data to produce real time anatomic images as an ablation device is guided into contact with target tissues in a patient to be thermally treated. The ablation device includes a resistive element at its operating end which receives alternating current from an ablation control system. The resistive element produces therapeutic heat that treats the target tissues.

RF driven resistive ablation system for use in MRI guided therapy

A novel breast localization and biopsy system employs a chest support for holding the patient in a slightly rotated (20.degree.-30.degree.) prone position allowing the breast tissue hang downward and fit through an opening in the chest support, while holding the other breast against the subject away from the imaging region. A pair of support plates compress the breast tissue. At least one of the support plates has a grid with reference markers for localization and windows allowing a physician access to the breast tissue. A thick biopsy plate with a plurality of holes at marked positions fits into one of the grid openings and guides an interventional device, such a biopsy needle, into a desired location in a lesion. In an alternative embodiment, both breasts fit through the chest support. There are two stabilization plate assemblies, one for each breast and two medical imaging sources. Each source points from the lateral to medial support plate to accomplish imaging of both breasts simultaneously.

Image guided breast lesion localization device

A patient isolation device is used as a safety device to provide electrical insulation between medical electronic equipment and portions of the equipment which come in contact with the patient. In one implementation of the patient isolation device, an RF coil is incorporated in a catheter connected to medical electronic equipment which tracks the position of the catheter. Typically, there is also medical imaging electronics to provide internal images of the subject along with an indication of the location of the catheter. Typically, the signal from the RF coil is provided to a preamplifier to amplify the signal. The isolation device is placed between the RF coil and the preamplifier such that MR response signals may pass through to the preamplifiers but in the event of a short or electrical malfunction the line voltage will not pass backward into the RF coil causing damage to the patient.

Growing community of inventors

Niskayuna, NY, United States of America

Kenneth William Rohling