General Electric Company

Ge Precision Healthcare LLC

Prismatic Sensors Ab

Nicholas Ryan Konkle

Douglas Albagli

Habib Vafi

Biju Jacob

William Andrew Hennessy

Gary McBroom

James Zhengshe Liu

Marc Schaepkens

Aaron Judy Couture

Kevin Lee

Kevin Kinsey

Grant Schueneman

Jahir Drago

Scott D Slavic

Connor Douglas McColl

Jiang Hsieh

Hui Li

Tao Chen

Bruno Kristiaan Bernard De Man

James Wilson Rose

John Michael Sabol

Brian David Yanoff

Jiahua Fan

William Robert Ross

Ashutosh Joshi

John Moore Boudry

Changlyong Kim

Katsumasa Nose

Brian Joseph Graves

Mahesh Raman Narayanaswamy

Andrea Marie Schmitz

Mark Adamak

Timothy Patrick Rose

Michael Richard Moritz

German Guillermo Vera

Eric Aasen

James Michael Gent

Jingyi Liang

Eric Patrick Davis

Christopher Jay Morse

Jacob Biju

Daniel Lochner

Thomas Michael Corcoran

Faisal Saeed

Mats Hedberg

Michael Boehm

Joseph Kulak

Kyle Reiser

Ming Yan

Gaoling Liu

Kevin Edward Kinsey

Connor Douglas Mccoll

Joseph John Kulak

Methods and systems are provided for repairing a defective segment of a sensor array of a photon counting detector of a photon counting computed tomography (PCCT) imaging system. In one example, a method for a PCCT imaging system comprises dividing a segment of the sensor array into a plurality of sub-segments, wherein each sub-segment of the plurality of sub-segments is electrically coupled to a readout electronics, the readout electronics configured to calculate a photon count for the segment; generating a total photon count for the divided segment based on combined electrical signals produced at each sub-segment of the divided segment; and reconstructing an image based on the total photon count at the divided segment. A defect detected in the divided segment may be traced to a defective sub-segment, which may be isolated from the readout electronics, thereby increasing a quality of the reconstructed image.

Photon counting computed tomography (PCCT) detector sensor repair for increased sensor yield

Systems and methods are provided for increasing a quality of computed tomography (CT) images. In one embodiment, a computed tomography (CT) detector system comprises a layer of energy integrating detectors (EID) arranged below a layer of photon counting (PC) sensors with respect to an incoming x-ray, where a number of the PC sensors exceeds a number of the EID detectors; and an image processing unit configured to correct PC data using EID data, and denoise and increase a resolution of an image reconstructed from EID data and PC data using a deep learning convolutional neural network (CNN) trained on pairs of images, each pair of images including a target image reconstructed from a first signal from the layer of PC sensors, and an input image reconstructed from a second signal from the layer of EID detectors, the EID data and PC data acquired concurrently from a same patient ray path.

Systems and methods for computed tomography

A thermal management system and method for cooling a CT detector assembly of a CT imaging system. The thermal management system uses a combination of air cooling for the readout electronics of the CT detector assembly and liquid cooling for the X-ray sensors of the CT detector assembly. The hybrid air and liquid cooling systems and methods may be coupled together in the thermal management system and method to create a cooler temperature in the CT detector assembly. The CT detector assembly components may include CT detector modules, which may include X-ray sensors, readout electronics and other components.

Computed tomography thermal management system and method for operation of said system

Various methods and systems are provided for an imaging detector array. In one example, a detector module of the array has a central slit separating a first tile from a second tile of the detector module. An integrated circuit is located along a first side of the first tile and along a first side of the second tile and flex cable coupled to the integrated circuit of the first portion extends through the central slit of the detector module.

Methods and systems for uniform CT detector heat distribution

Various methods and systems are provided for an imaging detector array. In one example, a detector module of the array has an X-ray sensor assembly coupled to an upper surface of a conductive block and at least one integrated circuit positioned in a recess of the conductive block below the X-ray sensor assembly. The detector module may further include a radiation blocker positioned between the X-ray sensor assembly and the at least one integrated circuit.

Methods and systems for a layered imaging detector

The present disclosure relates to the use of X-ray detector cassettes that may be abutted or overlapped to form a detector assembly suitable for imaging objects that are too large to image using a single X-ray detector cassette. Such a detector assembly may be customized in terms of the size and/or shape of the field-of-view (FOV). In certain embodiments the radiation-sensitive electronics (e.g., readout electronics) are positioned to the side of the X-ray detecting components (e.g., scintillator, TFT array, and so forth), allowing the cassette to be thin relative to other detector devices and allowing the electronics to remain outside the X-ray beam path.

Tileable X-ray detector cassettes

A detector assembly positionable to receive X-rays from an X-ray source within an imaging system is provided. The detector assembly includes multiple detector elements. The detector assembly also includes a temperature regulation system including multiple temperature regulation devices, wherein each temperature regulation device of the multiple temperature regulation devices is associated with a respective detector element of the multiple detector elements, and each temperature regulation device is configured to independently maintain a consistent temperature across a portion of a respective detector element.

System and method for regulating temperature of imaging detector sensors

Various methods and systems are provided for an X-ray imaging system comprising an X-ray source, an X-ray detector array having a plurality of X-ray detecting elements configured to detect X-rays passing through an object configured to be scanned, a plurality of collimator plates positioned between the object to be scanned and the X-ray detector array, wherein one or more of the plurality of collimator plates comprises at least one bend at or in a region of a bottom end of the collimator plate, the bottom end facing the X-ray detecting elements of the X-ray imaging system. The X-ray imaging system may be a CT imaging system or other imaging system that includes an X-ray source and an X-ray detector.

Methods and systems for collimators of a CT detector

An imager panel for an x-ray detector for obtaining x-ray images of an object is provided that includes a first portion disposed at the center of the hybrid imager panel that can produce images of a first resolution and a second portion disposed at least partially around the first portion that is capable of producing images of a second resolution. The hybrid imager panel provides a hybrid detector that can be selectively operated to obtain images of varying resolutions corresponding to the first resolution from the first portion, the second resolution from the second portion or a combination thereof.

Hybrid X-ray detector structure

A system for verifying the integrity of a radiation detector is provided. the system includes one or more data modules, one or more data lines, and a controller. The one or more data lines electronically connect one or more detector elements of the radiation detector to the one or more data modules. Each of the detector elements is operative to detect electromagnetic radiation. The controller is operative to induce a voltage in the one or more detector elements, obtain a reading from the one or more detector elements via the one or more data modules; and determine whether the integrity of the radiation detector has been compromised based at least in part on comparing the reading to a benchmark.

System and method for verifying the integrity of a radiation detector

The present invention provides a detector for medical diagnosis. The detector for diagnosis includes a photosensitive element, an X-beam stopping element, a supporting board, and a conductive liner. The photosensitive element is used for sensing an X-beam. The X-beam stopping element is used for stopping the X-beam from penetrating said photosensitive element. The supporting board is provided below the X-beam stopping element to be used for supporting said photosensitive element. The conductive liner is provided between said photosensitive element and said supporting board to fit with said photosensitive element.

X-ray detector for medical diagnosis

An x-ray detector, system and related method are described wherein a light redirection layer is provided and used to redirect light, converted from x-rays by a scintillator, to at least one pixel. The light redirection layer comprises at least one light redirecting cell comprising a channel and a light reflecting region, wherein the channel is arranged relative to the at least one pixel to direct the incoming light away from a non-light sensitive part of the at least one pixel and toward the light sensitive part of the at least one pixel.

Light guide layer for a radiographic device

An imaging system and detector for obtaining x-ray images of a region of interest (ROI) within an object is provided that does not require movement of the detector and/or object/patient for alignment with the x-ray source. The detector is formed with an array of detector elements disposed on a substrate that has an area larger than the area of the objects/patients to be imaged. In use, the object/patient is positioned between the x-ray source and the detector and the x-ray source is targeted at the ROI. The control mechanism determines the area of the detector aligned with the x-ray source and ROI and operates the selected detector elements in the area struck by the x-rays from the source passing through the ROI of the object/patient. The control mechanism receives image data from the area of the detector formed by the detector elements in order to form images of the ROI.

Selectable ROI and flexible detector for X-ray imaging

An x-ray detector comprises: a housing, including a cover fastened on a flange of a flanged base and forming a semi-hermetic seal therebetween, the flanged base including a bottom surface and the flange surrounding a perimeter of the bottom surface; and an x-ray imager positioned on the bottom surface, the x-ray imager including a wireless transmitter, wherein the seal semi-hermetically encloses the x-ray imager in the housing, and is positioned nonadjacently to surfaces in contact with the x-ray imager. In this way, a simpler and less costly seal for a digital x-ray panel can be provide; furthermore, the seal is reusable and resealable, facilitating repair and refurbishment of the device.

Scintillator sealing for solid state X-ray detector

An enclosure for a radiographic device includes a bottom panel, a plurality of sidewalls integrally formed with the bottom panel, whereby the plurality of sidewalls and the bottom panel define a unitary body, and a top panel joined to the plurality of sidewalls and defining an internal space therebetween for housing a radiographic device.

Apparatus for a radiographic device

Growing community of inventors

Wauwatosa, WI, United States of America

Nicholas Ryan Konkle