Abstract: A digital X-ray detector is provided. The digital X-ray detector includes control circuitry. The control circuitry is configured to obtain an electromagnetic interference (EMI) frequency of an EMI signal, to receive a signal to start a scan, to ensure EMI noise is in a same phase during acquisition of offset images and read images to enable a subtraction of the EMI noise, and to start the scan.

Abstract: 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.

Abstract: A digital X-ray detector is provided. The digital X-ray detector includes control circuitry. The control circuitry is configured to obtain an electromagnetic interference (EMI) frequency of an EMI signal, to receive a signal to start a scan, to ensure EMI noise is in a same phase during acquisition of offset images and read images to enable a subtraction of the EMI noise, and to start the scan.

Abstract: 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.

Abstract: A digital X-ray detector is provided. The digital X-ray detector includes control circuitry. The control circuitry is configured to obtain an electromagnetic interference (EMI) frequency of an EMI signal, to receive a signal to start a scan, to ensure EMI noise is in a same phase during acquisition of offset images and read images to enable a subtraction of the EMI noise, and to start the scan.

Abstract: A digital X-ray detector is provided. The digital X-ray detector includes control circuitry. The control circuitry is configured to obtain an electromagnetic interference (EMI) frequency of an EMI signal, to receive a signal to start a scan, to ensure EMI noise is in a same phase during acquisition of offset images and read images to enable a subtraction of the EMI noise, and to start the scan.

Abstract: A digital X-ray detector is provided. The detector includes a detector array configured to generate image data based on incident X-ray radiation. The detector also includes a housing in which the detector array is disposed. The detector is configured to be inductively charged and the detector lacks any external electrical connector.

Abstract: The present disclosure relates to radiation detectors having a layer of a high Z material, such as tungsten or lead, disposed on a face of a photodetector layer or other underlying layer. In one embodiment, the layer of the high Z material substantially prevents radiation from reaching on or more electronics components or circuits, such as an analog-to-digital conversion ASIC or other circuit.

Abstract: The present disclosure relates to radiation detectors having a layer of a high Z material, such as tungsten or lead, disposed on a face of a photodetector layer or other underlying layer. In one embodiment, the layer of the high Z material substantially prevents radiation from reaching on or more electronics components or circuits, such as an analog-to-digital conversion ASIC or other circuit.

Abstract: A computerized tomography imaging scanner module includes a plurality of scintillators, a plurality of back-illuminated photodiodes optically coupled with the scintillators, a multi-layer substrate having a plurality of substrate electrical conductors to which the photodiodes are electrically coupled, wherein each of the plurality of substrate conductors is connected to a different one of the back-illuminated photodiodes, and a flexible cable having a plurality of flex electrical conductors to which the substrate is electrically coupled, wherein each of the plurality of flex electrical conductors is connected to a different output of the multi-layer substrate.

Abstract: A flexible detector array transmission circuit (12) for an x-ray imaging system (10) may include an electrically conductive substrate layer (70) that is electrically coupled to a detector (68). A mono-directional conductive layer (80) is also electrically coupled to the substrate layer (70). One or more flexible circuit layers (72) are electrically coupled to the mono-directional conductive layer (80). The circuit layers (72) direct x-ray signals, generated from the detector (68), to a data acquisition system (42).