Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: Systems and methods for improving soft tissue contrast, characterizing tissue, classifying phenotype, stratifying risk, and performing multi-scale modeling aided by multiple energy or contrast excitation and evaluation are provided. The systems and methods can include single and multi-phase acquisitions and broad and local spectrum imaging to assess atherosclerotic plaque tissues in the vessel wall and perivascular space.

Abstract: A single hand operation ultrasound probe array is provided. The single ultrasound probe array places individual transducers, each having different transducer characteristics, on sheaths that fit over fingers of a user. By the user positioning their fingers differently, different transducers are selected for use, enabling the user to switch between multiple different center frequencies, or other different transducer configurations, based on the positioning of the fingers of the user relative to the patient. The ultrasound probe array is configured with wired or wireless communication to an ultrasonic machine to receive the probe signals and interpret.

Abstract: A method and system for creating non-parallax panoramic images from a plurality of individual images, in real-time is provided. Specifically, the present invention provides a system and method configured to combine individual overlapping medical images into a single undistorted panoramic image in real-time. In particular, the present invention provides a system and method for combining individual x-ray images into a single clinical panoramic image for use with a G-arm device.

Abstract: A system and method are provided for performing fluoroscopic procedures with assistance of a laser created guide line to reduce a reliance on radiation creating imaging devices during the procedure. The system and method reduce an amount of radiation exposure to patients and care providers during procedures that require assisted imaging. Specifically, an automated laser guidance system and method of use is provided to reduce fluoroscopic radiation, reduce operation time, and increase operative accuracy.

Abstract: A method and system for creating non-parallax panoramic images from a plurality of individual images, in real-time is provided. Specifically, the present invention provides a system and method configured to combine individual overlapping medical images into a single undistorted panoramic image in real-time as an imaging device traverses over a patient. In particular, the present invention provides a system and method for combining individual x-ray images into a single clinical panoramic image for use with a traversing G-arm device.

Abstract: A system and method are provided for performing fluoroscopic procedures with assistance of guiding laser beam projections to reduce a reliance on harmful radiation emitting fluoroscopic imaging devices during the procedure. The system and method reduce an amount of radiation exposure to patients and medical personnel during procedures that require assistive real-time imaging. Specifically, an automated laser guidance system and method of use is provided to reduce fluoroscopic radiation, reduce operation time, and increase operative accuracy.

Abstract: A foldable biplane G-arm for use with x-ray imaging and fluoroscopic imaging. The system includes a gantry that supports imaging machinery to allow two bi-planar imaging beams to be taken simultaneously or without movement of the equipment and/or patient. Additionally, the system provides a G-arm gantry with a folding arm configuration that can solve prominent problems with traditional C-arm and G-arm gantries. In particular, the folding arm enables the G-arm of the present invention to reduce or eliminate obstacles between surgeons and nurses and more easily adapt for insertion of surgical tables into the system for imaging procedures by pivoting out and away from a center focus point of the support gantry to provide improved access for moving patient tables into and out of position for imaging the patient.

Abstract: A method and apparatus for performing three dimensional (3D) paradoxical pulse bi-planar synchronous real-time imaging. In a 3D imaging scan mode, the bi-planar imaging method and apparatus of the present invention executes a cross angle of two X-ray imaging subsystems with a sweeping angle of the two subsystems to be configured with a mechanical offset of 90 degree plus a half-fan beam angle of the X-ray beam.

Abstract: An apparatus and corresponding method of use relate to diagnostic ultrasound probing. In particular, the apparatus is suitable for ultrasound guidance for musculoskeletal (MSK) injections. The apparatus is a palm-wearable device configured to removably and replaceably receive and hold a sensor device. The palm-wearable device enables a user to have one hand for manipulating the sensor device and a free hand for performing other tasks such as a MSK injection.

Abstract: A method for performing reconstruction for a region of interest (ROI) of an object is provided. The method includes designating the ROI within the object, the ROI being located within a scan field of view (FOV) of a combined third- and fourth-generation CT scanner, the CT scanner including fixed photon-counting detectors (PCDs), and an X-ray source that rotates about the object in synchronization with a rotating detector. Further, the method includes determining, for each PCD, as a function of view angle, an on/off timing schedule, based on a size and location of the designated ROI, and performing a scan to obtain a first data set from the rotating detector and a second data set from the plurality of PCDs, while turning each PCD on and off according to the determined schedule. Finally, the method includes performing reconstruction using the first and second data sets to obtain ROI spectral images.

Abstract: A method for performing reconstruction for a region of interest (ROI) of an object is provided. The method includes designating the ROI within the object, the ROI being located within a scan field of view (FOV) of a combined third- and fourth-generation CT scanner, the CT scanner including fixed photon-counting detectors (PCDs), and an X-ray source that rotates about the object in synchronization with a rotating detector. Further, the method includes determining, for each PCD, as a function of view angle, an on/off timing schedule, based on a size and location of the designated ROI, and performing a scan to obtain a first data set from the rotating detector and a second data set from the plurality of PCDs, while turning each PCD on and off according to the determined schedule. Finally, the method includes performing reconstruction using the first and second data sets to obtain ROI spectral images.

Abstract: A method for performing reconstruction for a region of interest (ROI) of an object is provided. The method includes designating the ROI within the object, the ROI being located within a scan field of view (FOV) of a combined third- and fourth-generation CT scanner, the CT scanner including fixed photon-counting detectors (PCDs), and an X-ray source that rotates about the object in synchronization with a rotating detector. Further, the method includes determining, for each PCD, as a function of view angle, an on/off timing schedule, based on a size and location of the designated ROI, and performing a scan to obtain a first data set from the rotating detector and a second data set from the plurality of PCDs, while turning each PCD on and off according to the determined schedule. Finally, the method includes performing reconstruction using the first and second data sets to obtain ROI spectral images.

Abstract: A method for performing reconstruction for a region of interest (ROI) of an object is provided. The method includes designating the ROI within the object, the ROI being located within a scan field of view (FOV) of a combined third- and fourth-generation CT scanner, the CT scanner including fixed photon-counting detectors (PCDs), and an X-ray source that rotates about the object in synchronization with a rotating detector. Further, the method includes determining, for each PCD, as a function of view angle, an on/off timing schedule, based on a size and location of the designated ROI, and performing a scan to obtain a first data set from the rotating detector and a second data set from the plurality of PCDs, while turning each PCD on and off according to the determined schedule. Finally, the method includes performing reconstruction using the first and second data sets to obtain ROI spectral images.