Abstract: A method, system, and storage medium for computer aided processing of an image set includes employing a data source, the data source including an image set acquired from X-ray projection imaging, x-ray computed tomography, or x-ray tomosynthesis, defining a region of interest within one or more images from the image set, extracting feature measures from the region of interest, and reporting at least one of the feature measures on the region of interest. The method may be employed for identifying bone fractures, disease, obstruction, or any other medical condition.

Abstract: A method, system, and storage medium for computer aided processing of an image set includes employing a data source, the data source including an image set acquired from X-ray projection imaging, x-ray computed tomography, or x-ray tomosynthesis, defining a region of interest within one or more images from the image set, extracting feature measures from the region of interest, and reporting at least one of the feature measures on the region of interest. The method may be employed for identifying bone fractures, disease, obstruction, or any other medical condition.

Abstract: A method, system, and storage medium for computer aided processing of dual or multiple energy images includes employing a data source, the data source including a dual or multiple energy image set, defining a region of interest within one or more images from the dual or multiple energy image set, extracting a set of feature measures from the region of interest, and employing a feature extraction algorithm on the feature measures for identifying an optimal set of features. The method may be employed for identifying bone fractures, disease, obstruction, or any other medical condition.

Abstract: A method of processing dual energy images. The method includes obtaining a first image generated at a first energy level and obtaining a second image generated at a second energy level different than the first energy level. The first and second images are pre-processed and decomposed to form a raw soft-tissue image and a raw bone image. The raw soft-tissue image is post-processed to form a processed soft-tissue image and the raw bone image is post-processed to form a processed bone image. The processed soft-tissue image and the processed bone image are then display processed.

Abstract: A method, system, and storage medium for computer aided processing of an image set includes employing a data source, the data source including an image set acquired from X-ray projection imaging, x-ray computed tomography, or x-ray tomosynthesis, defining a region of interest within one or more images from the image set, extracting feature measures from the region of interest, and reporting at least one of the feature measures on the region of interest. The method may be employed for identifying bone fractures, disease, obstruction, or any other medical condition.

Abstract: A method, system, and storage medium for computer aided processing of dual or multiple energy images includes employing a data source, the data source including a dual or multiple energy image set, defining a region of interest within one or more images from the dual or multiple energy image set, extracting a set of feature measures from the region of interest, and employing a feature extraction algorithm on the feature measures for identifying an optimal set of features. The method may be employed for identifying bone fractures, disease, obstruction, or any other medical condition.

Abstract: A system and method for improving the image quality of an X-ray image of a patient in a dual energy X-ray imaging system is provided. The system includes a heart cycle monitor, and X-ray emitter and an X-ray detector. A patient is positioned between the X-ray emitter and the X-ray detector. The heart cycle monitor monitors the cardiac cycle of the patient to detect a cardiac trigger. Once the cardiac trigger has been detected, the X-ray emitter emits high energy and low energy X-rays through the patient and the X-ray detector detects the emissions and forms images. The X-ray detector then performs a number of scrubs. Then the X-ray emitter acquires at least one offset image. The offset and the X-ray images are then combined to form X-ray images that may then be employed for dual energy X-ray processing.

Abstract: A method of processing dual energy images. The method includes obtaining a first image generated at a first energy level and obtaining a second image generated at a second energy level different than the first energy level. The first and second images are pre-processed and decomposed to form a raw soft-tissue image and a raw bone image. The raw soft-tissue image is post-processed to form a processed soft-tissue image and the raw bone image is post-processed to form a processed bone image. The processed soft-tissue image and the processed bone image are then display processed.

Abstract: A system and method for improving the image quality of an X-ray image of a patient in a dual energy X-ray imaging system is provided. The system includes a heart cycle monitor, and X-ray emitter and an X-ray detector. A patient is positioned between the X-ray emitter and the X-ray detector. The heart cycle monitor monitors the cardiac cycle of the patient to detect a cardiac trigger. Once the cardiac trigger has been detected, the X-ray emitter emits high energy and low energy X-rays through the patient and the X-ray detector detects the emissions and forms images. The X-ray detector then performs a number of scrubs. Then the X-ray emitter acquires at least one offset image. The offset and the X-ray images are then combined to form X-ray images that may then be employed for dual energy X-ray processing.