Abstract: A medical imaging system configured to receive first image information corresponding with one or more images acquired at a first time, the one or more images including a lesion; receive second image information corresponding with one or more images of the lesion acquired at another time; render volumes of the lesion for each image; and overlays the two volumes. Other factors and/or indicators, such as vascularization indicators, may be calculated and compared between the first image information and second image information.

Abstract: A medical imaging system configured to receive first image information corresponding with one or more images acquired at a first time, the one or more images including a lesion; receive second image information corresponding with one or more images of the lesion acquired at another time; render volumes of the lesion for each image; and overlays the two volumes. Other factors and/or indicators, such as vascularization indicators, may be calculated and compared between the first image information and second image information.

Abstract: A medical imaging system configured to receive first image information corresponding with one or more images acquired at a first time, the one or more images including a lesion; receive second image information corresponding with one or more images of the lesion acquired at another time; render volumes of the lesion for each image; and overlays the two volumes. Other factors and/or indicators, such as vascularization indicators, may be calculated and compared between the first image information and second image information.

Abstract: A medical imaging system configured to receive first image information corresponding with one or more images acquired at a first time, the one or more images including a lesion; receive second image information corresponding with one or more images of the lesion acquired at another time; render volumes of the lesion for each image; and overlays the two volumes. Other factors and/or indicators, such as vascularization indicators, may be calculated and compared between the first image information and second image information.

Abstract: A system and method is disclosed for rendering an ultrasound volume. An external image of an ultrasound volume is generated. A fractional part of the external image corresponds to a fractional portion of the ultrasound volume. A composite image of the ultrasound is generated using the external image, wherein the fractional part of the external image is replaced with an internal image of the ultrasound volume fractional portion. The internal image may be generated by changing a value of a visualization parameter used to generate the external image to a value more suitable for rendering an internal image. The ultrasound volume may include a organic structure, wherein the external image depicts an outer surface of the organic structure, and the internal image depicts a vascularity of the organic structure, such that the composite image simultaneously depicts both an outer surface and the vascularity of the organic structure.

Abstract: A method and system of imaging is provided. The system can include an imaging system (10) having at least one probe (120) for transmitting imaging energy into a region (150) of a body (50) and receiving response energy; a display device (170); and a processor (100) operably coupled to the at least one probe and the display device. The processor can generate a first image based on the response energy. The processor can present the first image on the display device. The processor can present on the display device a second image of the same plane or volume as the first image. The first image is different from the second image. The processor can retrieve a designation of a region of interest from a clinician that is associated with one of the first and second images. The processor can compare the first image with the second image for graphical differences, and the processor can present the region of interest on the other of the second image based at least in part on the graphical differences.

Abstract: An ultrasound diagnostic imaging system (10) is provided that includes a patient monitor (12) and an ultrasound machine (14). The patient monitor (12) includes a communications processing unit (16) with a sensor interface (18) for receiving physiological data and a wireless interface (20) for transmitting ultrasound control data to the ultrasound machine (14). The patient monitor (12) further includes a data processing unit (24) that generates ultrasound control data in response to physiological data received by the sensor interface (18). The ultrasound machine (14) includes a communications processing unit (30) with a wireless interface (32). The communications processing units (16, 30) establish a low-latency wireless communication link that allows ultrasound control data sent by the patient monitor (12) to trigger the acquisition of ultrasound frames, images, and/or volumes at an appropriate time during a physiological cycle.

Abstract: A system and method is disclosed for rendering an ultrasound volume. An external image of an ultrasound volume is generated. A fractional part of the external image corresponds to a fractional portion of the ultrasound volume. A composite image of the ultrasound is generated using the external image, wherein the fractional part of the external image is replaced with an internal image of the ultrasound volume fractional portion. The internal image may be generated by changing a value of a visualization parameter used to generate the external image to a value more suitable for rendering an internal image. The ultrasound volume may include a organic structure, wherein the external image depicts an outer surface of the organic structure, and the internal image depicts a vascularity of the organic structure, such that the composite image simultaneously depicts both an outer surface and the vascularity of the organic structure.