Abstract: A system and/or method that facilitates sharing image viewing context between vendor visualization applications without integration of different software application from different vendors packages is describe herein. In one instance, a visualization computing system (102) includes a processor (116) that executes computer readable instructions that capture a visual context of an imaging study displayed via a basic visualization application running on a vendor computing system, identify the study based on the captured visual context, load the study on the visualization computing system, and launch an advanced visualization application, which allows viewing and manipulation of the loaded study using advanced visualization tools unavailable by the basic visualization application.

Abstract: An imaging system includes a radiation source that emits radiation that traverses an examination region. A controller activates the radiation source to emit radiation and deactivates the radiation source to stop radiation emission. The controller selectively activates the radiation source to emit radiation at one or more pre-determined angles. In another embodiment, the imaging system includes a data processing component that generates a virtual three dimensional image of an object of interest of the scanned subject based on the image data. In another embodiment, the imaging system is in a communication with a data manipulation and packaging component that generates at least a two dimensional or a three dimensional data set based on the volumetric image data and packages the data set in an object provided to a remote system that manipulates and navigates through the data set.

Abstract: A method includes identifying at least first and second angles of rotation of the rotating gantry at which first and second pre-scans are acquired, wherein the first and the angles of rotation are different angles, acquiring data, via the imaging system while rotating the rotating gantry, only during a predetermined angular range about the first angle of rotation for a first plurality of rotations from the start to the end pre-scan positions and during the predetermined angular range about the second angle of rotation for a second plurality of rotations from the start to the end pre-scan positions, and reconstructing a first pre-scan based only on the data acquired during the predetermined angular range about the first angle of rotation and a second pre-scan based only on the data acquired during the predetermined angular range about the second angle of rotation.

Abstract: A subject support (118) for an imaging system (100) includes a moveable portion (122) that includes a surface (204) on which the subject is loaded and that is configured to move into an examination region of the imaging system where the subject is to be scanned. The support further includes a scan position identifier (126) that generates a signal indicative of at least one of a start scan position or an end scan position for a predetermined region of interest of the subject based on a location of the region of interest on the moveable portion of the subject support for an arbitrary relative position of the moveable portion with respect to the examination region.

Abstract: A method includes planning a follow up three dimensional image acquisition of tissue of interest of a patient based on first and second two dimensional surview projection images, wherein the first two dimensional surview projection image was used to plan a previously performed baseline three dimensional image acquisition of the tissue of interest of the patient, wherein the first two dimensional surview projection image includes information corresponding to at least one region of interest identified in the first two dimensional surview projection image for the previously performed baseline three dimensional image acquisition, wherein the first two dimensional surview projection image includes information corresponding to a z-axis scanning extent identified in the first two dimensional surview projection image for the previously performed baseline three dimensional baseline image acquisition, and wherein the second two dimensional surview projection image was acquired for planning the follow up three dimension

Abstract: A medical diagnostic imaging system (10) is coupled to a hospital network (14) to optimize a throughput of a scanner (24). The hospital network includes a hospital records database (18) and a plurality of hospital computers and remote means (20). A workstation (12) is coupled to the scanner (24) and the hospital network (14) and is used to control a scanning process. The workstation (12) includes a display (44), an applications database (52), which is configurable by a user, and an interface means (48) for displaying interactive user interface screens (46) on the display (44). The interface screens (46) allow the user to configure the applications database (52) and interactively control the scanning process.

Abstract: A method includes displaying three dimensional medical imaging data in three dimensions via a display monitor (134) by generating and visually presenting a stereoscopic view of the three dimensional medical imaging data in the display monitor. A system includes a stereo processor (114) that processes three dimensional medical imaging data and generates two images from two different viewpoints, which are shifted from each other by a predetermined distance and are angled by a predetermined angle, and a display monitor (134) used to alternately display the two images, thereby creating a stereoscopic view.

Abstract: A method includes identifying at least first and second angles of rotation of the rotating gantry at which first and second pre-scans are acquired, wherein the first and the angles of rotation are different angles, acquiring data, via the imaging system while rotating the rotating gantry, only during a predetermined angular range about the first angle of rotation for a first plurality of rotations from the start to the end pre-scan positions and during the predetermined angular range about the second angle of rotation for a second plurality of rotations from the start to the end pre-scan positions, and reconstructing a first pre-scan based only on the data acquired during the predetermined angular range about the first angle of rotation and a second pre-scan based only on the data acquired during the predetermined angular range about the second angle of rotation.

Abstract: Information indicative of multiple regions of the anatomy of a patient (602, 604, 606), such as one or more of the head, neck, chest, abdomen, or pelvis, is obtained in a single scan. A plurality of studies (32) are generated. Each study definition includes a region of the patient's anatomy (602, 604) and a study protocol. Each study (32) includes (48) images generated using information from the scan and the value of the imaging parameter.

Abstract: A system (101) includes an imaging apparatus (100) configured for imaging a patient; and a console (114) for controlling the imaging apparatus. The console includes a processor and application memory encoded with computer readable instructions for visually presenting a touch screen interactive graphical user interface based console application for controlling the imaging apparatus for scanning the patient without an auxiliary input device. A method for controlling an imaging apparatus for scanning a patient includes employing a computer based operator console displaying a touch screen interactive graphical user interface to control imaging operations of the imaging apparatus for an imaging examination of the patient through only at least one of physical touch, gesture or voice.

Abstract: A subject support (118) for an imaging system (100) includes a moveable portion (122) that includes a surface (204) on which the subject is loaded and that is configured to move into an examination region of the imaging system where the subject is to be scanned. The support further includes a scan position identifier (126) that generates a signal indicative of at least one of a start scan position or an end scan position for a predetermined region of interest of the subject based on a location of the region of interest on the moveable portion of the subject support for an arbitrary relative position of the moveable portion with respect to the examination region.

Abstract: An imaging system includes a radiation source that emits radiation that traverses an examination region. A controller activates the radiation source to emit radiation and deactivates the radiation source to stop radiation emission. The controller selectively activates the radiation source to emit radiation at one or more pre-determined angles. In another embodiment, the imaging system includes a data processing component that generates a virtual three dimensional image of an object of interest of the scanned subject based on the image data. In another embodiment, the imaging system is in a communication with a data manipulation and packaging component that generates at least a two dimensional or a three dimensional data set based on the volumetric image data and packages the data set in an object provided to a remote system that manipulates and navigates through the data set.

Abstract: A technique for use in angiography includes obtaining data from a tracking scan following injection of a contrast agent according to a test injection profile. A region of interest (308) is established. The data from the tracking scan, the test injection profile, and the measured enhancement of the region of interest (302) are used to establish a patient function at the region of interest. The patient function and a desired enhancement profile (402) are used to establish a desired clinical injection profile. The desired clinical injection profile is communicated to a contrast injector (36) via an electrical injector interface.

Abstract: In one embodiment, a method includes correlating, via a data correlator (120), contrast delivery information from an injector (118) for a contrast-enhanced imaging procedure with imaging data acquired by an imaging system (100) utilized for the procedure. In another embodiment, a method includes performing a pre-procedure validation check on at least one of an injector (118) or an imaging system (100) respectively based on at least one protocol parameter of the imaging system (100) or the injector (118) and generating, with the injector (118) or the imagining system (100), a value indicative of the validation check.

Abstract: A technique for use in angiography includes obtaining data from a tracking scan following injection of a contrast agent according to a test injection profile. A region of interest (308) is established. The data from the tracking scan, the test injection profile, and the measured enhancement of the region of interest (302) are used to establish a patient function at the region of interest. The patient function and a desired enhancement profile (402) are used to establish a desired clinical injection profile. The desired clinical injection profile is communicated to a contrast injector (36) via an electrical injector interface.

Abstract: Information indicative of multiple regions of the anatomy of a patient (602, 604, 606), such as one or more of the head, neck, chest, abdomen, or pelvis, is obtained in a single scan. A plurality of studies (32) are generated. Each study definition includes a region of the patient's anatomy (602, 604) and a study protocol. Each study (32) includes (48) images generated using information from the scan and the value of the imaging parameter.

Abstract: A medical diagnostic imaging system (10) is coupled to a hospital network (14) to optimize a throughput of a scanner (24). The hospital network includes a hospital records database (18) and a plurality of hospital computers and remote means (20). A workstation (12) is coupled to the scanner (24) and the hospital network (14) and is used to control a scanning process. The workstation (12) includes a display (44), an applications database (52), which is configurable by a user, and an interface means (48) for displaying interactive user interface screens (46) on the display (44). The interface screens (46) allow the user to configure the applications database (52) and interactively control the scanning process.