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 method includes using a pre-scan image to define a scan field of view for a region of interest of a patient to be scanned for at least one image acquisition of a series of image acquisitions of a scan plan, performing an image acquisition of the series based on a corresponding scan field of view for the image acquisition, and determining, via a processor (120), a next field of view for a next image acquisition of the series based on available image related data.

Abstract: Provided herein is a system and method for performing a magnetic resonance imaging scan using a MR scanner. The method can comprise receiving via a user interface a MR imaging protocol categorizable into a MR scan type of a predefined set of MR scan types. Further, the method can comprise querying a database by providing to the database scan information permitting the database to identify the MR scan type of the MR imaging protocol. The method can further comprise receiving from the database statistical information on the MR scan type which can include statistics on modifications of individual scan parameters of the MR scan type, and providing the statistical information to the user interface. Modifications of the MR imaging protocol can be received from the user interface, resulting in a modified MR imaging protocol, according to which the MR imaging scan can be performed.

Abstract: A method includes using a pre-scan image to define a scan field of view for a region of interest of a patient to be scanned for at least one image acquisition of a series of image acquisitions of a scan plan, performing an image acquisition of the series based on a corresponding scan field of view for the image acquisition, and determining, via a processor (120), a next field of view for a next image acquisition of the series based on available image related data.

Abstract: The invention relates to a visualization apparatus (1) for visualizing an image data set. The visualization apparatus (1) comprises an image data set providing unit (2) for providing the image data set, a differential property determination unit (5) for determining local differential properties for different regions of the image data set, an assigning unit (6) for assigning visualization properties to the different regions of the image data set depending on the determined local differential properties, wherein a visualization property defines the visualization of a region, to which the visualization property is assigned, and a display unit (7) for displaying the visualization properties assigned to the different regions of the image data set. By displaying the visualization properties assigned to the different regions of the image data set different objects can visually be separated from each other without requiring large computational costs.

Abstract: Systems and methods are described for incremental implementation of undo\redo support in legacy applications. In one implementation, a system enables a per-object undo/redo process to be realized in pre-existing computer programs that have limited or no undo/redo functionality, while minimizing changes to such pre-existing computer programs. An innovative process stores an undo/redo instruction for each user-initiated operation in a data structure, classifies each undo/redo instruction under one or more objects affected by the operation, or vice/versa, and verifies the validity of each undo/redo instruction before performing an undo/redo. In one implementation, the process stores only undo/redo instructions in the data structure for those operations that can be validated beforehand as being undoable/redoable. Various data structure schemes are available, each of which may increase performance while implementing the undo-redo support for a given legacy software, e.g.

Abstract: Innovative undo/redo operations can be applied to separate objects or parts of objects within multi-object data, without having to undo and redo along a rigid chronological sequence of recorded operations. In one implementation, a user selects an object, or part of an object, and innovative undo/redo techniques enable the user to apply undo and redo operations to only the selected object or part, while skipping undo and redo operations for other objects. The undo/redo operations can also be applied in parallel to multiple objects. A graphical user interface (GUI) provides linear or hierarchical representations of operations applied to each object and displays undo/redo controls for each object.