Abstract: At least one embodiment of the invention relates to a method for producing result images of an examination object, in the case of which a number of magnetic resonance images, determined by a magnetic resonance recording device, of the examination object are acquired, and radionuclide emission tomography image data, determined by a radionuclide emission tomography recording device, of the examination object are acquired. In at least one embodiment, the magnetic resonance images for determining contours of a target structure are then segmented, and the contours of the target structure are visualized in common with at least the radionuclide emission tomography image data that are assigned to picture elements located inside the target structure, and/or are stored for a later visualization. Moreover, a corresponding image processing system and an imaging system having such an image processing system are described in at least one embodiment.

Abstract: In a method to control the data acquisition and/or the data processing in at least one medical device, in particular to control the image data acquisition and/or the image data processing in a medical image data acquisition device, at least one work step already effected and/or still to be effected by an operator at a computer in the framework of controlling the data acquisition and/or the data processing is determined and/or analyzed by at least one program, and the operator is assisted dependent on the determination and/or analysis result.

Abstract: The present embodiments relate to an apparatus that includes a local coil for a magnetic resonance tomography system and an implantable device.

Abstract: A user predefines for a computer a retrieval instruction for primary data of a patient or of several patients. The computer accesses the primary data of this patient and outputs them to the user via a visual display device. The primary data comprise the primary image data recorded by way of a primary imaging modality and/or primary information derived from said primary image data. The computer automatically checks whether it is possible to access secondary data of this patient, which comprise the secondary image data recorded via a secondary imaging modality and/or secondary information derived from said secondary image data. In the affirmative case, the computer outputs a corresponding message to the user via the visual display device and/or by accessing at least a portion of the secondary data of this patient and outputting said data to the user via the visual display device.

Abstract: At least one example embodiment discloses a method for automatically selecting a display mode for an image data record is provided. In the at least one example embodiment, spatially resolved values of a parameter are determined in a first image data record of the organ to be examined, with the parameter allowing an evaluation of a functionality of the organ to be examined. Thereupon a deviation of the determined values of the parameter from a tolerance range is localized. The result of the localization is saved, and a display mode of a second image data record is selected on the basis of the result of localization, with the second image data record being a 3D image data record. The second image data record is shown in the selected display mode.

Abstract: In order to produce a contrast enhanced image data record of an examination region of a patient, a method is disclosed. In at least one embodiment, the method includes loading a first image data record of the examination region in the case of which healthy tissue is displayed with a lower intensity than blood and diseased tissue, and a second image data record of the examination region in the case of which blood is displayed with a lower intensity than healthy and diseased tissue. In at least one embodiment, the contrast enhanced image data record is produced by processing the first image data record and the second one, the processing including at least one arithmetic operation, and is thereupon displayed and/or stored.

Abstract: In a method for generation of a medical image, starting from an acquired data set of an organ to be depicted, a magnification factor and/or an image section to be depicted are automatically determined dependent on the organ to be depicted. Based on this a medical image is generated from the data set. A data processing unit for medical images is fashioned for implementation of such a method and computer software implements such a method when it is executed on a data processing unit.

Abstract: In a method for determining the ventilation of a lung of an object under examination by magnetic resonance imaging, at least two first lung-representing image data sets are acquired at different intervals of the breathing phase. The density change of the lung tissue is automatically determined from the signal difference between the image signals of the first image data sets in at least one corresponding region of the first lung-representing image data set. The lung or the thorax volume is automatically determined using at least two of the first image data sets, or using at least an additional second lung-representing image data set in a breathing phase that corresponds with the breathing phase of a first image data set. The localized, quantitative ventilation of the lung is automatically calculated depending on the density change of the lung tissue and the change of the lung or thorax volume.

Abstract: In a method for controlling the recording of measurement data in a medical image acquisition device, in particular a magnetic resonance device, having a control device and an operating device having a display device for displaying a user interface that comprises a navigation area and a content area, when a step is selected in the operating sequence of the acquisition of the measurement data in the navigation area of the user interface, an item of status information of the step is determined by the control device, as a function of the item of status information, at least one status-specific item of information and/or at least one status-specific operating element is shown in the content area.

Abstract: A method to control a magnetic resonance system includes at least one protocol step for measurement data acquisition with the magnetic resonance system, and at least one operator interaction step which allows an operator to enter information that affects at least one subsequent step in the control of the magnetic resonance system.

Abstract: In a method and magnetic resonance system for controlling a contrast agent injector used with a magnetic resonance imaging scanner of the system, a user interface is displayed at the control panel of the scanner, for configuring the operating parameters of the injector connected to the magnetic resonance imaging scanner and for controlling the injector in accordance with the operating parameters configured on said user interface, from the scanner control panel.

Abstract: In a method and magnetic resonance tomography apparatus for evaluation of a cinematographic image series of the heart during a heart cycle, wherein the image series is acquired with an acquisition unit, and in the image series healthy heart muscle tissue is presented as differentiable from damaged heart muscle tissue, at least two individual images of the image series are processed in a data processing unit, with at least one region of the healthy heart muscle and/or of the damaged heart muscle being detected in each of the individual images by a pattern recognition algorithm, and at least one descriptive quantity is measured that describes a geometric property of the region that has been detected by the pattern recognition algorithm, a dynamic change of the descriptive quantity is detected, and medically-relevant information that is acquired from the dynamic change of the descriptive quantity is made available as an output.

Abstract: In a method to control the acquisition operation of a magnetic resonance device in the acquisition of magnetic resonance data of a patient, and associated magnetic resonance device, patient-related acquisition parameters are determined, technical control parameters are automatically determined taking into account the patient-related acquisition parameters, and the magnetic resonance device is controlled according to the control parameters.

Abstract: A method is disclosed for performing an imaging examination technique. In at least one embodiment, the method includes measuring a first dataset via a first imaging examination technique, measuring a second dataset via a second imaging examination technique, segmenting the first dataset, transfering the segmentation to the second dataset, selecting at least one localization in the second dataset on the basis of the transferred segmentation, and measuring a third dataset via a third imaging examination technique such that the third dataset includes the at least one localization.

Abstract: In a method and a magnetic resonance (MR) system for acquisition of MR data of a measurement subject in an MR examination in the magnetic resonance system, MR data of the measurement subject (are acquired according to measurement parameters while the measurement subject is moved relative to the magnetic resonance system, the acquired MR data are analyzed, and the measurement parameters are automatically adapted.

Abstract: In a method for segmentation of a medical data set, the segmentation is implemented using markings, the markings being set in the generation of the data set.

Abstract: According to an embodiment of the invention, a method for automatically selecting a display mode for an image data record is provided. In an embodiment of the process, spatially resolved values of a parameter are determined in a first image data record of the organ to be examined, with the parameter allowing an evaluation of a functionality of the organ to be examined. Thereupon a deviation of the determined values of the parameter from a tolerance range is localized. The result of the localization is saved, and a display mode of a second image data record is selected on the basis of the result of localization, with the second image data record being a 3D image data record. The second image data record is shown in the selected display mode.

Abstract: In a method to control the data acquisition and/or the data processing in at least one medical device, in particular to control the image data acquisition and/or the image data processing in a medical image data acquisition device, at least one work step already effected and/or still to be effected by an operator at a computer in the framework of controlling the data acquisition and/or the data processing is determined and/or analyzed by at least one program, and the operator is assisted dependent on the determination and/or analysis result.

Abstract: In a method and device for automatic determination of a flow of a bodily fluid within vessels of an organism by a magnetic resonance, a magnetic resonance angiography to procedure is implemented generate magnetic resonance angiography images, a of magnetic resonance flow measurement is implemented to generate magnetic resonance flow images, and the magnetic resonance angiography images are applied to the magnetic resonance flow images as a mask to produce a resulting image depicting vessels with flow therein.

Abstract: At least one embodiment of the invention relates to a method for producing result images of an examination object, in the case of which a number of magnetic resonance images, determined by a magnetic resonance recording device, of the examination object are acquired, and radionuclide emission tomography image data, determined by a radionuclide emission tomography recording device, of the examination object are acquired. In at least one embodiment, the magnetic resonance images for determining contours of a target structure are then segmented, and the contours of the target structure are visualized in common with at least the radionuclide emission tomography image data that are assigned to picture elements located inside the target structure, and/or are stored for a later visualization. Moreover, a corresponding image processing system and an imaging system having such an image processing system are described in at least one embodiment.