Abstract: One or more example embodiments of the present invention relates to a method for providing a virtual, noncontrast image dataset of a patient comprising providing a multiphase CT angiography image dataset of the patient, the multiphase CT angiography image dataset comprising at least three CT image datasets that map an imaging area of the patient at three different points in time relative to an administration of a contrast agent; forming a minimum intensity image dataset of the imaging area based on the at least three CT image datasets, an image value of an image point of the minimum intensity image dataset is in each case based on a minimum value from among image values of the image point, locally corresponding in the imaging area, in the at least three CT image datasets; and outputting of the virtual, noncontrast image dataset based on the minimum intensity image dataset.

Abstract: A medical imaging device, comprises: a first communication interface configured to transfer authentication data; and a second communication interface configured to transfer user interface data; wherein the medical imaging device is configured to provide a user interface for a medical accessory device based on the authentication data and the user interface data.

Abstract: According to various examples, pharmacokinetics of a contrast medium through a cardiovascular system of a patient are estimated. This is achieved using analytical model(s) such as a compartment model or a linear time invariant model, and/or one or more neural network algorithms. An angiographic imaging protocol may be configured based on the estimate of the pharmacokinetics.

Abstract: A target structure for generation of x-ray radiation may include a heat sink; and a target element for electrons to strike, the target element being in the heat sink to cool the target element, wherein the heat sink includes a metal-diamond composite material.

Abstract: A computer-implemented method for visualizing interactions in an extended reality (XR) scene, the computer-implemented method comprising: receiving a first dataset representing an XR scene including a technical device; displaying the XR scene on an XR headset or a head-mounted display (HMD); providing a room for a user wearing the XR headset or HMD for interacting with the XR scene, wherein the room includes a set of optical sensors including at least one optical sensor at a fixed location relative to the room; detecting optical sensor data of the user as a second dataset while the user is interacting with the XR scene in the room; and fusing the first dataset and the second dataset to generate a third dataset.

Abstract: A method for actuating an X-ray device during robot-assisted navigation of at least two objects introduced into a body, such as a hollow organ, of a patient by at least one robotic system, includes providing a first selection criterion for selecting one of the objects, and providing a second selection criterion for selecting one of the objects. One of the at least two objects is selected based on the first selection criterion and the second selection criterion, and recording parameters of the X-ray device are automatically set, such that the selected object in an X-ray image to be recorded is highlighted compared to the at least one other object. The selected object may be highlighted with respect to image quality, image flavor, positioning on the X-ray image, and/or a collimator setting of a collimator of the X-ray device. An X-ray image is recorded with the set recording parameters.

Abstract: A method for producing a local coil for an MRT measurement, including shaping a coil structure from an elongate conductor; shaping an antenna for the MRT measurement from the coil structure; introducing the antenna into a cavity mold that is designed to receive a liquid plastic material, wherein the antenna is arranged in the cavity mold in such a way that it is at least partially encapsulatable by liquid plastic material; shaping a local coil by filling the cavity mold with a liquid plastic material and curing the plastic material.

Abstract: The disclosure describes techniques for invalidating a local coil for a magnetic resonance tomography (MRT) system. The techniques include carrying out a measurement with the local coil on the MRT system, changing a mechanical and/or an electrical property of the local coil and/or an item of information about the local coil in the MRT system to the extent that a number of measurements possible with this local coil is reduced and, in the case where only the measurement carried out was possible with the local coil, a further measurement is no longer possible with this local coil on the MRT system. The disclosure also relates to a local coil and to an MRT system.

Abstract: A computer-implemented method, comprising: receiving input data including a medical image and an in-image annotation; applying a first function to the input data to determine a relevance value of pixels in the image and a relevance map; applying a second function to the medical image to generate a de-identified medical image; applying a trained function to the medical image and the de-identified medical image to determine a first property in the medical image and a second property in the de-identified medical image; applying a comparison function to the first property and the second property to determine a similarity value, wherein in response to the similarity value being below a similarity threshold, the relevance map is adjusted and the applying of the second function, the applying of the trained function and the applying of the comparison function are repeated; and providing the de-identified medical image and the in-image annotation.

Abstract: Techniques are described for detecting a specified substance in an examination object by way of a magnetic resonance apparatus. A controller ascertains a magnetic resonance sequence comprising at least one sub-sequence for detecting at least one substance to be detected in the examination object as a function of the at least one substance to be detected, and ascertains at least one measuring instant for capturing a respective MRT signal to detect the at least one substance to be detected in the examination object as a function of the at least one substance to be detected. The at least one MRT signal is evaluated for fulfillment of a predetermined detection condition, and a presence of the at least one substance to be detected is established when the at least one MRT signal fulfils the predetermined detection condition.

Abstract: A method for locating or identifying components or elements based on which a medical findings report can be produced for a patient to be assessed includes: providing a plurality of comparison datasets, each comparison dataset having at least one reference medical findings report; providing an analysis function, which is configured to ascertain, for a medical dataset of the patient being assessed, at least one reference dataset from the plurality of comparison datasets; ascertaining at least one reference dataset from the plurality of comparison datasets by applying the analysis function to the medical dataset and the comparison datasets; identifying at least one document model structure for the patient to be assessed based on the at least one reference medical findings report associated with the at least one reference dataset; and providing the at least one document model structure for further processing.

Abstract: Techniques are provided for presenting a target in X-ray imaging. The techniques include acquiring N 3D images of an imaging target, with each 3D image being provided with a respective camera coordinate system and N being a positive integer greater than or equal to 2. The techniques also include generating a virtual 3D image on the basis of the N 3D images, with a camera coordinate system of the virtual 3D image taking an X-ray source as the origin, and converting the virtual 3D image into a 2D image. Finally, the technique includes presenting the 2D image. By means of the 2D image, the X-ray imaging target may be fully observed. In addition, distortion, such as warping or deformation, is not present in an imaging region and an automatic exposure region.

Abstract: A computed tomography device has a gantry having a first gantry part, a second gantry part and a flexible material sheet. The first gantry part has a rotor having a projection data acquisition system and is movably mounted, via a linear guiding arrangement, relative to the second gantry part such that the first gantry part is configured for translational movement relative to the second gantry part. The gantry has a tensioning apparatus for the flexible material sheet. The flexible material sheet has a covering section, wherein the covering section spans between the first gantry part and the second gantry part to cover a region of the gantry.

Abstract: One or more example embodiments of the present invention relates to a dose control method for a mobile x-ray detector of a medical x-ray system, comprising generating a data packet having a time stamp of a clock of the mobile x-ray detector and a dose value; sending the data packet via a radio link from the mobile x-ray detector to an x-ray generator; receiving the data packet from the x-ray generator; comparing the time stamp with a clock of the x-ray generator and calculating a latency; and extrapolating an overall dose from the dose value, the time stamp and the latency.

Abstract: One or more example embodiments relates to a computed tomography device, having a gantry with a first gantry part, a second gantry part and a third gantry part, wherein the first gantry part includes a rotor with a projection data acquisition system and via a first linear guide is movably mounted relative to the second gantry part such that a translation movement of the first gantry part relative to the second gantry part can be executed, in particular can be executed along the first linear guide.

Abstract: A method for generating a plurality of contrast-enhanced mammograms of an examination region is described. In the method a plurality of at least two different angular positions is defined for a contrast-enhanced tomosynthesis projection recording of an examination region. At least two low-energy tomosynthesis projection recordings of the examination region are subsequently generated, starting from the at least two different angular positions, in the presence of a contrast agent. Furthermore, at least two high-energy tomosynthesis projection recordings of the examination region are generated, starting from the at least two different angular positions, in the presence of a contrast agent. Finally, at least two contrast-enhanced mammograms are generated by subtracting a respective low-energy tomosynthesis projection recording from a respective high-energy tomosynthesis projection recording for a respective angular position. In addition, a mammography system is described.

Abstract: One or more example embodiments of the present invention relates to Computer-implemented method for providing a positioning score regarding a positioning of an examining region in an X-ray image, comprising receiving input data, the input data comprising an X-ray image including the examining region; applying a first trained function to the input data to detect at least one region of interest in the X-ray image and to generate a heatmap comprising the at least one region of interest; applying a second trained function to the input data and the heatmap to generate an individual score for each of the at least one region of interest and to generate a score-weighted heatmap based on the at least one region of interest and the individual scores; applying a third trained function to the input data and the score-weighted heatmap to generate a positioning score; and providing the positioning score.

Abstract: Techniques for optimizing protocol parameters of an MR protocol are provided. The techniques provides for a combined safety/operability test gradient-specific gradient factors Fx already determined prior to the performance of a test on an MR protocol and noise optimization of the MR protocol by means of a noise optimization method are used, with adjusted protocol parameters determined after the determination of the gradient-specific gradient factors Fx via a test performed on the MR protocol, in the creation of an adjusted MR protocol. As a result, valuable computing time for the combined testing and optimization is saved, since multiplication of the parameter space of both the methods can be omitted. A method for the combined testing and noise optimization is herewith greatly accelerated by the use of pre-prepared gradient information, e.g. in the form of gradient factors.

Abstract: A computer-implemented method for controlling a medical imaging installation, comprises: capturing patient-specific indication data via an interface unit; capturing at least one user-specific and/or facility-specific preference parameter via an interface unit; automatically determining, via an arithmetic unit, a control data record on the basis of the indication data and the preference parameter; and controlling, via the arithmetic unit, the medical imaging installation using the control data record.

Abstract: One or more example embodiments of the present invention relates to a method for generating a data processing pipeline for a cloud computing system, wherein the data processing pipeline comprises at least one software module for execution in at least one execution environment, wherein the execution environment has allocated execution environment information data. The method includes receiving at least one software module selection of a user, receiving at least one input data selection of a user, receiving at least one user planning input, checking a compliance with at least one of data protection requirements or technical requirements of the data processing pipeline, which is to be generated.