Abstract: A computer-implemented method for detecting artefacts in a medical image comprises obtaining input data associated with acquiring at least one image by a medical imaging system, applying a machine-learning model to the input data, whereby information about an image artefact in the image is determined, and providing the information about the image artefact, such as information about the presence and possible root-causes of the image artefact.

Abstract: A method and an associated arrangement for supporting a setting of a medical system are provided. The method includes entry of first requirement specification data relevant to a medical examination, transmission of the first requirement specification data to a central data analysis system, and acquisition of the first requirement specification data by the central data analysis system. The method also includes analysis of the first requirement specification data by a comparison with stored second requirement specification data. The method includes selection of best-fit first configuration data for setting the medical system based on the analysis, transmission of the first configuration data to the medical system, and display of the first configuration data on the medical system.

Abstract: The invention makes use of human perception to derive potential faults of at least one component of the technical installation. A sensor device may be employed for acquiring at least one human physiological reaction whereby said human physiological reaction may include at least one of neuritic currents and changes in neuritic currents and blood pressure and changes in blood pressure and pulse rate and changes in pulse rate and pulse strength and changes in pulse strength and galvanic skin reflex and changes in galvanic skin reflex and breathing patterns.

Abstract: A method for carrying out comparison between the as-built state of an industrial plant and the associated CAD planning model, characterized in that the comparison is achieved by superimposition of unreliable components of the CAD model and digital images on the plant, whereby the superimposition is computed without any particular instrumentation within the plant, but only based on selected reliable components from the CAD model, whose physical installations are visible in the images.

Abstract: A system and method relate to generating overall and/or relative serviceability scores for products. The system and method may include (1) adjusting a serviceability scoring model according to a product specific service model and (2) rating serviceability requirements. The adjustment of the scoring model may include (a) weighting serviceability aspects according to the product specific service strategy and/or (b) correlating the weighted serviceability aspects to key performance indicators to generate weighted key performance indicators. The rating of the serviceability requirements may include correlating the weighted key performance indicators to selected and/or weighted serviceability requirements. Each serviceability requirement selected may have a specified level of serviceability to be realized. An overall serviceability score may then be calculated. The score may be adjusted in relation to preceding or competing products.

Abstract: A specific failure occurring during operation of a technical installation is detected by acquiring an acoustic and/or optical signal emitted by a device assigned to at least one component of the technical installation whereby the device is being activated mechanically.

Abstract: Method for carrying out comparison between the as-built state of an industrial plant and the associated CAD planning model, characterized in that the comparison is achieved by superimposition of unreliable components of the CAD model (see FIG. 1, 2b) and digital images of the plant (3), whereby the superimposition is computed without any particular instrumentation within the plant, but only based on selected reliable components (2a) from the CAD model (2), whose physical installations are visible in the images (3).

Abstract: The invention concerns a method and a corresponding device for monitoring a technical installation. The invention is characterized in that a dynamic model of at least one system of the technical installation is enhanced by means of an artificial intelligence based algorithm during the operation of said system.

Abstract: The invention concerns a method and a corresponding device for monitoring a technical installation. The invention is characterized in that a dynamic model of at least one system of the technical installation is enhanced by means of an artificial intelligence based algorithm during the operation of said system.

Abstract: According to the invention, a temperature pattern representing a current operating situation is derived from and classified by means of measured temperature values and/or other temperature information related to the technical installation.

Abstract: A method for three-dimensional (3D) image reconstruction includes the steps of registering an orthographic image of a scene, combining a photogrammetric image and a technical drawing of the scene to form a co-registered orthographic and perspective (COP) image, and reconstructing a 3D image from the COP image.

Abstract: The invention makes use of human perception to derive potential faults of at least one component of the technical installation. A sensor device may be employed for acquiring at least one human physiological reaction whereby said human physiological reaction may include at least one of neuritic currents and changes in neuritic currents and blood pressure and changes in blood pressure and pulse rate and changes in pulse rate and pulse strength and changes in pulse strength and galvanic skin reflex and changes in galvanic skin reflex and breathing patterns.

Abstract: A specific failure occurring during operation of a technical installation is detected by acquiring an acoustic and/or optical signal emitted by a device assigned to at least one component of the technical installation whereby the device is being activated mechanically.

Abstract: A method for three-dimensional (3D) image reconstruction includes the steps of registering an orthographic image of a scene, combining a photogrammetric image and a technical drawing of the scene to form a co-registered orthographic and perspective (COP) image, and reconstructing a 3D image from the COP image.