Abstract: Processes for preparation of ipconazole, processes for preparation of a compound of formula (V) and processes for preparation of a compound of formula (VI), which is a key intermediate useful for preparation of ipconazole are disclosed.

Abstract: A production method for test X-ray includes preparation (S10) of first CT data (B) of an inspection object, second CT data (BM) for metal portions of the inspection object, and third CT data (TM) for metal portions of a target object, transformation (S20) of the first, second, and third CT data (B, BM, TM) from the image space (BR) into corresponding first sinogram data (SB), second sinogram data (SBM), and third sinogram data (STM) in the radon space (RR), calculation (S30, S40) of the artifact sinogram data (SA), back-transformation (S50) of the artifact sinogram data (SA) from the radon space (RR) into the image space (BR) in CT artifact data (A) for the artifacts that are to be inserted, and insertion of the CT artifact data (A) into the first CT data (B).

Abstract: A handling device comprises a gripping unit which is movable in three dimensions and which is specified for receiving the stack of products disposed in a receiving region, for moving the stack, and for depositing the stack in a depositing region. The gripping unit comprises at least one upper holding element for holding down an upper side of the received stack, and at least one lower holding element for supporting a lower side, opposite the upper side, of the received stack.

Abstract: A handling device comprises a gripping unit which is movable in three dimensions and which is specified for receiving the stack of products disposed in a receiving region, for moving the stack, and for depositing the stack in a depositing region. The gripping unit comprises at least one upper holding element for holding down an upper side of the received stack, and at least one lower holding element for supporting a lower side, opposite the upper side, of the received stack.

Abstract: A production method for test X-ray includes preparation (S10) of first CT data (B) of an inspection object, second CT data (BM) for metal portions of the inspection object, and third CT data (TM) for metal portions of a target object, transformation (S20) of the first, second, and third CT data (B, BM, TM) from the image space (BR) into corresponding first sinogram data (SB), second sinogram data (SBM), and third sinogram data (STM) in the radon space (RR), calculation (S30, S40) of the artifact sinogram data (SA), back-transformation (S50) of the artifact sinogram data (SA) from the radon space (RR) into the image space (BR) in CT artifact data (A) for the artifacts that are to be inserted, and insertion of the CT artifact data (A) into the first CT data (B).

Abstract: This disclosure relates to methods for non-destructively inspecting an object, wherein electromagnetic radiation is passed through the object and intensity values of unabsorbed beams are measured and evaluated.

Abstract: The invention relates to a method for non-destructively inspecting an object (104), wherein electromagnetic radiation (113, 123, 133) is passed through the object (104) and intensity values of unabsorbed beams are measured and evaluated, the method comprising the following steps: generating a three-dimensional data set (300) in which a first material quantity value corresponding to a first material property of the object (104) is associated in each case with individual spatial elements (301) of the object (104) by means of a computed tomography method; determining an inspection space (310), in the three-dimensional data set (300) representing the object (104), which has spatial elements (301) whose first material quantity value is in a predetermined value range; deriving values, based on the three-dimensional data set (300), which in each case correspond to a spatial geometric quantity of the inspection space (310) in a predetermined projection direction (PR1, PR2); generating a two-dimensional data set (400)

Abstract: A method of analyzing a target item utilizing multiple scanners is disclosed. The method can include providing an item comprising a material. The method can further include acquiring a first set of scan data associated with the item using a first scanner, and acquiring a second set of scan data associated with the item using a second scanner. The method can further include generating a first set of transform data from the first set of scan data, analyzing the first set of transform data to identify a subset of the first set of transform data associated with a first region, and analyzing the second set of scan data to identify a subset of the second set of scan data associated with a second region.

Abstract: A system may include a calibration module that measures a range of limb and trunk movements made by a human subject during a calibration phase of the system. A customization module may customize pre-determined performance criteria based on the measured range of limb and trunk movements. An activity task presentation module may present an activity task to the human subject for performance during an activity phase. An activity assessment module may assess the human subject's performance of that activity task during the activity phase based on the pre-determined performance criteria.