Abstract: A medical device has a base body on a delimiting surface of a room. The medical device furthermore has an additional body supported pivotably about a pivot axis on the base body. Thus, by pivoting the additional body about the pivot axis, it is possible to set a rotational position of the additional body relative to the base body. The additional body directly or indirectly carries a radiation source for emitting ionizing radiation. A data transmission element is on each of the base body and on the additional body in each case. The data transmission elements are arranged flush on the base body and on the additional body with respect to the pivot axis and are spaced apart from one another, seen in the direction of the pivot axis.

Abstract: A magnetic resonance apparatus having a magnet unit, a patient-receiving region that is at least in part surrounded by the magnet unit and is designed to receive a patient for a magnetic resonance examination, and a patient communication unit that includes a display unit having an e-paper display arranged within the patient-receiving region.

Abstract: A method for localizing an object in the surroundings of an apparatus generating a stray magnetic field, wherein the object has a sensor arrangement including at least one magnetic field sensor, the method comprising: ascertaining at least one item of object information based on (i) stray-field information describing the spatial profile of the stray magnetic field at least within a region and (ii) at least one measured value measured with the sensor arrangement describing a location-dependent property of the stray magnetic field, the at least one item of object information describing at least one of the position or orientation of the object in the region.

Abstract: A command communication facility is described. The command communication facility includes a sensor unit for detecting a movement of an operator; a fixing unit for securing the sensor unit to the operator; an evaluation unit for evaluating the detected movement of the operator and for identifying a command based upon the detected movement; and a command communication unit for transmitting a control command to a medical facility that is to be operated based upon the identified command. A command communication system is also described. An operating system is also described. A command communication method is also described.

Abstract: A measurement apparatus (1) comprising a high frequency measurement unit (2) adapted to measure high frequency parameters (HFP) of a device under test (DUT) connected to ports of said measurement apparatus (1) and a multimeter unit (3) adapted to measure DC characteristics parameters (DCP) of said device under test (DUT) connected via control signal lines (CL) to a control bus interface (6) of said measurement apparatus (1).

Abstract: A non-transitory computer-readable storage medium has computer-readable data portions stored thereon, the data portions including configuration data items relating to configurable parameters of a frequency converter.

Abstract: A non-transitory computer-readable storage medium has computer-readable data portions stored thereon, the data portions including configuration data items relating to configurable parameters of a frequency converter.

Abstract: A measurement apparatus (1) comprising a high frequency measurement unit (2) adapted to measure high frequency parameters (HFP) of a device under test (DUT) connected to ports of said measurement apparatus (1) and a multimeter unit (3) adapted to measure DC characteristics parameters (DCP) of said device under test (DUT) connected via control signal lines (CL) to a control bus interface (6) of said measurement apparatus (1).

Abstract: The invention relates to a method and device for measuring the location of a particle beam (10) present in packets in a linear accelerator comprising a hollow chamber structure (4) in which an electromagnetic wave oscillating at a base frequency (f0) is generated in order to accelerate the particles, wherein an electrical measurement signal (M) generated by the particle beam (10) by means of electromagnetic interaction with the measurement recorder (16) is recorded by at least one measurement recorder (16) disposed in the hollow chamber structure (4), said signal being a function of the distance between the measurement recorder (16) and the particle beam (10). According to the invention, the measurement signal (M) is analyzed in a frequency range different from the base frequency (f0) and higher natural frequencies of the hollow chamber structure (4), comprising a whole multiple of the base frequency (f0).