mhurhangee/ep-ind-claims huggingface dataset:
Method for recording an image data set with an x-ray detector comprising a detection surface with a plurality of detector elements (21, 22) and an x-ray source with a focal point, comprising the following steps: a. first capturing a first recording with a first position of the focal point, b. moving the focal point from the first position to a second position of the focal point, which differs from the first position, by a distance (d), c. second capturing a second recording with the second position, d. combining the first recording and the second recording to form the image data set, characterised in that the x-ray detector is divided into detector segments with in each case a number of detector elements (21, 22) and joints with a joint width are arranged between the detector segments, and the distance (d) in the projection onto the detection surface is moved by at least one joint width. a. first capturing a first recording with a first position of the focal point, b. moving the focal point from the first position to a second position of the focal point, which differs from the first position, by a distance (d), c. second capturing a second recording with the second position, d. combining the first recording and the second recording to form the image data set,
A method of monitoring a heating arrangement, the method comprising: applying a first polarity DC voltage to a heater of the heating arrangement; detecting a first polarity heating leakage current; applying a second polarity DC voltage to the heater of the heating arrangement; detecting a second polarity heating leakage current; determining health of the heating arrangement via the first polarity heating leakage current and the second polarity heating leakage current; generating, via a polarity control circuit, a heater voltage polarity signal based on the first polarity heating leakage current and the second polarity heating leakage current; and applying to the heater, via a polarity selection circuit and based on the heater voltage polarity signal, either the first polarity heater DC voltage or the second polarity DC heater voltage, thereby extending the useful life of the heating arrangement. applying a first polarity DC voltage to a heater of the heating arrangement; detecting a first polarity heating leakage current; applying a second polarity DC voltage to the heater of the heating arrangement; detecting a second polarity heating leakage current; determining health of the heating arrangement via the first polarity heating leakage current and the second polarity heating leakage current; generating, via a polarity control circuit, a heater voltage polarity signal based on the first polarity heating leakage current and the second polarity heating leakage current; and applying to the heater, via a polarity selection circuit and based on the heater voltage polarity signal, either the first polarity heater DC voltage or the second polarity DC heater voltage, thereby extending the useful life of the heating arrangement.
Method for planning support for an interventional procedure for placing an auxiliary element in a hollow organ by means of a guide facility, which is stiffer than the hollow organ, with the method steps - acquisition of a 3D image dataset, which maps an uninfluenced course of the hollow organ, from a data memory, - creation of a model of the hollow organ in its uninfluenced course by segmentation of the 3D image dataset, - simulation of a deformation of the hollow organ on the basis of a predetermined or determined course of the guide facility in the hollow organ through a deformation of the model (23, 25), and - automatic determination and specification of a spatially resolved compression and/or stretching of the hollow organ in its direction of longitudinal extent in its deformed course in accordance with the deformed model compared to the uninfluenced course of the hollow organ. - acquisition of a 3D image dataset, which maps an uninfluenced course of the hollow organ, from a data memory, - creation of a model of the hollow organ in its uninfluenced course by segmentation of the 3D image dataset, - simulation of a deformation of the hollow organ on the basis of a predetermined or determined course of the guide facility in the hollow organ through a deformation of the model (23, 25), and - automatic determination and specification of a spatially resolved compression and/or stretching of the hollow organ in its direction of longitudinal extent in its deformed course in accordance with the deformed model compared to the uninfluenced course of the hollow organ.
Transport device, comprising: - one or more module units; and - a driverless transport vehicle for receiving the one or more module units and for transporting the one or more received module units to a machine tool set up on a base surface; wherein the one or more received module units each have a machine tool accessory device which can be used with the machine tool, and wherein the driverless transport vehicle can be moved on the base surface in order to position the one or more received module units relative to the machine tool, in particular within a region in front of and/or next to the machine tool and/or in front of and/or next to a working space of the machine tool, the driverless transport vehicle is configured to be moved freely on the base surface independently of a type of rail system for guiding the driverless transport vehicle, and the transport device comprises, as received module unit, a chip collection module unit with a chip collection device and with a tilting mechanism and/or a chip conveying module unit with a chip conveying device, wherein the chip collection device is configured to collect chips on the machine tool or in the working space of the machine tool and the chip collection module unit is further configured to discharge again chips collected via the tilting mechanism, and the chip conveying module unit is configured to discharge chips from the machine tool or out of the working space of the machine tool. - one or more module units; and - a driverless transport vehicle for receiving the one or more module units and for transporting the one or more received module units to a machine tool set up on a base surface; wherein the one or more received module units each have a machine tool accessory device which can be used with the machine tool, and wherein the driverless transport vehicle can be moved on the base surface in order to position the one or more received module units relative to the machine tool, in particular within a region in front of and/or next to the machine tool and/or in front of and/or next to a working space of the machine tool, the driverless transport vehicle is configured to be moved freely on the base surface independently of a type of rail system for guiding the driverless transport vehicle, and the transport device comprises, as received module unit, a chip collection module unit with a chip collection device and with a tilting mechanism and/or a chip conveying module unit with a chip conveying device, wherein the chip collection device is configured to collect chips on the machine tool or in the working space of the machine tool and the chip collection module unit is further configured to discharge again chips collected via the tilting mechanism, and the chip conveying module unit is configured to discharge chips from the machine tool or out of the working space of the machine tool.
Dishwasher comprising a washing tub and a basket (20, 30, 40; 60) for arrangement within the washing tub, the basket comprising a plurality of holders (22; 32, 34) for accommodating articles to be cleaned, the basket (20, 30, 40; 60) is designed such that it can be arranged within the washing tub in at least two different orientations by rotating the basket (20, 30, 40; 60) about an axis which extends through the center of the basket and vertical to the floor of the basket, characterized in that the arrangement of said plurality of holders (22; 32, 34) is different in different orientations of the basket, wherein the basket (20, 30, 40; 60) comprises at least two regions (A, B, C; 62, 64, 66, 68) for accommodation of articles to be cleaned, wherein the geometry of the basket in a first region is different from the geometry of the basket in at least one second region and wherein said regions differ from each other in at least one of: - the shape of holders provided in said regions; - the mutual distance of holders provided in said regions; - the density of holders provided in said regions; and - the shape of the basket floor in said regions. - the shape of holders provided in said regions; - the mutual distance of holders provided in said regions; - the density of holders provided in said regions; and - the shape of the basket floor in said regions.
Shock absorber for a high-voltage device, the shock absorber comprising - a rod element having an external thread running around a longitudinal axis of the rod element, - two holders (7, 8) which support the rod element, - a rotational element which runs in the manner of a ring around the rod element and has an internal thread engaging into the external thread, so that translations of the rod element along the longitudinal axis cause rotations of the rotational element about the longitudinal axis, and - a carrier element which is mounted on the rotational element in such a way that rotations of the rotational element about the longitudinal axis decouple from the carrier element, characterized in that at least one resetting element (13, 14) is included which, in the event of a deflection of the rotational element out of an equilibrium position relative to the rod element along the longitudinal axis, exerts a resetting force counteracting the deflection on the rotational element, and wherein each resetting element (13, 14) is designed as a helical spring running around a portion of the rod element, the helix axis of the helical spring running parallel to the longitudinal axis of the rod element. - a rod element having an external thread running around a longitudinal axis of the rod element, - two holders (7, 8) which support the rod element, - a rotational element which runs in the manner of a ring around the rod element and has an internal thread engaging into the external thread, so that translations of the rod element along the longitudinal axis cause rotations of the rotational element about the longitudinal axis, and - a carrier element which is mounted on the rotational element in such a way that rotations of the rotational element about the longitudinal axis decouple from the carrier element,
A system configured to be implanted in a patient's body to monitor and/or treat the patient, the system comprising: at least one sensor (17, 27, 28, 34, 35, 37) configured to provide sensor data that corresponds to one of blood flow, blood volume, or a blood pressure within or near the patient's heart; further characterized by: at least one adjustable component (36, 41) designed to cause blood to flow in a direction opposite to the normal direction (regurgitation) within a region (92, 94) of the patient's heart, wherein the at least one adjustable component (36, 41) is configured to be placed percutaneously and expanded across the tricuspid valve to affect the flow of blood across the at least one adjustable component; and a controller configured for adjusting the function of the at least one adjustable component based at least in part on sensor data from the at least one sensor. at least one sensor (17, 27, 28, 34, 35, 37) configured to provide sensor data that corresponds to one of blood flow, blood volume, or a blood pressure within or near the patient's heart; further characterized by: at least one adjustable component (36, 41) designed to cause blood to flow in a direction opposite to the normal direction (regurgitation) within a region (92, 94) of the patient's heart, wherein the at least one adjustable component (36, 41) is configured to be placed percutaneously and expanded across the tricuspid valve to affect the flow of blood across the at least one adjustable component; and a controller configured for adjusting the function of the at least one adjustable component based at least in part on sensor data from the at least one sensor. at least one adjustable component (36, 41) designed to cause blood to flow in a direction opposite to the normal direction (regurgitation) within a region (92, 94) of the patient's heart, wherein the at least one adjustable component (36, 41) is configured to be placed percutaneously and expanded across the tricuspid valve to affect the flow of blood across the at least one adjustable component; and a controller configured for adjusting the function of the at least one adjustable component based at least in part on sensor data from the at least one sensor.
A method for manufacturing a wig by tying a plurality of hair to a wig base, comprising: a first step for passing a hook portion of a hair-implanting needle from a front surface of the wig base to a back surface of the wig base and passing the hook portion back onto the front surface at another position; a second step for folding a hair and catching a loop formed at the turning position of the hair by the hook portion; a third step for pulling the hair-implanting needle, with the loop of the hair kept caught by the hook portion, back onto the front surface of the wig base; a fourth step for catching one end of the hair with the hook portion; a fifth step for pulling the hair-implanting needle out of the loop with the one end of the hair caught by the hook portion; a sixth step for forming a knot of the hair by holding one end of the hair while pulling another end of the hair; and a seventh step for moving the knot of the hair to the back surface of the wig base by pulling the other end of the hair while holding the one end of the hair, and while settling a bridging portion linked to the knot of the hair on the front surface of the wig base. a first step for passing a hook portion of a hair-implanting needle from a front surface of the wig base to a back surface of the wig base and passing the hook portion back onto the front surface at another position; a second step for folding a hair and catching a loop formed at the turning position of the hair by the hook portion; a third step for pulling the hair-implanting needle, with the loop of the hair kept caught by the hook portion, back onto the front surface of the wig base; a fourth step for catching one end of the hair with the hook portion; a fifth step for pulling the hair-implanting needle out of the loop with the one end of the hair caught by the hook portion; a sixth step for forming a knot of the hair by holding one end of the hair while pulling another end of the hair; and a seventh step for moving the knot of the hair to the back surface of the wig base by pulling the other end of the hair while holding the one end of the hair, and while settling a bridging portion linked to the knot of the hair on the front surface of the wig base.
Food forming drum comprising a multitude of rows of product cavities, each row comprising one or a multitude of product cavities (2-I - V), wherein the product cavities are provided as one or more at least partially porous members made from a porous material with interconnecting pores, wherein the food forming drum comprises an inner member, comprising an inner cylinder and at least one rib between the cylinder and the porous members, characterized in, that the rib is connected to the cylinder by a form- and/or force-fit or by an adhesive bond.
A method of fabricating a nozzle comprising the steps of: (a) casting and curing, or extruding, a first material in order to form a first microstructured pattern in the first material, the first microstructured pattern comprising a plurality of discrete microstructures; (b) deforming a plurality of the discrete microstructures, resulting in a plurality of deformed discrete microstructures; (c) replicating the first microstructured pattern, including the plurality of deformed discrete microstructures, in a second material different than the first material to make a replicated structure; (d) planarizing the second material of the replicated structure to expose tops of the microstructures in the plurality of microstructures in the first microstructured pattern; and (e) removing the first material resulting in a nozzle having a plurality of holes in the second material and corresponding to the plurality of microstructures in the first microstructured pattern. (a) casting and curing, or extruding, a first material in order to form a first microstructured pattern in the first material, the first microstructured pattern comprising a plurality of discrete microstructures; (b) deforming a plurality of the discrete microstructures, resulting in a plurality of deformed discrete microstructures; (c) replicating the first microstructured pattern, including the plurality of deformed discrete microstructures, in a second material different than the first material to make a replicated structure; (d) planarizing the second material of the replicated structure to expose tops of the microstructures in the plurality of microstructures in the first microstructured pattern; and (e) removing the first material resulting in a nozzle having a plurality of holes in the second material and corresponding to the plurality of microstructures in the first microstructured pattern.
A method of mounting an aircraft wheel drive member on an undercarriage having an axle that carries the wheel and that is provided with a torque plate having an outside face against which a brake can be fitted, the method comprising the steps of fitting a support (10; 110; 210) that bears against an inside face of the torque plate opposite from its outside face, and of fitting the drive member on the support.
Measuring device for measuring exhaust gas, in particular for measuring exhaust gas from internal combustion engines, comprising a measurement chamber which is connected to an exhaust gas sensor via a measurement-gas supply line and is connected to a pump via a suction line, and comprising a switchover element which is arranged in the measurement-gas supply line and by means of which unpolluted ambient air can flow through the measurement chamber in standby mode, characterised in that a dilution line connected in parallel with the measurement chamber is provided between the ambient-air supply line, which is upstream of the switchover element, and the suction line, which is upstream of the pump.
An image display apparatus comprising: a plurality of laser beam source portions (2, 2a-2c) configured to output laser beams of a plurality of color components different from each other; a synthesized beam generation portion (3, 4) configured to synthesize the laser beams of the plurality of color components; and a control portion configured to control a driving current of each of respective outputs of the laser beam source portions (2,2a-2c) on the basis of video data transmitted from an image processing portion; wherein the control portion includes an acquisition portion configured to measure a variation in the output of each of the laser beam source portions (2, 2a-2c) driven with a measurement driving current having a prescribed measurement pattern and acquiring variation characteristics employed for estimation of a variation in a threshold current on the basis of the variation measured in the respective output, and a correction portion estimating a variation in a threshold current of each of the laser beam source portions on the basis of the previously acquired variation characteristics by the acquisition portion and the control portion is further configured to correct the driving current on the basis of the estimated variation in the threshold current. a plurality of laser beam source portions (2, 2a-2c) configured to output laser beams of a plurality of color components different from each other; a synthesized beam generation portion (3, 4) configured to synthesize the laser beams of the plurality of color components; and a control portion configured to control a driving current of each of respective outputs of the laser beam source portions (2,2a-2c) on the basis of video data transmitted from an image processing portion; wherein the control portion includes an acquisition portion configured to measure a variation in the output of each of the laser beam source portions (2, 2a-2c) driven with a measurement driving current having a prescribed measurement pattern and acquiring variation characteristics employed for estimation of a variation in a threshold current on the basis of the variation measured in the respective output, and a correction portion estimating a variation in a threshold current of each of the laser beam source portions on the basis of the previously acquired variation characteristics by the acquisition portion and the control portion is further configured to correct the driving current on the basis of the estimated variation in the threshold current.
A device for the cleaning and maintenance of the inner walls of box bodies and containers, which are cleaned by means of at least one rotatably driven cleaning brush (30, 31, 32, 33), wherein the device is arranged on a telescope-like, extendable sliding arm (), characterized in that the device is formed from a geometric metal cross, which contains in its centre point a connecting rod, the axis of which points in Z-direction and that respectively on the free ends (22, 23, 24, 25) of the vertical and horizontal metal arms (14, 15, 16, 17) a drive motor (26, 27, 28, 29) and at least one cleaning brush (30, 31, 32, 33) are arranged, wherein a cleaning brush (30, 31, 32, 33) is driven by means of a drive motor (26, 27, 28, 29).
Current converter circuit arrangement for a high electric current, in particular for industrial resistance welding, having a component carrier and having a first and second controllable switching means (11, 12, 25) for high current having in each case a separate control connection, wherein the switching means (11, 12, 25) are embedded at least partly, preferably completely, into the component carrier, wherein the component carrier is arranged between an electrically conductive first current conducting plate and an electrically conductive second current conducting plate (23a, 23b) and substantially in parallel with the two current conducting plates (22, 23a, 23b), wherein the two switching means (11, 12, 25) are interconnected with one another to form a current converter circuit and are connected to the current conducting plates (22, 23a, 23b) in such a way that an output of the current converter circuit is realized by means of the first or the second current conducting plate (22, 23a, 23b) and an input of the current converter circuit is realized by means of the second or the first current conducting plate (23a, 23b, 22), wherein the component carrier is an electrically insulating material or printed circuit board having conductor tracks as conductive connections for the switching means (11, 12, 25), characterized in that the first and second current conducting plate (22, 23a, 23b),together with an electrically non-conductive connecting means in the edge region thereof, form a housing in the manner of a disc cell for the current converter circuit arrangement.