mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a computed tomography facility which has a rotatable portion with at least one X-ray detector and a portion which is fixed relative to the rotatable portion with a computing facility embodied to process detector data (3, 3a, 3b) recorded with the at least one X-ray detector, wherein the at least one X-ray detector is assigned a preparation facility for ascertaining detector data (3, 3a, 3b) to be transmitted to the computing facility via a communication path from raw data of the at least one X-ray detector and the communication path has a wireless communication link with a maximum transmission rate, wherein, during an imaging process, - a selection unit of the preparation facility divides the detector data (3, 3a, 3b) into a first data stream with first detector data that is sufficient for the reconstruction of an evaluable computed tomography image dataset after completion of the raw data acquisition with the at least one X-ray detector with a data transmission rate corresponding at most to the maximum transmission rate and a second data stream comprising the remaining detector data as second detector data, - the first data stream is transferred as a real-time transmission directly to the computing facility via the communication path and - the second detector data is temporarily stored in a temporary storage facility and, after completion of the raw data acquisition with the at least one X-ray detector and the transmission of the first data stream, is transmitted to the computing facility via the communication path - wherein the selection unit carries out the division according to at least one selection parameter which can be prespecified by a control facility of the computed tomography facility. - a selection unit of the preparation facility divides the detector data (3, 3a, 3b) into a first data stream with first detector data that is sufficient for the reconstruction of an evaluable computed tomography image dataset after completion of the raw data acquisition with the at least one X-ray detector with a data transmission rate corresponding at most to the maximum transmission rate and a second data stream comprising the remaining detector data as second detector data, - the first data stream is transferred as a real-time transmission directly to the computing facility via the communication path and - the second detector data is temporarily stored in a temporary storage facility and, after completion of the raw data acquisition with the at least one X-ray detector and the transmission of the first data stream, is transmitted to the computing facility via the communication path - wherein the selection unit carries out the division according to at least one selection parameter which can be prespecified by a control facility of the computed tomography facility.
A method of controlling a drying apparatus comprising a drum adapted to accommodate laundry including bedding, a motor that rotates the drum, and a blower fan and a heater that supply hot air into the drum, the method comprising: determining whether a current course is a bedding washing course; if it is determined that the current course is the bedding washing course, performing a bedding washing operation to remove contamination from the bedding using water and detergent; performing a drying operation using rotation of the drum and the hot air to dry the bedding that is wet after the bedding washing operation is performed, the drying operation comprising rotating the drum at a predetermined rotation speed, performing a bedding-dusting operation to remove foreign substances from the bedding using rotation of the drum and the hot air, the bedding-dusting operation being performed after the bedding washing operation is performed, wherein the bedding-dusting operation is performed after the drying operation is performed, and wherein the bedding-dusting operation controls an operation of the motor so as to change the rotation speed of the drum to be different at different predetermined intervals of time. determining whether a current course is a bedding washing course; if it is determined that the current course is the bedding washing course, performing a bedding washing operation to remove contamination from the bedding using water and detergent; performing a drying operation using rotation of the drum and the hot air to dry the bedding that is wet after the bedding washing operation is performed, the drying operation comprising rotating the drum at a predetermined rotation speed, performing a bedding-dusting operation to remove foreign substances from the bedding using rotation of the drum and the hot air, the bedding-dusting operation being performed after the bedding washing operation is performed, wherein the bedding-dusting operation is performed after the drying operation is performed, and wherein the bedding-dusting operation controls an operation of the motor so as to change the rotation speed of the drum to be different at different predetermined intervals of time.
A modular floating pier and integrated multipurpose generator of energy from renewable sources assembled by the union of single modules and comprising a platform, wherein the single modules comprise floating scooped waterwheels, and said floating scooped waterwheels are equipped with a transmission axle and filled with polyurethane foam or ecological cork, the waterwheels being placed under the platform by means of containment bars, characterized in that: one or more pairs of floating skates are applied to the sides of the pier by means of a tilting support structure fixed to the side of the platform through hinges with ball bearing, said floating skates being held together by a conjunction platform, wherein at the their bow two steel tie-rods provided with specific tensioners are installed, the steel tie-rods being fixed crosswise between anchor rings placed under the corners of the platform and anchor rings located at the bow on the tips of the floating skates.
A system for determining a property of an object (106, 606), the system comprising: an inducing arrangement (102, 602) for generating an impulse of fluid and for directing the impulse of fluid towards the object (106, 606) to induce a physical vibration of the object (106, 606), wherein the inducing arrangement (102, 602) does not contact the object (106, 606) when inducing the vibration of the object (106, 606); characterised in that the system comprises: a detector (104, 604) for detecting the physical vibration of the object (106, 606), wherein the detector (104, 604) does not contact the object (106, 606) when detecting the physical vibration of the object (106, 606); and a processor coupled to the detector (104, 604) for determining the property of the object (106, 606) based on at least the detected physical vibration; and in that the impulse of fluid has a duration of less than 3 milliseconds. an inducing arrangement (102, 602) for generating an impulse of fluid and for directing the impulse of fluid towards the object (106, 606) to induce a physical vibration of the object (106, 606), wherein the inducing arrangement (102, 602) does not contact the object (106, 606) when inducing the vibration of the object (106, 606); characterised in that the system comprises: a detector (104, 604) for detecting the physical vibration of the object (106, 606), wherein the detector (104, 604) does not contact the object (106, 606) when detecting the physical vibration of the object (106, 606); and a processor coupled to the detector (104, 604) for determining the property of the object (106, 606) based on at least the detected physical vibration; and in that the impulse of fluid has a duration of less than 3 milliseconds. a detector (104, 604) for detecting the physical vibration of the object (106, 606), wherein the detector (104, 604) does not contact the object (106, 606) when detecting the physical vibration of the object (106, 606); and a processor coupled to the detector (104, 604) for determining the property of the object (106, 606) based on at least the detected physical vibration; and in that the impulse of fluid has a duration of less than 3 milliseconds.
Awning with a plurality of parallel winding shafts (6a, 6b) arranged at a mutual spacing, wherein fabric segments (3a, 3b) are arranged on these at a mutual spacing to be able to be wound up and unwound and the fabric segments (3a, 3b) of different winding shafts (6a, 6b) are so arranged to be offset from one another that on unwinding from the winding shafts (6a, 6b) the individual fabric segments (3a, 3b) combine to form a closed awning fabric, characterised in that the first longitudinal-side ends of the winding shafts (6a, 6b) and the second longitudinal-side ends of the winding shafts (6a, 6b) respectively lie in a plane oriented perpendicularly to the longitudinal axes of the winding shafts (6a, 6b) and are mounted in a mount.
A method of manufacturing semiconductor wafers, the method comprising steps of: preparing an ingot having a first major surface and a second major surface in a back side of the first major surface, a peeling layer being formed in the ingot along the first major surface; and applying a load to the ingot from outside thereof with respect to a surface direction along the first major surface such that a moment with a supporting point and a working point which are at a first end of the ingot in the surface direction acts on the ingot, and/or applying a dynamic force to the ingot such that a tensile stress along an ingot thickness direction acts on an entire area of the ingot in the surface direction, the ingot thickness direction defining a thickness of the ingot connecting the first major surface and the second major surface and being parallel to a center axis of the ingot, thereby peeling a wafer precursor from the ingot, the wafer precursor being formed in a layer-shape between the first major surface and the peeling layer. preparing an ingot having a first major surface and a second major surface in a back side of the first major surface, a peeling layer being formed in the ingot along the first major surface; and applying a load to the ingot from outside thereof with respect to a surface direction along the first major surface such that a moment with a supporting point and a working point which are at a first end of the ingot in the surface direction acts on the ingot, and/or applying a dynamic force to the ingot such that a tensile stress along an ingot thickness direction acts on an entire area of the ingot in the surface direction, the ingot thickness direction defining a thickness of the ingot connecting the first major surface and the second major surface and being parallel to a center axis of the ingot, thereby peeling a wafer precursor from the ingot, the wafer precursor being formed in a layer-shape between the first major surface and the peeling layer.
Chain conveyor device comprising a conveyor chain having chain support rollers and a guide housing for guiding the conveyor chain during its operational advance, wherein the chain conveyor device has at least two running rails (26, 27), each with two raceways (28, 29 or 30, 31), wherein in each case the first raceway (28 or 30) of the two raceways (28, 29 or 30, 31) is in contact with the chain support rollers of the conveyor chain and wherein in each case the second raceway (29, 31) of the two raceways (28, 29 or 30, 31) can be made available in the event of the first raceway (28, 30) being used up by releasing the running rail (26, 27) and by turning the running rail (26, 28); wherein the guide housing has two side cheeks (14, 15), in particular two side cheeks which are mirror-symmetrical with respect to one another, wherein the side cheeks (14, 15) are connected to the running rails (26, 27); characterized in that a through-bolt is used as connection; wherein the running rails (26 and 27) are spaced apart from one another via a spacer sleeve, wherein the through-bolt is inserted through the inner channel of the spacer sleeve. wherein the guide housing has two side cheeks (14, 15), in particular two side cheeks which are mirror-symmetrical with respect to one another, wherein the side cheeks (14, 15) are connected to the running rails (26, 27); characterized in that a through-bolt is used as connection; wherein the running rails (26 and 27) are spaced apart from one another via a spacer sleeve, wherein the through-bolt is inserted through the inner channel of the spacer sleeve.
Methine dye of the formula where R 1 is hydrogen, halogen, COOH or COOR 7, R 2 is hydrogen, halogen, CF 3, or CN, R 3 is hydrogen, halogen, COOR 8 or CN, R 4 is straight-chain or branched C 1 -C 4 -alkyl or phenyl and R 5 and R 6 are each independently straight-chain or branched C 1 -C 4 -alkyl, R 7 is straight-chain or branched C 1 -C 4 -alkyl and R 8 is straight-chain or branched C 1 -C 4 -alkyl. R 1 is hydrogen, halogen, COOH or COOR 7, R 2 is hydrogen, halogen, CF 3, or CN, R 3 is hydrogen, halogen, COOR 8 or CN, R 4 is straight-chain or branched C 1 -C 4 -alkyl or phenyl and R 5 and R 6 are each independently straight-chain or branched C 1 -C 4 -alkyl, R 7 is straight-chain or branched C 1 -C 4 -alkyl and R 8 is straight-chain or branched C 1 -C 4 -alkyl.
A rotary power tool, comprising a motor, a pinion adapted to be rotated by the motor, planet gears meshed with the pinion, an internal gear meshed with the planet gears, and an output part adapted to be rotationally driven by the planet gears, the output part being disposed frontward of the planet gears, wherein, the internal gear comprises an internal gear part and an internal gear retaining part holding the internal gear part, and a bearing is disposed frontward of the internal gear part and is held at a front part of the internal gear retaining part, the internal gear part includes a first bearing retaining part, the bearing disposed frontward of the internal gear part is mounted in the first bearing retaining part, characterized in thad the internal gear part further includes a second bearing retaining part located rearward of the internal gear part, and a bearing is mounted in the second bearing retaining part. a motor, a pinion adapted to be rotated by the motor, planet gears meshed with the pinion, an internal gear meshed with the planet gears, and an output part adapted to be rotationally driven by the planet gears, the output part being disposed frontward of the planet gears, wherein, the internal gear comprises an internal gear part and an internal gear retaining part holding the internal gear part, and a bearing is disposed frontward of the internal gear part and is held at a front part of the internal gear retaining part, the internal gear part includes a first bearing retaining part, the bearing disposed frontward of the internal gear part is mounted in the first bearing retaining part, characterized in thad the internal gear part further includes a second bearing retaining part located rearward of the internal gear part, and a bearing is mounted in the second bearing retaining part.
A scroll machining method for forming a wall part configured on a scroll shape on a surface of a workpiece, in which a tool attached to a spindle is moved relative to the workpiece attached to a rotary table, comprising: a first scroll machining step of machining one of an outside wall surface and an inside wall surface of the wall part, in which the tool is moved relative to the workpiece from an outside of the workpiece toward a center part along a predetermined path while turning the rotary table in a first direction; and a second scroll machining step of machining the other of the outside wall surface and the inside wall surface of the wall part, in which the tool is moved relative to the workpiece from the center part of the workpiece toward the outside by returning along the predetermined path while turning the rotary table in a second direction opposite to the first direction. a first scroll machining step of machining one of an outside wall surface and an inside wall surface of the wall part, in which the tool is moved relative to the workpiece from an outside of the workpiece toward a center part along a predetermined path while turning the rotary table in a first direction; and a second scroll machining step of machining the other of the outside wall surface and the inside wall surface of the wall part, in which the tool is moved relative to the workpiece from the center part of the workpiece toward the outside by returning along the predetermined path while turning the rotary table in a second direction opposite to the first direction.
A coil spring comprising a plurality of interconnected coils having a length and a spring coil axis, the coil spring further comprising: a longitudinal component comprising two free ends and having one or more loops located within the interconnected coils having a length that is at least half the length of the plurality of interconnected coils and runs generally along the direction of the spring coil axis; characterized in that the longitudinal component is in contact and provides resistance against an interior outer surface of the interconnected coils only and resists in an outward radial direction, and the two free ends are separable to place the longitudinal component inside the interconnected coils. a longitudinal component comprising two free ends and having one or more loops located within the interconnected coils having a length that is at least half the length of the plurality of interconnected coils and runs generally along the direction of the spring coil axis; characterized in that the longitudinal component is in contact and provides resistance against an interior outer surface of the interconnected coils only and resists in an outward radial direction, and the two free ends are separable to place the longitudinal component inside the interconnected coils.
A delivery apparatus, comprising: a first shaft configured to rotate around a central longitudinal axis of the delivery apparatus to rotationally align a prosthetic valve mounted on the delivery apparatus with native anatomy at a target implantation site; a second shaft extending through the first shaft and having a distal end portion extending distally beyond a distal end portion of the first shaft; a nose cone mounted on the distal end portion of the second shaft; an inflatable balloon coupled to the distal end portion of the first shaft; wherein the balloon is wrapped and folded around the second shaft at a valve mounting portion of the delivery apparatus, wherein the balloon includes a plurality of overlapping pleats when in its deflated configuration and when a prosthetic valve is mounted on and radially compressed around the balloon. a first shaft configured to rotate around a central longitudinal axis of the delivery apparatus to rotationally align a prosthetic valve mounted on the delivery apparatus with native anatomy at a target implantation site; a second shaft extending through the first shaft and having a distal end portion extending distally beyond a distal end portion of the first shaft; a nose cone mounted on the distal end portion of the second shaft; an inflatable balloon coupled to the distal end portion of the first shaft; wherein the balloon is wrapped and folded around the second shaft at a valve mounting portion of the delivery apparatus, wherein the balloon includes a plurality of overlapping pleats when in its deflated configuration and when a prosthetic valve is mounted on and radially compressed around the balloon.
An aircraft comprising a fuselage, at least one room formed therein, and a fuel cell system, the fuel cell system comprising - at least one fuel cell with a first inlet for supplying a fuel, a second inlet for supplying air, an outlet for removing exhaust air, and a voltage output, - an electrically drivable hydraulic pump, which is integrated into a hydraulic network of the aircraft, which hydraulic pump is connected with the voltage output of the at least one fuel cell, - a controllable hydraulic energy converter with variable operating behavior, and - a control unit, wherein the hydraulic energy converter is set up to convert hydraulic power into heat in the hydraulic network, wherein the control unit is coupled with the at least one fuel cell, the electrically drivable hydraulic pump and the hydraulic energy converter, and set up to put the fuel cell followed by the hydraulic pump into operation, and to actuate the hydraulic energy converter in such a way as to achieve a sufficient electrical power output by the fuel cell, such that the fuel cell dispenses electrical power to the hydraulic pump to provide a prescribed volume flow of oxygen-depleted exhaust air to the outlet, and wherein the outlet is coupled with the at least one room, so as to inertize the at least one room or extinguish a fire developing therein. - at least one fuel cell with a first inlet for supplying a fuel, a second inlet for supplying air, an outlet for removing exhaust air, and a voltage output, - an electrically drivable hydraulic pump, which is integrated into a hydraulic network of the aircraft, which hydraulic pump is connected with the voltage output of the at least one fuel cell, - a controllable hydraulic energy converter with variable operating behavior, and - a control unit,
A method of manufacturing a supporting structure including: disposing a supported member between a pair of support walls opposed to each other, the support walls and the supported member having through shaft holes (42, 11) formed coaxially through the support walls and the supported member respectively; inserting a shaft member through the shaft holes (42, 11) in the disposed state, the shaft member having two ends each of which has a peripheral portion circumferentially divided into a plurality of swaging portions (31, 32); and swaging the swaging portions (31, 32) sequentially such that regions (33, 34) of the shaft member corresponding to the respective swaging portions (31, 32) are fixed in the shaft holes of the respective support walls, characterized in that the support walls have respective hardly-deformable portions and respective easily-deformable portions, and a swage load applied to the swaging portions located opposite the hardly-deformable portions is larger than a swage load applied to the swaging portions located opposite the easily-deformable portions, respectively. disposing a supported member between a pair of support walls opposed to each other, the support walls and the supported member having through shaft holes (42, 11) formed coaxially through the support walls and the supported member respectively; inserting a shaft member through the shaft holes (42, 11) in the disposed state, the shaft member having two ends each of which has a peripheral portion circumferentially divided into a plurality of swaging portions (31, 32); and swaging the swaging portions (31, 32) sequentially such that regions (33, 34) of the shaft member corresponding to the respective swaging portions (31, 32) are fixed in the shaft holes of the respective support walls, characterized in that the support walls have respective hardly-deformable portions and respective easily-deformable portions, and a swage load applied to the swaging portions located opposite the hardly-deformable portions is larger than a swage load applied to the swaging portions located opposite the easily-deformable portions, respectively.