mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a three-dimensional shaped object by means of layer-by-layer material application, wherein geometric data for the shaped object, a carrier part having a base surface for holding the three-dimensional shaped object, and at least one flowable first material and at least one flowable second material that is different therefrom (6, 6', 8) are provided, wherein material portions of the at least one flowable first material (6, 6') are applied in accordance with the geometric data to the base surface and/or to a solidified material layer of the three-dimensional shaped object located thereon using at least one nozzle in order to generate at least one material layer (14A, 14B, 14') of the three-dimensional shaped object, and wherein the at least one material layer (14A, 14B, 14') consisting of the at least one flowable first material (6, 6') and at least one further material layer (21A, 21B, 21') consisting of the at least one flowable second material are solidified, wherein at least one transfer body is provided, wherein a surface region of the transfer body is coated with a layer of the flowable second material and this layer is brought into contact with the surface of the uppermost solidified material layer of the three-dimensional shaped object that is remote from the base surface such that the flowable second material is transferred from the transfer body to the surface of the uppermost solidified material layer (14A, 14B, 14') of the three-dimensional shaped object consisting of the at least one first material (6, 6') and generates thereon the further material layer (21A, 21B, 21'), the structure of which corresponds at least in some regions to that of the uppermost solidified material layer (14A, 14B, 14') of the three-dimensional shaped object consisting of the at least one first material (6, 6'), wherein the surface of the further material layer (21A, 21B, 21') is arranged at a constant distance from the base surface, and wherein the further material layer (21A, 21B, 21') is solidified. the surface of the further material layer (21A, 21B, 21') is arranged at a constant distance from the base surface, and wherein the further material layer (21A, 21B, 21') is solidified.
A method of fragmenting DNA, the method comprising, incubating a gel 5 plug which comprises the DNA with a combination of a nuclease and an oligonucleotide not covalently bound to the nuclease, said nuclease and said oligonucleotide combination imparting a binding affinity and selectivity to pre-defined sites in the DNA so as to yield a DNA fragment-of-interest, to thereby fragment the DNA. 10
A galenic form comprising particles capable of specifically adsorbing undesirable molecules present in the digestive tract, said particles comprising (i) a cationic polymer chosen that is chitosan, associated with (ii) at least one metal ion chosen from copper, zinc or a mixture thereof, said cationic polymer and said at least one metal ion forming a complex.
A drape unit configured to be disposed between a medical robot holding a surgical instrument and the surgical instrument to isolate the surgical instrument and the medical robot from each other, the drape unit transmitting power in a forward/backward direction from a power transmission part of the medical robot to a movable part provided in the surgical instrument, the drape unit comprising: a movable intervening part that receives the power from the power transmission part; and a fixed intervening part that is detachably attached to the medical robot, the fixed intervening part having a through-hole through which a part of the movable intervening part is inserted, the fixed intervening part extending along a plane, the trough-hole defining an axis in said plane, said axis defining the backward/forward direction, wherein the movable intervening part is configured to move in the backward/forward direction along said axis in said plane, the fixed intervening part having a housing portion (251, 252) that covers a part of the movable intervening part as viewed in a penetrating direction of the through-hole when the movable intervening part moves to an end portion in the forward/backward direction, wherein the movable intervening part has: a first movable portion that receives the power from the power transmission part; a second movable portion that transmits the power to the movable part; and a third movable portion (13, 131, 132) that extends from the second movable portion in the forward/backward direction, and the third movable portion (13, 131, 132) has a cover area that is housed in the housing portion (251, 252). a movable intervening part that receives the power from the power transmission part; and a fixed intervening part that is detachably attached to the medical robot, the fixed intervening part having a through-hole through which a part of the movable intervening part is inserted, the fixed intervening part extending along a plane, the trough-hole defining an axis in said plane, said axis defining the backward/forward direction, wherein the movable intervening part is configured to move in the backward/forward direction along said axis in said plane, the fixed intervening part having a housing portion (251, 252) that covers a part of the movable intervening part as viewed in a penetrating direction of the through-hole when the movable intervening part moves to an end portion in the forward/backward direction, wherein the movable intervening part has: a first movable portion that receives the power from the power transmission part; a second movable portion that transmits the power to the movable part; and a third movable portion (13, 131, 132) that extends from the second movable portion in the forward/backward direction, and a first movable portion that receives the power from the power transmission part; a second movable portion that transmits the power to the movable part; and a third movable portion (13, 131, 132) that extends from the second movable portion in the forward/backward direction, and the third movable portion (13, 131, 132) has a cover area that is housed in the housing portion (251, 252).
An electronic component mounting device, comprising: - a conveyor for conveying a circuit board, - feeders for feeding electronic components, - a pick-up device for picking up electronic components from the feeders and mounting the electronic components to the circuit board, and - a movable frame to which the feeders are detachably attached, said movable frame being movable between a first position at which the pick-up device is intended to pick up electronic components from the feeders and a second position at which the feeders are intended to be attached to and detached from the movable frame, characterised in that the electronic component mounting device comprises a camera for capturing one or more images of the movable frame at the first position and the second position, and analysing means for analysing the one or more images using pattern recognition techniques to determine the coordinates of the first position and the second position and for calculating an offset between the first position and the second position based on the coordinates of the first and second positions, wherein the camera is configured to capture one or more images of the pick-up device at a third position, at which position the pick-up device can pick up an electronic component from a feeder when the movable frame is at the second position, and the analysing means is configured to analyse the one or more images using pattern recognition techniques to determine the coordinates of the third position and to calculate the coordinates of a pick-up position of the pick-up device for picking up electronic components from the feeder, when the movable frame is at the first position, by adding the offset to the coordinates of the third position. - a conveyor for conveying a circuit board, - feeders for feeding electronic components, - a pick-up device for picking up electronic components from the feeders and mounting the electronic components to the circuit board, and - a movable frame to which the feeders are detachably attached, said movable frame being movable between a first position at which the pick-up device is intended to pick up electronic components from the feeders and a second position at which the feeders are intended to be attached to and detached from the movable frame,
A piping intended to be buried, comprising: - a tubular member delimiting a longitudinal inner passage, - a protective strip extending longitudinally relative to the tubular member, the protective strip comprising two longitudinal lateral portions (7, 8) fastened on an outer surface of the tubular member, the protective strip and the tubular member delimiting a longitudinal receiving passage, and - a sensing member intended to be sensed with a sensing device, the sensing member being linear and comprising an electrically conductive core and an electrically insulating sheath covering the electrically conductive core, the sensing member extending longitudinally in the receiving passage and being movably mounted longitudinally relative to the tubular member and the protective strip, the two longitudinal lateral portions (7, 8) of the protective strip extending on either side of the sensing member. - a tubular member delimiting a longitudinal inner passage, - a protective strip extending longitudinally relative to the tubular member, the protective strip comprising two longitudinal lateral portions (7, 8) fastened on an outer surface of the tubular member, the protective strip and the tubular member delimiting a longitudinal receiving passage, and - a sensing member intended to be sensed with a sensing device, the sensing member being linear and comprising an electrically conductive core and an electrically insulating sheath covering the electrically conductive core, the sensing member extending longitudinally in the receiving passage and being movably mounted longitudinally relative to the tubular member and the protective strip, the two longitudinal lateral portions (7, 8) of the protective strip extending on either side of the sensing member.
An assembly stand for assembling a main shaft unit and a gear unit of a wind turbine, comprising: - a gear frame unit comprising receiving means configured to receive and hold the gear unit, - a main shaft frame unit comprising receiving means configured to receive and hold the main shaft unit, where at least one of the two frame units (7, 9) comprises adjustment means configured to move that frame unit relative to the other frame unit in at least one direction, - alignment means for aligning the positions of the main shaft unit and the gear unit with each other, and - means for moving one of the main shaft unit or gear unit into contact with the other unit, characterised in that at least the main shaft frame unit or the gear frame unit is arranged on a base frame for positioning relative to a reference surface at ground level and not in the nacelle or on the main frame of the nacelle. - a gear frame unit comprising receiving means configured to receive and hold the gear unit, - a main shaft frame unit comprising receiving means configured to receive and hold the main shaft unit, where at least one of the two frame units (7, 9) comprises adjustment means configured to move that frame unit relative to the other frame unit in at least one direction, - alignment means for aligning the positions of the main shaft unit and the gear unit with each other, and - means for moving one of the main shaft unit or gear unit into contact with the other unit, characterised in that at least the main shaft frame unit or the gear frame unit is arranged on a base frame for positioning relative to a reference surface at ground level and not in the nacelle or on the main frame of the nacelle.
Getter pump comprising a casing (21, 21'; 311; 411), whose shape is a solid of revolution with a revolution axis (26; 46), and comprising a plurality of getter cartridges (10, 100; 22, 23, 24, 25; 314, 315; 42, 43) mounted within said getter pump casing (21, 21'; 311; 411), each cartridge (10, 100; 22, 23, 24, 25; 314, 315; 42, 43) comprising a linear central support (11; 221, 231, 241, 251; 421, 431) and spaced getter elements (12, 12',..., 12 n) mounted on said linear central support (11; 221, 231, 241, 251; 421, 431), a plane orthogonal to the revolution axis (26; 46) and intersecting the midpoint of a linear central support (11; 221, 231, 241, 251; 421, 431) being defined a getter cartridge positioning plane (222, 232, 242, 252; 422, 432), characterized in that the angles (α, α', α", α"'; β, β') formed by said positioning planes (222, 232, 242, 252; 422, 432) with the linear central supports (11; 221, 231, 241, 251; 421, 431) are comprised between 35° and 75°, preferably between 40° and 70°.
A machine for renovating a track formed from rails and sleepers, resting on a track bed, having devices (7, 16) for the removal of old or the placing of new sleepers, an endless excavating chain with a transverse chain segment provided for the intake of ballast as well as with a ballast plow designed for the creation of a leveled supporting surface for the new sleepers, characterized by the following features: a) the transverse chain segment is designed shorter with respect to its length than a sleeper length of the new sleepers, b) the ballast plow is - with respect to a longitudinal machine direction -arranged between the transverse chain segment of the excavating chain and the device for the placing of the new sleepers, c) a width - extending normal to a longitudinal machine direction - of the ballast plow is designed greater than the sleeper length of the new sleepers. a) the transverse chain segment is designed shorter with respect to its length than a sleeper length of the new sleepers, b) the ballast plow is - with respect to a longitudinal machine direction -arranged between the transverse chain segment of the excavating chain and the device for the placing of the new sleepers, c) a width - extending normal to a longitudinal machine direction - of the ballast plow is designed greater than the sleeper length of the new sleepers.
A method of receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving a Wake-Up Signal, WUS, based on a same antenna port assumption; and monitoring a paging signal in one or more Paging Occasions, POs, based on the WUS, characterized in that the same antenna port assumption for the WUS reception (S11 01) is related to a pair of subframes for the WUS, each subframe being a time interval and the UE determines that a same antenna port is used in different subframes for the WUS, based on that the different subframes belong to a same subframe pair 'm', the subframe pair 'm' including a subframe #k+2m and a subframe #k+2m+1, where 'm' is an integer ≥ 0, and 'k' denotes an index of a subframe where transmission of the WUS starts. receiving a Wake-Up Signal, WUS, based on a same antenna port assumption; and monitoring a paging signal in one or more Paging Occasions, POs, based on the WUS, characterized in that the same antenna port assumption for the WUS reception (S11 01) is related to a pair of subframes for the WUS, each subframe being a time interval and the UE determines that a same antenna port is used in different subframes for the WUS, based on that the different subframes belong to a same subframe pair 'm', the subframe pair 'm' including a subframe #k+2m and a subframe #k+2m+1, where 'm' is an integer ≥ 0, and 'k' denotes an index of a subframe where transmission of the WUS starts.
Connection device for electrical conductors, having an actuator, - for enabling an electrical conductor to be inserted into an insulating body in the non-actuated state, and - for fixing and electrically contacting the electrical conductor to an electrical connection contact in an actuated state, wherein the actuator comprises the following: - an actuation recess having an inclined tensioning portion and, adjoining the latter, a tensioning shoulder for actuating a cage clamp - means for bringing the actuator from the non-actuated state into the actuated state, and - means for bringing the actuator from the actuated state into the non-actuated state, characterized in that - the means for bringing the actuator from the actuated state into the non-actuated state comprise an inclined application portion and an application step that begins at a common application edge and that is oriented away at an obtuse angle from the inclined application portion for the purpose of enabling release by means of a tool from the cable-connection-side direction. - for enabling an electrical conductor to be inserted into an insulating body in the non-actuated state, and - for fixing and electrically contacting the electrical conductor to an electrical connection contact in an actuated state, wherein the actuator comprises the following: - an actuation recess having an inclined tensioning portion and, adjoining the latter, a tensioning shoulder for actuating a cage clamp - means for bringing the actuator from the non-actuated state into the actuated state, and - means for bringing the actuator from the actuated state into the non-actuated state, characterized in that - the means for bringing the actuator from the actuated state into the non-actuated state comprise an inclined application portion and an application step that begins at a common application edge and that is oriented away at an obtuse angle from the inclined application portion for the purpose of enabling release by means of a tool from the cable-connection-side direction.
A method of scheduling paging messages in a communications network, the method comprising the steps of: receiving new paging messages to be scheduled; scheduling the paging messages on a first come first served basis during a first mode of operation, regardless of priority levels of the paging messages if present; scheduling the paging messages based on priority levels of the paging messages during a second mode of operation; and switching between the first mode of operation and the second mode of operation according to the volume of paging messages being scheduled. receiving new paging messages to be scheduled; scheduling the paging messages on a first come first served basis during a first mode of operation, regardless of priority levels of the paging messages if present; scheduling the paging messages based on priority levels of the paging messages during a second mode of operation; and switching between the first mode of operation and the second mode of operation according to the volume of paging messages being scheduled.
A method for generating, in an aircraft in flight, a display indicative of the feasibility of a weapon carried on the aircraft successfully engaging a target and/or the feasibility of a weapon carried on the target successfully engaging the aircraft, the method comprising: acquiring, by one or more processors, a respective performance envelope for a plurality of different types of aircraft, the one or more processors being remote from the aircraft; using the plurality of aircraft performance envelopes, determining, by the one or more processors, a performance envelope defining the performance of all of the different aircraft types; acquiring, by the one or more processors, a performance envelope for the weapon; using the weapon performance envelope and the performance envelope defining the performance of all of the different aircraft types, determining, by the one or more processors, a further performance envelope, the further performance envelope defining the weapon's performance when that weapon is implemented on each of the different aircraft types, the further performance envelope being the minimum envelope that defines the weapon's performance when that weapon is implemented on each of the different aircraft types; determining, by the one or more processors, coefficients for a generic polynomial that fit the generic polynomial to the further performance envelope; uploading, to the aircraft, the generated coefficients; reconstructing, on the aircraft, the further performance envelope using the same generic polynomial; and, using aircraft and target conditions and the reconstructed further performance envelope, generating, on the aircraft, the feasibility display. acquiring, by one or more processors, a respective performance envelope for a plurality of different types of aircraft, the one or more processors being remote from the aircraft; using the plurality of aircraft performance envelopes, determining, by the one or more processors, a performance envelope defining the performance of all of the different aircraft types; acquiring, by the one or more processors, a performance envelope for the weapon; using the weapon performance envelope and the performance envelope defining the performance of all of the different aircraft types, determining, by the one or more processors, a further performance envelope, the further performance envelope defining the weapon's performance when that weapon is implemented on each of the different aircraft types, the further performance envelope being the minimum envelope that defines the weapon's performance when that weapon is implemented on each of the different aircraft types; determining, by the one or more processors, coefficients for a generic polynomial that fit the generic polynomial to the further performance envelope; uploading, to the aircraft, the generated coefficients; reconstructing, on the aircraft, the further performance envelope using the same generic polynomial; and, using aircraft and target conditions and the reconstructed further performance envelope, generating, on the aircraft, the feasibility display.
Shock absorber for an at least partially muscle-powered vehicle and in particular a bicycle having at least one damper device comprising a damper housing and in which a first and a second damper chamber (3, 4) are separated from one another via at least one damper piston, wherein a piston rod connected with the damper piston extends from the damper piston at least through the second damper chamber out of the damper housing, wherein the first damper chamber is in connection with the second damper chamber via at least one flow duct which runs through the piston rod out of the damper housing to at least one throttling device, the flow duct comprising at the throttling device at least one damping duct (11, 12) provided with a field-sensitive rheological fluid which by means of at least one field generating device (13, 14) disposed at the throttling device can be exposed to a field of a predetermined strength to influence a flow of the field-sensitive rheological fluid through the throttling device, characterized in that a maximum flow cross-section in the compression stage and a maximum flow cross-section in the rebound stage are different.