mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a relay mode, comprising receiving, by a relay terminal, first indication information from a network device, wherein the first indication information is used for indicating a relay mode supported by the network device and is explicitly carried in a system broadcast message, and the first indication information comprises a first field for indicating that the relay mode supported by the network device is at least one of a layer 2-based network relay or a layer 3-based network relay.
A method for access control, the method being applied to a user equipment, UE, and the method comprising: generating a first cause value through a radio resource control, RRC, layer when determining that a non-access stratum, NAS, cannot provide a second cause value; encapsulating the first cause value in an RRC dedicated signaling to be sent; and sending the RRC dedicated signaling to be sent and encapsulating the first cause value to a network side device, wherein the RRC dedicated signaling to be sent is used by the network side device for access control, wherein the step of encapsulating the first cause value in an RRC dedicated signaling to be sent comprises: providing an information element IE additionally in the RRC dedicated signaling to be sent; and filling the first cause value into the additionally provided IE, wherein the additionally provided IE is provided after an IE used for filling the second cause value. generating a first cause value through a radio resource control, RRC, layer when determining that a non-access stratum, NAS, cannot provide a second cause value; encapsulating the first cause value in an RRC dedicated signaling to be sent; and sending the RRC dedicated signaling to be sent and encapsulating the first cause value to a network side device, wherein the RRC dedicated signaling to be sent is used by the network side device for access control, wherein the step of encapsulating the first cause value in an RRC dedicated signaling to be sent comprises: providing an information element IE additionally in the RRC dedicated signaling to be sent; and filling the first cause value into the additionally provided IE, wherein the additionally provided IE is provided after an IE used for filling the second cause value. providing an information element IE additionally in the RRC dedicated signaling to be sent; and filling the first cause value into the additionally provided IE, wherein the additionally provided IE is provided after an IE used for filling the second cause value.
Tamping unit, comprising: - at least two tamping picks suitable to compact the ballast under the sleepers of a rail, each tamping pick being supported by a respective oscillating unit, each oscillating unit being pivoted to a frame unit so as to oscillate about a rotation unit axis; - an oscillation actuator actuatable to cause an oscillation of the two oscillating units between a tamping pick open position and a tamping pick closed position; - a pair of vibration actuators, each supported by a respective oscillating unit and suitable to place in rotation an eccentric drive shaft, each tamping pick being operatively connected to a respective eccentric drive shaft so as to be subjected to vibration due to a respective vibration actuator, characterised in that the tamping unit further comprises - second synchronisation means suitable to synchronise the rotation of said eccentric drive shafts, wherein said second synchronisation means comprise a toothed belt engaged by the eccentric drive shafts, by a pair of intermediate wheels, each coaxial with the rotation axis of a respective oscillating unit, and by a pair of idler wheels, each integral to a respective oscillating unit. - at least two tamping picks suitable to compact the ballast under the sleepers of a rail, each tamping pick being supported by a respective oscillating unit, each oscillating unit being pivoted to a frame unit so as to oscillate about a rotation unit axis; - an oscillation actuator actuatable to cause an oscillation of the two oscillating units between a tamping pick open position and a tamping pick closed position; - a pair of vibration actuators, each supported by a respective oscillating unit and suitable to place in rotation an eccentric drive shaft, each tamping pick being operatively connected to a respective eccentric drive shaft so as to be subjected to vibration due to a respective vibration actuator, characterised in that the tamping unit further comprises - second synchronisation means suitable to synchronise the rotation of said eccentric drive shafts,
A scintillator comprising: a matrix material including thallium, at least one alkaline earth metal element, and at least one halogen element, further comprising: an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%. a matrix material including thallium, at least one alkaline earth metal element, and at least one halogen element, further comprising: an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%. an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%.
Annular catalytic converter, having a first, tubular flow path, having a diverting region and having a second, annular flow path, wherein the tubular flow path is formed by an inner pipe, wherein the annular flow path is formed between the inner pipe and an outer pipe surrounding the inner pipe, and the diverting region, for diverting the exhaust-gas flow from the tubular flow path into the annular flow path, is of potshaped form, wherein the inner pipe and/or the outer pipe have/has a conical cross section (D1, D2, D3, D4) that widens or narrows along the flow direction of the exhaust gas, characterized in that at least one matrix formed by a metallic honeycomb body is arranged in the annular flow path, wherein the matrix has a cross-sectional profile which follows the cross-sectional profile of the annular flow path, wherein the metallic honeycomb body is formed by a multiplicity of metallic foils which are stacked one on top of the other and which are wound up to form the honeycomb body, wherein at least some foils are corrugated, wherein the conicity of the metallic honeycomb body and thus of the matrix along its flow direction can be influenced by variation of the corrugation height and of the corrugation density between the gas inlet side and the gas outlet side of the matrix.
Method for producing water with reduced lime scale, in particular calcium carbonate, using electrolysis of the water to be treated, where the water is the electrolyte, characterised in that it uses a device comprising a series of plane and parallel cathodes and anodes arranged alternatingly, an air inlet, at least one manifold connected to said air inlet and a plurality of diffusers connected to said manifold and provided with holes through which air is injected, said cathodes being formed of a stainless steel sheet provided with a fold sandwiching the support of said cathode and with a crease parallel to the lower edge of said cathode and at a small distance from said edge, where said method comprises a step during which there is removal of the lime scale deposited on the cathodes during said electrolysis, by vibration of said cathodes, said vibration being implemented thanks to an injection of air at the level of said cathodes, below these latter, and where the arrival rate of the air on the cathodes is between 10 and 20 m/s, and preferably at 15 m/s.
A heat shrink tunnel with width adjustment, comprising: a pair of opposing side wall assemblies, each assembly including an outer wall and an inner perforated wall defining a plenum therebetween, the opposing side walls defining a product path therebetween, the product path defining a longitudinal axis (A 12), the side wall assemblies being movable toward and away from the longitudinal axis (A 12); a heater/blower assembly disposed in each of the opposing side walls, each heater blower assembly having an outlet directed into the product path, each heater/blower assembly drawing air from the product path, through its respective plenum; and a top wall extending between the pair of opposing side wall assemblies, the top wall having an adjustable width to accommodate movement of the side wall assemblies. a pair of opposing side wall assemblies, each assembly including an outer wall and an inner perforated wall defining a plenum therebetween, the opposing side walls defining a product path therebetween, the product path defining a longitudinal axis (A 12), the side wall assemblies being movable toward and away from the longitudinal axis (A 12); a heater/blower assembly disposed in each of the opposing side walls, each heater blower assembly having an outlet directed into the product path, each heater/blower assembly drawing air from the product path, through its respective plenum; and a top wall extending between the pair of opposing side wall assemblies, the top wall having an adjustable width to accommodate movement of the side wall assemblies.
Coating apparatus for coating workpieces, comprising: - a dip tank into which the workpieces are insertible for the purposes of coating them; - a current transforming system for supplying a coating current which is conductible through the dip tank for the purposes of coating the workpieces; and - an electrode which is arrangeable in the dip tank and which is electrically connected to the current transforming system, characterized in that the current transforming system comprises a current transforming unit which comprises a power switch, two rectifying devices (132, 140) and an isolating transformer, wherein the power switch is connectible at the input side thereof to a current supply source and is connected at the output side thereof to the isolating transformer, wherein the isolating transformer is connected at the input side thereof to the power switch and is connected at the output side thereof to an electrode and, wherein one of the two rectifying devices is connectible at the input side thereof to the current supply source and is connected at the output side thereof to the power switch and wherein another one of the two rectifying devices is connected at the input side thereof to the isolating transformer and is connected at the output side thereof to an electrode. - a dip tank into which the workpieces are insertible for the purposes of coating them; - a current transforming system for supplying a coating current which is conductible through the dip tank for the purposes of coating the workpieces; and - an electrode which is arrangeable in the dip tank and which is electrically connected to the current transforming system,
An air purifier, comprising: a housing; an air blowing unit for providing an air blowing force such that external air is introduced into the housing; a filter unit disposed inside the housing to filter the external air introduced into the housing to make filtered air; and a humidifying unit disposed inside the housing to humidify the filtered air passing through the filter unit, wherein the humidifying unit comprises a water tank in which a mounting portion is formed, a humidifying member mounted on one side of the mounting portion to receive water from the water tank and supply moisture to the filtered air, and a water container mounted on the other side of the mounting portion to supply water to the water tank, wherein the water tank is formed detachably from an installation position inside the housing to the outside of the housing, and further comprises a guide unit protruding upwardly around the other side of the mounting portion on which the water container is mounted, characterized in that the guide unit is pressed by the water container when the water container enters around the mounting portion while the water tank is deviated from the installation position by a predetermined range and is disposed inside the housing, and the water tank is moved in the direction of the installation position by a pressing force provided by the guide unit, when the guide unit is pressed by the water container. a housing; an air blowing unit for providing an air blowing force such that external air is introduced into the housing; a filter unit disposed inside the housing to filter the external air introduced into the housing to make filtered air; and a humidifying unit disposed inside the housing to humidify the filtered air passing through the filter unit, wherein the humidifying unit comprises a water tank in which a mounting portion is formed, a humidifying member mounted on one side of the mounting portion to receive water from the water tank and supply moisture to the filtered air, and a water container mounted on the other side of the mounting portion to supply water to the water tank, wherein the water tank is formed detachably from an installation position inside the housing to the outside of the housing, and further comprises a guide unit protruding upwardly around the other side of the mounting portion on which the water container is mounted, characterized in that the guide unit is pressed by the water container when the water container enters around the mounting portion while the water tank is deviated from the installation position by a predetermined range and is disposed inside the housing, and the water tank is moved in the direction of the installation position by a pressing force provided by the guide unit, when the guide unit is pressed by the water container.
A belt drive system for a vehicle, the belt drive system comprising: at least one pulley (14, 26, 28, 32, 34); a shaft (17, 30, 36) rotatable about an axis; and a shift collar provided on said shaft to selectively engage with said at least one pulley, such that said at least one pulley is drivably engaged with said shaft, characterised in that the belt drive system further comprises a fixed housing, wherein said at least one pulley is rotatably provided on said fixed housing. at least one pulley (14, 26, 28, 32, 34); a shaft (17, 30, 36) rotatable about an axis; and a shift collar provided on said shaft to selectively engage with said at least one pulley, such that said at least one pulley is drivably engaged with said shaft, characterised in that the belt drive system further comprises a fixed housing, wherein said at least one pulley is rotatably provided on said fixed housing.
A method of characterizing a glioblastoma multiforme tumor in a human subject, comprising: analyzing a GBM tumor test sample obtained from the human subject to identify the presence or absence of a somatic mutation at: • codon 132 in isocitrate dehydrogenase 1; or • codon 172 in isocitrate dehydrogenase 2. analyzing a GBM tumor test sample obtained from the human subject to identify the presence or absence of a somatic mutation at: • codon 132 in isocitrate dehydrogenase 1; or • codon 172 in isocitrate dehydrogenase 2. • codon 132 in isocitrate dehydrogenase 1; or • codon 172 in isocitrate dehydrogenase 2.
A method for transferring micro-LEDs, comprising: forming a mask layer (1101r, 1101g, 1101b) on the backside of a laser-transparent original substrate (1102r, 1102g, 1102b), wherein micro-LEDs (1103r, 1103g, 1103b) are formed on the front-side of the original substrate (1102r, 1102g, 1102b); bringing the micro-LEDs on the original substrate in contact with preset pads on a receiving substrate; and irradiating the original substrate from the original substrate side with laser (1107r, 1107g, 1107b) through the mask layer, to lift-off micro-LEDs from the original substrate, wherein during the micro-LEDs (1103r, 1103g, 1103b) are lifted-off from the original substrate (1102r, 1102g, 1102b), a contactless action is applied onto the micro-LEDs, and the contactless action is electromagnetic force. forming a mask layer (1101r, 1101g, 1101b) on the backside of a laser-transparent original substrate (1102r, 1102g, 1102b), wherein micro-LEDs (1103r, 1103g, 1103b) are formed on the front-side of the original substrate (1102r, 1102g, 1102b); bringing the micro-LEDs on the original substrate in contact with preset pads on a receiving substrate; and irradiating the original substrate from the original substrate side with laser (1107r, 1107g, 1107b) through the mask layer, to lift-off micro-LEDs from the original substrate, wherein during the micro-LEDs (1103r, 1103g, 1103b) are lifted-off from the original substrate (1102r, 1102g, 1102b), a contactless action is applied onto the micro-LEDs, and the contactless action is electromagnetic force.
In a wireless network that includes a base station, a method for a first UE to perform device-to-device (D2D) communication with a second UE, the method comprising: receiving a downlink signal from the base station; determining the reception time of the downlink signal; receiving an indication of a timing advance for uplink communications from the first UE to the base station; based on the determined downlink signal reception time and the indicated timing advance, determining an uplink transmission time for the first UE for uplink communications to the base station; detecting the second UE's reference signal; determining a propagation delay between the first UE and second UE based on the detected reference signal; and delaying, by a period of time relative to the determined uplink transmission time, device-to-device (D2D) transmissions to the second UE, wherein the period of time is at least based on a timing advance applied by the second UE for uplink communications to the base station, and the propagation delay between the first UE and second UE. receiving a downlink signal from the base station; determining the reception time of the downlink signal; receiving an indication of a timing advance for uplink communications from the first UE to the base station; based on the determined downlink signal reception time and the indicated timing advance, determining an uplink transmission time for the first UE for uplink communications to the base station; detecting the second UE's reference signal; determining a propagation delay between the first UE and second UE based on the detected reference signal; and delaying, by a period of time relative to the determined uplink transmission time, device-to-device (D2D) transmissions to the second UE, wherein the period of time is at least based on a timing advance applied by the second UE for uplink communications to the base station, and the propagation delay between the first UE and second UE.
Tensioning device (1, 2, 30) for a surge arrester, having an end fitting and tensioning means, said tensioning device (1, 2, 30) having an axial clearance for receiving a tensioning means, and a region that in the axial direction tapers in a conical manner, for introducing into a clearance of the end fitting that is shaped so as to be of a substantially exact fit, wherein the delimitation walls (16, 17) of the clearance for the tensioning means in the conical region are movable towards the clearance interior, wherein the tensioning device is configured in multiple parts, characterized in that a friction layer is applied to the surface of the conical region, and the parts are configured as cone segments (1, 2) which in the assembled state in the conical region configure the axial clearance for receiving a tensioning means and at least one slot, and the at least one slot runs from the external face of the conical region up to the axial clearance for receiving a tensioning means, and the at least one slot is designed in such a manner that the delimitation walls (16, 17) are movable in a radial manner and each of the cone segments (1, 2) on that end thereof that faces away from the conically tapered region has in each case at least one first fastening means for connecting to an adjacent cone segment (1, 2). an axial clearance for receiving a tensioning means, and a region that in the axial direction tapers in a conical manner, for introducing into a clearance of the end fitting that is shaped so as to be of a substantially exact fit, wherein the delimitation walls (16, 17) of the clearance for the tensioning means in the conical region are movable towards the clearance interior, wherein the tensioning device is configured in multiple parts, characterized in that a friction layer is applied to the surface of the conical region, and the parts are configured as cone segments (1, 2) which in the assembled state in the conical region configure the axial clearance for receiving a tensioning means and at least one slot, and the at least one slot runs from the external face of the conical region up to the axial clearance for receiving a tensioning means, and the at least one slot is designed in such a manner that the delimitation walls (16, 17) are movable in a radial manner and each of the cone segments (1, 2) on that end thereof that faces away from the conically tapered region has in each case at least one first fastening means for connecting to an adjacent cone segment (1, 2).
A device for reducing frictional resistance of a ship, the device comprising: a chamber which is provided to a draft part of a hull and in which a plurality of blowing holes blowing out a gas into the water of the outside of the hull from different positions to each other in a height direction of the hull are formed; a supply pipe that supplies the gas to an internal space of the chamber; characterized in that the device comprises a plurality of distributors each of which is provided at least to each of the plurality of blowing except for the blowing hole placed at the lowest position in the height direction of the plurality of blowing holes, the distributor guiding a part of the gas, which is supplied into the chamber from the supply pipe to each of the blowing holes wherein each of the plurality of distributors has a flow-amount adjuster that adjusts a flow amount of the gas guided to the blowing hole corresponding to the distributor so that the flow amount of the gas blown out from the plurality of blowing holes is equalized in each of the blowing holes. a chamber which is provided to a draft part of a hull and in which a plurality of blowing holes blowing out a gas into the water of the outside of the hull from different positions to each other in a height direction of the hull are formed; a supply pipe that supplies the gas to an internal space of the chamber; characterized in that the device comprises a plurality of distributors each of which is provided at least to each of the plurality of blowing except for the blowing hole placed at the lowest position in the height direction of the plurality of blowing holes, the distributor guiding a part of the gas, which is supplied into the chamber from the supply pipe to each of the blowing holes wherein each of the plurality of distributors has a flow-amount adjuster that adjusts a flow amount of the gas guided to the blowing hole corresponding to the distributor so that the flow amount of the gas blown out from the plurality of blowing holes is equalized in each of the blowing holes.