mhurhangee/patent-ind-claim-en huggingface dataset:
A radio frequency (RF) amplifier system, comprising: an RF amplifier including an RF power element ; and a heat dissipation device including: a heat conduction block , one side of the heat conduction block being in contact with the RF power element ; a heat conduction board thermally conductively coupled to the other side of the heat conduction block ; a plurality of heat pipes , an end of each of the heat pipes being disposed at the heat conduction block ; and a plurality of fins disposed in parallel and spaced from each other on the heat conduction board , the other end of each of the heat pipes being inserted through the fins , characterized in that a heat dissipation fan and a wind guiding plate , the heat dissipation fan is disposed at one side of the RF amplifier and the fins , the wind guiding plate includes a plurality of wind guiding holes , and the heat dissipation fan is configured so that the generated forcible airflow partially flows to the fins and partially passes through the wind guiding holes to flow to the RF amplifier ; wherein heat generated from the RF power element is conducted to the heat conduction block , and then the heat is conducted to the fins through the heat conduction board and the heat pipes . an RF amplifier including an RF power element ; and a heat dissipation device including: a heat conduction block , one side of the heat conduction block being in contact with the RF power element ; a heat conduction board thermally conductively coupled to the other side of the heat conduction block ; a plurality of heat pipes , an end of each of the heat pipes being disposed at the heat conduction block ; and a plurality of fins disposed in parallel and spaced from each other on the heat conduction board , the other end of each of the heat pipes being inserted through the fins , characterized in that a heat conduction block , one side of the heat conduction block being in contact with the RF power element ; a heat conduction board thermally conductively coupled to the other side of the heat conduction block ; a plurality of heat pipes , an end of each of the heat pipes being disposed at the heat conduction block ; and a plurality of fins disposed in parallel and spaced from each other on the heat conduction board , the other end of each of the heat pipes being inserted through the fins , characterized in that a heat dissipation fan and a wind guiding plate , the heat dissipation fan is disposed at one side of the RF amplifier and the fins , the wind guiding plate includes a plurality of wind guiding holes , and the heat dissipation fan is configured so that the generated forcible airflow partially flows to the fins and partially passes through the wind guiding holes to flow to the RF amplifier ;
A communication method performed by a terminal, the method comprising: • sending a beam failure recovery request, BFRQ, to a network device, the beam failure recovery request being used for initiating a beam failure recovery; • receiving a response to the BFRQ from the network device based on an assumed quasi co-located, QCL, relationship between a first reference signal and a second reference signal, wherein the first reference signal is corresponding to a selected new beam and the second reference signal is a demodulation reference signal, DMRS, of a physical downlink control channel, PDCCH, for transmitting the response (S 505); the method being characterized by • receiving, before any updated QCL configuration is received, a transmission on a PDCCH or a PDSCH based on an assumed quasi co-located relationship between the first reference signal and a third reference signal, wherein the third reference signal is a DMRS of the PDCCH or a DMRS of the PDSCH (S 507). • sending a beam failure recovery request, BFRQ, to a network device, the beam failure recovery request being used for initiating a beam failure recovery; • receiving a response to the BFRQ from the network device based on an assumed quasi co-located, QCL, relationship between a first reference signal and a second reference signal, wherein the first reference signal is corresponding to a selected new beam and the second reference signal is a demodulation reference signal, DMRS, of a physical downlink control channel, PDCCH, for transmitting the response (S 505); the method being characterized by • receiving, before any updated QCL configuration is received, a transmission on a PDCCH or a PDSCH based on an assumed quasi co-located relationship between the first reference signal and a third reference signal, wherein the third reference signal is a DMRS of the PDCCH or a DMRS of the PDSCH (S 507).
A CW LIDAR Wind Velocity Sensor system adapted to measure wind velocity in the stratosphere, the system comprising: a first light emitting structure arranged to send a signal light in a first direction in space; a second light emitting structure arranged to produce a local oscillator light having a wavelength different from the wavelength of the signal light by a predetermined wavelength; a receiver arranged to receive light from said first direction in space; a first optical mixer for mixing the received light with said local oscillator light; wherein the first light emitting structure comprises a single mode blue laser source and the local oscillator light comprises a second single mode blue laser source and wherein said predetermined wavelength corresponds to a predetermined microwave frequency. a first light emitting structure arranged to send a signal light in a first direction in space; a second light emitting structure arranged to produce a local oscillator light having a wavelength different from the wavelength of the signal light by a predetermined wavelength; a receiver arranged to receive light from said first direction in space; a first optical mixer for mixing the received light with said local oscillator light; wherein the first light emitting structure comprises a single mode blue laser source and the local oscillator light comprises a second single mode blue laser source and wherein said predetermined wavelength corresponds to a predetermined microwave frequency.
A modular outdoor door unit comprising: - at least one functional module , and - a frame for fixing the modular outdoor door unit to a mounting box in a wall, the frame being adapted for receiving the at least one functional module and comprising a hole at a lower side for receiving fixing means for fixing the functional module to the frame , wherein the functional module comprises: - two hooks at an upper side of the functional module for inserting into corresponding slots at an upper, inner side of the frame , and - a hole at a lower side of the functional module for receiving the fixing means for fixing the functional module to the frame . - at least one functional module , and - a frame for fixing the modular outdoor door unit to a mounting box in a wall, the frame being adapted for receiving the at least one functional module and comprising a hole at a lower side for receiving fixing means for fixing the functional module to the frame , - two hooks at an upper side of the functional module for inserting into corresponding slots at an upper, inner side of the frame , and - a hole at a lower side of the functional module for receiving the fixing means for fixing the functional module to the frame .
A process for the purification of acrolein, comprising the steps of a) splitting a liquid feed stream comprising acrolein into at least a first liquid stream and a second liquid stream , b) introducing the first liquid stream with a temperature T1 into a distillation column at a point between the top and the bottom of the distillation column, c) introducing the second liquid stream with a temperature T2 into the distillation column at the top of the distillation column, d) withdrawing an overhead vapor stream enriched in acrolein from the distillation column , and e) withdrawing a bottom stream depleted in acrolein from the distillation column , wherein the temperature T2 of the second liquid stream in step c) is lower than the temperature T1 of the first liquid stream in step b). a) splitting a liquid feed stream comprising acrolein into at least a first liquid stream and a second liquid stream , b) introducing the first liquid stream with a temperature T1 into a distillation column at a point between the top and the bottom of the distillation column, c) introducing the second liquid stream with a temperature T2 into the distillation column at the top of the distillation column, d) withdrawing an overhead vapor stream enriched in acrolein from the distillation column , and e) withdrawing a bottom stream depleted in acrolein from the distillation column ,
A network selection method, comprising: initiating (S401), by User Equipment, UE, a registration process for a first network; receiving (S201, S408), by the UE, first information sent by a core network element in a case that the first network with which the UE requests registration is unable to provide service for the UE, wherein the first information is carried in a deregistration request message in a deregistration process initiated by the core network element, and the first information comprises area information of the UE comprising a Mobile Country Code, MCC, characterized in that the case that the first network with which the UE requests registration is unable to provide service for the UE is determined based on current location information of the UE, and the current location information of the UE is received (S407) by the core network element in a Nlmf_Location_DetermineLocation message from a Location Management Function, LMF, entity, after sending (S406) a Namf_Communication_N1MessageNotify message to the LMF entity, the core network element comprising an Access and Mobility Management Function, AMF, entity; re-determining (S202), by the UE, a target network based on the first information, comprising: re-determining, by the UE, the target network based on the area information of the UE in the first information. initiating (S401), by User Equipment, UE, a registration process for a first network; receiving (S201, S408), by the UE, first information sent by a core network element in a case that the first network with which the UE requests registration is unable to provide service for the UE, wherein the first information is carried in a deregistration request message in a deregistration process initiated by the core network element, and the first information comprises area information of the UE comprising a Mobile Country Code, MCC, characterized in that the case that the first network with which the UE requests registration is unable to provide service for the UE is determined based on current location information of the UE, and the current location information of the UE is received (S407) by the core network element in a Nlmf_Location_DetermineLocation message from a Location Management Function, LMF, entity, after sending (S406) a Namf_Communication_N1MessageNotify message to the LMF entity, the core network element comprising an Access and Mobility Management Function, AMF, entity; re-determining (S202), by the UE, a target network based on the first information, comprising: re-determining, by the UE, the target network based on the area information of the UE in the first information.
Method for driving onto and exiting a motorway using a lorry , comprising the following steps: - in order to drive onto the motorway : making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a transfer area , guided driving onto the motorway , changing an operating mode of the lorry from a guided operating mode into an automated operating mode, breaking up the vehicle train by uncoupling the lead vehicle from the lorry at the end of the transfer area ; and - in order to exit the motorway : making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a further transfer area , changing an operating mode of the lorry from an automatic operating mode into a guided operating mode, guided exiting of the motorway , breaking up of the vehicle train by uncoupling the lead vehicle from the lorry at the end of the further transfer area . - in order to drive onto the motorway : making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a transfer area , guided driving onto the motorway , changing an operating mode of the lorry from a guided operating mode into an automated operating mode, breaking up the vehicle train by uncoupling the lead vehicle from the lorry at the end of the transfer area ; and making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a transfer area , guided driving onto the motorway , changing an operating mode of the lorry from a guided operating mode into an automated operating mode, breaking up the vehicle train by uncoupling the lead vehicle from the lorry at the end of the transfer area ; and - in order to exit the motorway : making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a further transfer area , changing an operating mode of the lorry from an automatic operating mode into a guided operating mode, guided exiting of the motorway , breaking up of the vehicle train by uncoupling the lead vehicle from the lorry at the end of the further transfer area . making available a lead vehicle , forming a vehicle train by coupling the lead vehicle to the lorry at the start of a further transfer area , changing an operating mode of the lorry from an automatic operating mode into a guided operating mode, guided exiting of the motorway , breaking up of the vehicle train by uncoupling the lead vehicle from the lorry at the end of the further transfer area .
Light structure comprising two walls interconnected by at least one profile and light means , wherein said walls define, with the profile , a closed interior space , one of the walls being able to diffuse the light emitted by the light means, the other wall having at least one face able to reflect the light emitted by the light means, said face being arranged vis-à-vis the wall capable of diffusing light, the profile comprising at least one slot in which the light means are housed, said slot having an opening on the interior space and being oriented towards said other wall so that the light, leaving the profile , is directed towards the face capable of reflecting the light, characterized in that the slot is dimensioned to ensure the guiding of the light emitted by the light means towards the face capable of reflecting the light, and in that the profile has an internal face diverging towards the wall capable of diffusing light.
A method for manufacturing acrylic rubber, the method comprising: an emulsion polymerization step of subjecting a monomer to emulsion polymerization to obtain an emulsion polymerization solution; a coagulation step of coagulating the emulsion polymerization solution with a coagulant to obtain a hydrous crumb; a drying step of drying the hydrous crumb; and a base step of adding a base after the emulsion polymerization step, wherein an ester compound other than the monomer to constitute acrylic rubber is used before the base step, and a relationship of 0.15 ≤ (X/Y)/Z ≤ 2.5 is satisfied wherein X represents an amount of the base used in the base step by part by mass based on 100 parts by mass of the ester compound, Y represents a molecular weight of the base used in the base step, and Z represents a valence of the base used in the base step. an emulsion polymerization step of subjecting a monomer to emulsion polymerization to obtain an emulsion polymerization solution; a coagulation step of coagulating the emulsion polymerization solution with a coagulant to obtain a hydrous crumb; a drying step of drying the hydrous crumb; and a base step of adding a base after the emulsion polymerization step, wherein an ester compound other than the monomer to constitute acrylic rubber is used before the base step, and a relationship of 0.15 ≤ (X/Y)/Z ≤ 2.5 is satisfied wherein X represents an amount of the base used in the base step by part by mass based on 100 parts by mass of the ester compound, Y represents a molecular weight of the base used in the base step, and Z represents a valence of the base used in the base step.
A computer-implemented method comprising: measuring, by a first local controller connected to a first converter , one or more characteristics of the first converter ; the first converter belonging to a set of two or more converters in a power system configured to power equipment, and each of the two or more converters being connected to a respective local controller ; detecting an arc fault, based at least in part on the one or more characteristics of the first converter ; communicating, to a central controller , an indication of the arc fault; and remediating the arc fault by performing one or more remedial operations determined by at least one of the first local controller and the central controller , wherein remediating the arc fault comprises requesting, by the first local controller , that the central controller implements disconnecting the respective converter from a common bus . measuring, by a first local controller connected to a first converter , one or more characteristics of the first converter ; the first converter belonging to a set of two or more converters in a power system configured to power equipment, and each of the two or more converters being connected to a respective local controller ; detecting an arc fault, based at least in part on the one or more characteristics of the first converter ; communicating, to a central controller , an indication of the arc fault; and remediating the arc fault by performing one or more remedial operations determined by at least one of the first local controller and the central controller , wherein remediating the arc fault comprises requesting, by the first local controller , that the central controller implements disconnecting the respective converter from a common bus .
A fluidic installation comprising a drive mechanism that is mounted on a flow channel and configured to drive, via a shaft , an adjusting element that is arranged in the interior of the flow channel , the installation further comprising an anti-rotation lock configured to be held on the wall of the flow channel and to hold the drive mechanism in position, wherein the anti-rotation lock as a one-piece plate, characterized in that the one-piece plate has at least one pre-weakened bending line (A, B, C) along which two parts of the plate are adjustable in their relative angular position.
A vacuum insulating panel comprising: a porous insulating core having an upper surface and a lower surface and sides; at least one reinforcing member arranged on the upper or lower surface of the insulating core to reinforce the core, wherein the reinforcing member is formed of a porous material, and is substantially rigid; wherein together the at least one reinforcing member and the insulating core form a hybrid core and wherein the reinforcing member(s) do not form a thermal bridge across the insulating core ; and an envelope , arranged to envelop the hybrid core , and to maintain an applied vacuum within the envelope ; wherein the insulating core is constructed from a microporous insulating material formed from a powder material; wherein the density of the insulating core within the vacuum insulating panel is of from 100 kg/m 3 to 160 kg/m 3 , for example from 130 kg/m 3 to 160 kg/m 3 ; wherein the thermal conductivity of the at least one reinforcing member is higher than the thermal conductivity of the insulating core and wherein the thermal conductivity of the vacuum insulating panel is in the range of from 3.0 mW/m.K to 4.0 mW/m.K. a porous insulating core having an upper surface and a lower surface and sides; at least one reinforcing member arranged on the upper or lower surface of the insulating core to reinforce the core, wherein the reinforcing member is formed of a porous material, and is substantially rigid; wherein together the at least one reinforcing member and the insulating core form a hybrid core and wherein the reinforcing member(s) do not form a thermal bridge across the insulating core ; and an envelope , arranged to envelop the hybrid core , and to maintain an applied vacuum within the envelope ; wherein the insulating core is constructed from a microporous insulating material formed from a powder material; wherein the density of the insulating core within the vacuum insulating panel is of from 100 kg/m 3 to 160 kg/m 3 , for example from 130 kg/m 3 to 160 kg/m 3 ; wherein the thermal conductivity of the at least one reinforcing member is higher than the thermal conductivity of the insulating core and wherein the thermal conductivity of the vacuum insulating panel is in the range of from 3.0 mW/m.K to 4.0 mW/m.K.
A near field communication device , comprising the following components contained in a housing: a plurality of elements each configured to perform an independent process, including at least one removable element (62-1, 62-2) and at least one fixed element (62-0); a controller configured to control said plurality of elements ; and a front end configured to perform near field communication with an external device , the front end being connected to said plurality of elements and configured to perform near field communication of signals from each of said plurality of elements to said external device , wherein said controller allocates, to said plurality of elements, different time slots for communication, and said at least one fixed element (62-0) stores the allocated time slot in a nonvolatile manner, whereas said at least one removable element (62-1, 62-2) stores the time slot in a volatile manner; and wherein said controller allocates, to said at least one fixed element (62-0), a first time slot, and allocates, to said at least one removable element (62-1, 62-2), a time slot of a later timing than that of said at least one fixed element (62-0). a plurality of elements each configured to perform an independent process, including at least one removable element (62-1, 62-2) and at least one fixed element (62-0); a controller configured to control said plurality of elements ; and a front end configured to perform near field communication with an external device , the front end being connected to said plurality of elements and configured to perform near field communication of signals from each of said plurality of elements to said external device , wherein said controller allocates, to said plurality of elements, different time slots for communication, and said at least one fixed element (62-0) stores the allocated time slot in a nonvolatile manner, whereas said at least one removable element (62-1, 62-2) stores the time slot in a volatile manner; and wherein said controller allocates, to said at least one fixed element (62-0), a first time slot, and allocates, to said at least one removable element (62-1, 62-2), a time slot of a later timing than that of said at least one fixed element (62-0).