mhurhangee/patent-ind-claim-en huggingface dataset:
A grant-free transmission method, wherein the method comprises: sending , by a network device to a terminal, information about P transmission resources dedicated to the terminal used for grant-free transmission, wherein P is a positive integer and P ≥ 2, wherein each transmission resource dedicated to the terminal corresponds to a transmission parameter set; sending , by the network device, information about a common transmission resource for grant-free transmission; receiving , by the network device, a pilot and data on a grant-free transmission resource, detecting , by the network device, the dedicated transmission resource, and if grant-free transmission is detected, detecting data based on the transmission parameter set corresponding to the dedicated transmission resource. sending , by a network device to a terminal, information about P transmission resources dedicated to the terminal used for grant-free transmission, wherein P is a positive integer and P ≥ 2, wherein each transmission resource dedicated to the terminal corresponds to a transmission parameter set; sending , by the network device, information about a common transmission resource for grant-free transmission; receiving , by the network device, a pilot and data on a grant-free transmission resource, detecting , by the network device, the dedicated transmission resource, and if grant-free transmission is detected, detecting data based on the transmission parameter set corresponding to the dedicated transmission resource.
Temperature-dependent switch, comprising a first and a second stationary counter contact and a temperature-dependent switching mechanism having a current transfer member , wherein the switching mechanism , depending on its temperature, either closes the switch by pressing the current transfer member against the first and the second counter contact and thereby establishing an electrically conductive connection between the two counter contacts via the current transfer member , or opens the switch by keeping the current transfer member at a distance from the first and the second counter contact and thereby interrupting the electrically conductive connection, characterized in that the a closing lock is provided which keeps the switch open when it has been opened for the first time, wherein the closing lock includes a spring washer which directly interacts with the current transfer member and mechanically locks the latter permanently when the switch has been opened for the first time so that the switch remains permanently open.
An aircraft lavatory unit comprising a supply piping configured to be connected to air conditioning equipment on board the aircraft, a hand dryer configured to apply an air for air conditioning supplied from the supply piping to an air for drying, a nozzle configured to blow out the air for drying, a faucet configured to supply water, a dispenser configured to supply a washing agent, and a body portion, wherein discharge portions of the faucet and the dispenser and the nozzle of the hand dryer are integrated to the body portion, and the body portion has a flat mounting portion provided on an upper surface thereof, characterised in that the supply piping is branched into a lavatory air conditioning piping and a hand dryer piping , wherein the lavatory air conditioning piping is connected to an air outlet within the aircraft lavatory unit , and the hand dryer piping is connected to the hand dryer .
A multi-layer coating system comprising: a first basecoat layer formed from a first coating composition comprising a free polyisocyanate and hydroxyl functional polymeric core-shell particles, wherein a polymeric core and a polymeric shell of the hydroxyl functional core-shell particles each independently comprise an addition polymer derived from ethylenically unsaturated monomers; a second basecoat layer positioned over at least a portion of the first basecoat layer, the second basecoat layer formed from a second coating composition comprising carboxylic acid functional polymeric core-shell particles, wherein a polymeric core of the carboxylic acid functional core-shell particles comprises an addition polymer derived from ethylenically unsaturated monomers and a polymeric shell of the carboxylic acid functional core-shell particles comprises urethane linkages and carboxylic acid functional groups; and a topcoat layer positioned over at least a portion of the second basecoat layer, the topcoat layer formed from a coating composition comprising at least one free polyisocyanate having a weight average molecular weight of less than 600 g/mol and at least one film-forming resin reactive with the free polyisocyanate, wherein an amount of free polyisocyanate having a weight average molecular weight of less than 600 g/mol is greater than 5 weight %, based on the total resin solids of the coating composition that forms the topcoat layer. a first basecoat layer formed from a first coating composition comprising a free polyisocyanate and hydroxyl functional polymeric core-shell particles, wherein a polymeric core and a polymeric shell of the hydroxyl functional core-shell particles each independently comprise an addition polymer derived from ethylenically unsaturated monomers; a second basecoat layer positioned over at least a portion of the first basecoat layer, the second basecoat layer formed from a second coating composition comprising carboxylic acid functional polymeric core-shell particles, wherein a polymeric core of the carboxylic acid functional core-shell particles comprises an addition polymer derived from ethylenically unsaturated monomers and a polymeric shell of the carboxylic acid functional core-shell particles comprises urethane linkages and carboxylic acid functional groups; and a topcoat layer positioned over at least a portion of the second basecoat layer, the topcoat layer formed from a coating composition comprising at least one free polyisocyanate having a weight average molecular weight of less than 600 g/mol and at least one film-forming resin reactive with the free polyisocyanate, wherein an amount of free polyisocyanate having a weight average molecular weight of less than 600 g/mol is greater than 5 weight %, based on the total resin solids of the coating composition that forms the topcoat layer.
A method for transmitting rich media information in a call process, wherein the method comprises: establishing, by a first terminal , a call connection to a second terminal by using a real-time transport protocol RTP data link; determining (S302), by the first terminal based on a user operation, target rich media information selected by a user in the first terminal ; searching (S302), by the first terminal , a first rich media library for a code corresponding to the target rich media information; and encapsulating (S303), by the first terminal , the found code corresponding to the target rich media information into a real-time transport control protocol, RTCP, packet, and sending an RTCP packet obtained after encapsulation to the second terminal , wherein the first rich media library is preset in the first terminal and a second rich media library is preset in the second terminal , and same rich media information corresponds to a same code in the first rich media library and a second rich media library corresponding to the second terminal . establishing, by a first terminal , a call connection to a second terminal by using a real-time transport protocol RTP data link; determining (S302), by the first terminal based on a user operation, target rich media information selected by a user in the first terminal ; searching (S302), by the first terminal , a first rich media library for a code corresponding to the target rich media information; and encapsulating (S303), by the first terminal , the found code corresponding to the target rich media information into a real-time transport control protocol, RTCP, packet, and sending an RTCP packet obtained after encapsulation to the second terminal , wherein the first rich media library is preset in the first terminal and a second rich media library is preset in the second terminal , and same rich media information corresponds to a same code in the first rich media library and a second rich media library corresponding to the second terminal .
A method for operating an air intake of an aircraft turbojet engine nacelle extending along an axis X oriented from upstream to downstream in which an internal air flow (F-INT) circulates from upstream to downstream during a thrust phase and a reverse air flow (F-INV) from downstream to upstream during a thrust reversal phase, the air intake circumferentially extending about axis X, and comprising an internal wall pointing to axis X and configured to guide the internal air flow (F-INT) and the reverse air flow (F-INV), and an external wall , opposite to the internal wall and configured to guide an external air flow (F-EXT), the internal wall and the external wall being connected to each other by an air intake lip so as to form an annular cavity , the air intake lip comprising at least one fixed portion and at least one movable portion between a first position (A) and a second position (B), method wherein at least one movable portion of the air intake lip is in the first position (A), in which the air intake lip has an aerodynamic profile so as to guide the internal air flow (F-INT) over the internal wall to promote a thrust phase, the air intake lip having a first radial thickness (EA), the method comprises, during a thrust reversal phase of said turbojet engine , a step of moving in downstream translation the movable portion with respect to the fixed portion in the second position (B) so that the air intake lip comprises a second radial thickness (EB) that is less than the first radial thickness (EA) so as to promote reverse thrust.
Sealing element, in particular joint sealing tape, for sealing a gap between an interior space of a building construction, vehicle or the like and the surroundings, comprising a foam body impregnated with an impregnant, where the impregnant is nonuniformly distributed in the foam body and, as a result of the nonuniform distribution of the impregnant in the foam body , the impregnated foam body has a lower density in a first section than in a second section , where the density of the impregnated foam body in the first section is from 25 kg/m 3 to 55 kg/m 3 or the density of the impregnated foam body in the second section is from 65 kg/m 3 to 135 kg/cm 3 , where the foam body is made up of one piece and has homogeneous properties before being impregnated, characterized in that the density within the foam body increases continuously, steadily or stepwise from the first section to the second section , where a ratio of the density of the first section to the density of the second section is less than 0.15.
Method of fabricating an ohmic contact for a Group III nitride-based device, comprising: depositing a metallic layer onto a dielectric layer positioned on a Group III nitride layer and into an opening in the dielectric layer ; forming a planarised surface by: structuring the metallic layer to form a T-shaped contact having a vertical portion positioned in the opening and a horizontal portion positioned on the dielectric layer with regions of the dielectric layer being exposed to define the lateral extent of the horizontal portion of the T-shaped contact ; forming an ohmic contact between the metallic layer and the Group III nitride layer ; depositing a stop layer onto outer surfaces of the T-shaped contact and onto the exposed portions of the dielectric layer ; progressively removing the horizontal portion of the T-shaped contact and forming a conductive surface that is substantially coplanar with the stop layer positioned on the dielectric layer ; removing the stop layer to produce the planarised surface, the planarised surface comprising material of the dielectric layer and the conductive surface . depositing a metallic layer onto a dielectric layer positioned on a Group III nitride layer and into an opening in the dielectric layer ; forming a planarised surface by: structuring the metallic layer to form a T-shaped contact having a vertical portion positioned in the opening and a horizontal portion positioned on the dielectric layer with regions of the dielectric layer being exposed to define the lateral extent of the horizontal portion of the T-shaped contact ; forming an ohmic contact between the metallic layer and the Group III nitride layer ; depositing a stop layer onto outer surfaces of the T-shaped contact and onto the exposed portions of the dielectric layer ; progressively removing the horizontal portion of the T-shaped contact and forming a conductive surface that is substantially coplanar with the stop layer positioned on the dielectric layer ; removing the stop layer to produce the planarised surface, the planarised surface comprising material of the dielectric layer and the conductive surface . structuring the metallic layer to form a T-shaped contact having a vertical portion positioned in the opening and a horizontal portion positioned on the dielectric layer with regions of the dielectric layer being exposed to define the lateral extent of the horizontal portion of the T-shaped contact ; forming an ohmic contact between the metallic layer and the Group III nitride layer ; depositing a stop layer onto outer surfaces of the T-shaped contact and onto the exposed portions of the dielectric layer ; progressively removing the horizontal portion of the T-shaped contact and forming a conductive surface that is substantially coplanar with the stop layer positioned on the dielectric layer ; removing the stop layer to produce the planarised surface, the planarised surface comprising material of the dielectric layer and the conductive surface .
Workpiece carrier for transporting and/or storing components of a drug delivery device, comprising: - an array of accommodating recesses extending in a first lateral plane (x, y) and being adapted to receive at least one component of the drug delivery device, - at least one stack forming structure adapted to mate with a corresponding stack forming structure of another workpiece carrier for mutually aligning workpiece carriers when stacked on one another, - wherein the center of the at least one stack forming structure is arranged laterally offset with respect to the center of the array of accommodating recesses in at least one lateral direction (x, y), characterized in that - the stack forming structure comprises a surrounding edge comprising at least in sections a corrugated or undulated structure , and - wherein the surrounding edge is designed as a circumferential frame, wherein an inward side wall section of the surrounding edge serves as a receptacle for an outer side wall of a corresponding surrounding edge of another workpiece carrier to be stacked thereon to enable a nested and an at least partially overlapping arrangement of circumferential frame portions of a stack of workpiece carriers . - an array of accommodating recesses extending in a first lateral plane (x, y) and being adapted to receive at least one component of the drug delivery device, - at least one stack forming structure adapted to mate with a corresponding stack forming structure of another workpiece carrier for mutually aligning workpiece carriers when stacked on one another, - wherein the center of the at least one stack forming structure is arranged laterally offset with respect to the center of the array of accommodating recesses in at least one lateral direction (x, y), characterized in that - the stack forming structure comprises a surrounding edge comprising at least in sections a corrugated or undulated structure , and - wherein the surrounding edge is designed as a circumferential frame, wherein an inward side wall section of the surrounding edge serves as a receptacle for an outer side wall of a corresponding surrounding edge of another workpiece carrier to be stacked thereon to enable a nested and an at least partially overlapping arrangement of circumferential frame portions of a stack of workpiece carriers .
A housing of a battery module for a vehicle , comprising: - a base , wherein the base comprises a first side wall , a second side wall opposite to the first side wall , and a central wall extending between, and substantially parallel to, the first side wall and the second side wall ; and - a plurality of partitions extending between the first side wall and the second side wall and defining a plurality of compartments within the base , wherein each of the plurality of compartments is configured to receive a corresponding prismatic electrochemical cell of a plurality of prismatic electrochemical cells , wherein one side of each partition of the plurality of partitions is coupled to the first side wall or the second side wall via a movable connection movable between an first position in which a first total volume of the plurality of compartments is defined by the plurality of partitions , and a second position in which a second total volume of the plurality of compartments is defined by the plurality of partitions , the second total volume being smaller than the first total volume, and the other side of each partition of the plurality of partitions is coupled to the central wall via an additional movable connection movable between the first position and the second position, such that each partition is individually movable toward a back wall of the base . - a base , wherein the base comprises a first side wall , a second side wall opposite to the first side wall , and a central wall extending between, and substantially parallel to, the first side wall and the second side wall ; and - a plurality of partitions extending between the first side wall and the second side wall and defining a plurality of compartments within the base ,
An induction heating device, comprising: a first resonance circuit comprising a first working coil (WC1) and a first resonance capacitor (Cr1); a first inverter (IV1) electrically connected to the first resonance circuit and configured to perform a first switching operation to thereby apply a first resonance current to the first working coil (WC1); and a first group of snubber capacitors (CSP1) that are configured to be electrically connected to the first inverter (IV1), the first group of snubber capacitors (CSP1) comprising a first snubber capacitor (CS1) and a second snubber capacitor (CS2); characterised in that the induction heating device comprises: a first relay (R1) configured to selectively connect the first group of snubber capacitors (CSP1) to the first inverter (IV1); and a second group of snubber capacitors (CSP2) that remain electrically connected to the first inverter (IV1) regardless of switching operation of the first relay (R1), the second group of snubber capacitors (CSP2) comprising a third snubber capacitor (CS3) and a fourth snubber capacitor (CS4). a first resonance circuit comprising a first working coil (WC1) and a first resonance capacitor (Cr1); a first inverter (IV1) electrically connected to the first resonance circuit and configured to perform a first switching operation to thereby apply a first resonance current to the first working coil (WC1); and a first group of snubber capacitors (CSP1) that are configured to be electrically connected to the first inverter (IV1), the first group of snubber capacitors (CSP1) comprising a first snubber capacitor (CS1) and a second snubber capacitor (CS2); characterised in that the induction heating device comprises: a first relay (R1) configured to selectively connect the first group of snubber capacitors (CSP1) to the first inverter (IV1); and a second group of snubber capacitors (CSP2) that remain electrically connected to the first inverter (IV1) regardless of switching operation of the first relay (R1), the second group of snubber capacitors (CSP2) comprising a third snubber capacitor (CS3) and a fourth snubber capacitor (CS4).
A station for cleaning tools such as rollers, brushes, spray guns or system components such as filters, rolls, pipes or hoses, marked with water-based and/or solvent-containing lacquers and paints, wherein the station comprises a cleaning region in the form of a tank, in which the tools or the system components may be held for cleaning, and the tools or system components are cleaned of paint or lacquer by means of a reusable liquid conducted in the circuit, wherein a treatment of the liquid for reuse is provided below the cleaning region of the station , characterized in that for the treatment of the reusable liquid, a coarse filtration in the form of a filter fleece is carried out in the outflow region of the cleaning region which is configured as a tank and a sedimentation tank which is provided with an overflow is arranged below the tank and a collection tank for the liquid cleaned of suspended matter is arranged below the sedimentation tank . wherein the station comprises a cleaning region in the form of a tank, in which the tools or the system components may be held for cleaning, and the tools or system components are cleaned of paint or lacquer by means of a reusable liquid conducted in the circuit, wherein a treatment of the liquid for reuse is provided below the cleaning region of the station , characterized in that for the treatment of the reusable liquid, a coarse filtration in the form of a filter fleece is carried out in the outflow region of the cleaning region which is configured as a tank and a sedimentation tank which is provided with an overflow is arranged below the tank and a collection tank for the liquid cleaned of suspended matter is arranged below the sedimentation tank .
A thermostatic radiator valve (TRV) configured to adjust a flow of heat transfer fluid from a thermal energy generator configured to heat or cool a room of a building, said heat transfer fluid entering a heat exchanger based on a defined temperature setpoint from a user, the thermal energy generator and the heat exchanger configured to heat or cool a room of the building, the thermostatic radiator valve (TRV) being adapted to be situated in the room, the room having a room temperature (Tr1), the TRV comprising: - a communication link to a thermostat controlling the thermal energy generator for the building based on a thermostat temperature setpoint ; - an input interface configured to allow a user to enter the defined temperature setpoint or acquire the defined temperature setpoint (T2); characterized in that the TRV is configured to send to the thermostat a command to directly trigger the turned off thermal energy generator if a difference between the defined temperature setpoint (T2) and the room temperature (Tr1) has a same sign as a gradient of temperature to be generated by the thermal energy generator and if the thermostat has reached the thermostat temperature setpoint in the room. - a communication link to a thermostat controlling the thermal energy generator for the building based on a thermostat temperature setpoint ; - an input interface configured to allow a user to enter the defined temperature setpoint or acquire the defined temperature setpoint (T2);