mhurhangee/ep-ind-claims huggingface dataset:
An air conditioning indoor unit comprising an airflow direction adjusting blade configured to adjust an airflow direction of blow-out air, wherein the airflow direction adjusting blade is configured to be in a state where the airflow direction adjusting blade allows cool air to flow along one of an upper surface and a lower surface, the airflow direction adjusting blade includes a heat insulator filled with gas or a heat insulating material, a blade member surrounding the heat insulator and constituting an outer contour, and a concave portion provided in least one of an upstream-side end and a downstream-side end of the blade member in a flow direction of the blow-out air and formed by reducing a thickness of the blade member in the surface followed by the blow-out air, wherein the blade member has a surface followed by the blow-out air and cooled by cool air during a cooling operation, and the concave portion is configured to inhibit heat transfer, characterized in that the concave portion has a minimum thickness set to be within a range from 40% to 65% of the thickness of the blade member excluding the concave portion. the airflow direction adjusting blade is configured to be in a state where the airflow direction adjusting blade allows cool air to flow along one of an upper surface and a lower surface, the airflow direction adjusting blade includes a heat insulator filled with gas or a heat insulating material, a blade member surrounding the heat insulator and constituting an outer contour, and a concave portion provided in least one of an upstream-side end and a downstream-side end of the blade member in a flow direction of the blow-out air and formed by reducing a thickness of the blade member in the surface followed by the blow-out air, wherein the blade member has a surface followed by the blow-out air and cooled by cool air during a cooling operation, and the concave portion is configured to inhibit heat transfer, characterized in that the concave portion has a minimum thickness set to be within a range from 40% to 65% of the thickness of the blade member excluding the concave portion.
A method of manufacturing an electrothermal heater mat, comprising the steps of: providing a preform which comprises a laminated stack of dielectric layers which are made of thermoplastic material and include a central layer or group of layers which include(s) reinforcement and first and second outer groups of layers (502, 503) which do not include reinforcement; wherein the preform includes a heater element and the preform has a first configuration; heating the preform to a temperature between the glass-transition temperature of the thermoplastic material and the melting point of the thermoplastic material; and forming the heated preform into a second configuration which is different to the first configuration so as to produce the heater mat; wherein, in the forming step, the preform is positioned on a tool which has a tool surface with a third configuration which is more-curved than the second configuration and the preform is formed down onto the tool surface; and wherein, after the heater mat has been formed on the tool, the heater mat relaxes from the third configuration to the second configuration. providing a preform which comprises a laminated stack of dielectric layers which are made of thermoplastic material and include a central layer or group of layers which include(s) reinforcement and first and second outer groups of layers (502, 503) which do not include reinforcement; wherein the preform includes a heater element and the preform has a first configuration; heating the preform to a temperature between the glass-transition temperature of the thermoplastic material and the melting point of the thermoplastic material; and forming the heated preform into a second configuration which is different to the first configuration so as to produce the heater mat; wherein, in the forming step, the preform is positioned on a tool which has a tool surface with a third configuration which is more-curved than the second configuration and the preform is formed down onto the tool surface; and wherein, after the heater mat has been formed on the tool, the heater mat relaxes from the third configuration to the second configuration.
Overflow valve for a high-pressure pump, in particular plug-in pump, in a fuel injection system of an internal combustion engine, comprising a valve piston which is received in a central bore of a valve housing so as to be axially displaceable counter to the spring force of a valve spring for the connection of an inflow to a return, wherein the valve housing has at least two radial bores (9, 10), which are arranged with an axial spacing to one another and open into the central bore, wherein the first radial bore is part of the inflow and the second radial bore is part of the return, characterized in that the valve housing is surrounded at least regionally by a connection body which has at least two connection pieces (12, 13) for the connection of an inflow line and a return line, wherein the connection pieces (12, 13) are able to be brought into overlap with annular grooves (14, 15) which are formed in the valve housing on the outer circumferential side and into which the radial bores (9, 10) open.
A method of wireless communication in a time-division duplex, TDD, communication system, comprising: identifying (1005; 1105) a first subframe type corresponding to subframes having uplink-uplink, UL-UL, interference between a serving cell and a neighboring cell and associated with application of a first power control parameter; identifying (1010; 1110) a second subframe type corresponding to subframes (525, 530) having downlink-uplink, DL-UL, interference between the serving cell and the neighboring cell and associated with application of a second power control parameter; identifying (1015; 1115) one or more subframes to be transmitted according to the first or second power control parameter based on the subframe type of the respective one or more subframes; transmitting a bitmap identifying which of the one or more subframes have the first subframe type and which have the second subframe type to a user equipment, wherein each subframe of the one or more subframes is associated with one or more bits of the bitmap; and transmitting a first indication of a first power control parameter via radio resource control, RRC, signaling, and a second indication of a second power control parameter via Open Loop Power Control, OLPC, signaling. identifying (1005; 1105) a first subframe type corresponding to subframes having uplink-uplink, UL-UL, interference between a serving cell and a neighboring cell and associated with application of a first power control parameter; identifying (1010; 1110) a second subframe type corresponding to subframes (525, 530) having downlink-uplink, DL-UL, interference between the serving cell and the neighboring cell and associated with application of a second power control parameter; identifying (1015; 1115) one or more subframes to be transmitted according to the first or second power control parameter based on the subframe type of the respective one or more subframes; transmitting a bitmap identifying which of the one or more subframes have the first subframe type and which have the second subframe type to a user equipment, wherein each subframe of the one or more subframes is associated with one or more bits of the bitmap; and transmitting a first indication of a first power control parameter via radio resource control, RRC, signaling, and a second indication of a second power control parameter via Open Loop Power Control, OLPC, signaling.
A seal adapted to be piston integrated comprising: a base portion, in a hydraulic chamber side of the seal, which extends so as to cover a pressure receiving portion of a clutch piston of a hydraulic clutch, a seal lip extending from the base portion, for being integrally provided in the pressure receiving portion of the clutch piston and being directed to the hydraulic chamber side, wherein the seal lip is structured such that a main seal edge portion in the hydraulic chamber side and a sub seal edge portion in an anti-hydraulic chamber side are formed in a sliding portion in relation to the other sliding surface, wherein the main seal edge portion and the sub seal edge portion are structured such that an angle (α 1 ', α 2 ') of an inclined surface in the hydraulic chamber side in relation to the other sliding surface is approximately equal to an angle (β 1 ', β 2 ') of an inclined surface in the anti-hydraulic chamber side in an installed state, characterized in that the sub seal edge portion is positioned closer to the anti-hydraulic chamber side than a surface of the base portion of the seal in the hydraulic chamber side which covers the pressure receiving portion of the clutch piston. a base portion, in a hydraulic chamber side of the seal, which extends so as to cover a pressure receiving portion of a clutch piston of a hydraulic clutch, a seal lip extending from the base portion, for being integrally provided in the pressure receiving portion of the clutch piston and being directed to the hydraulic chamber side, wherein the seal lip is structured such that a main seal edge portion in the hydraulic chamber side and a sub seal edge portion in an anti-hydraulic chamber side are formed in a sliding portion in relation to the other sliding surface, wherein the main seal edge portion and the sub seal edge portion are structured such that an angle (α 1 ', α 2 ') of an inclined surface in the hydraulic chamber side in relation to the other sliding surface is approximately equal to an angle (β 1 ', β 2 ') of an inclined surface in the anti-hydraulic chamber side in an installed state, characterized in that the sub seal edge portion is positioned closer to the anti-hydraulic chamber side than a surface of the base portion of the seal in the hydraulic chamber side which covers the pressure receiving portion of the clutch piston.
A communication method, comprising: determining, by a first sidelink device, first indication information and first sidelink resource information, wherein the first indication information indicates that the first sidelink resource information comprises auxiliary information; and sending, by the first sidelink device, the first indication information and the first sidelink resource information to a second sidelink device, wherein the auxiliary information is used to assist the second sidelink device in resource selection; wherein the first sidelink resource information further comprises reservation information, and the reservation information indicates a resource reserved by the first sidelink device; wherein the sending, by the first sidelink device, the first indication information and the first sidelink resource information to a second sidelink device comprises: sending, by the first sidelink device, the first sidelink resource information in a first time window; and characterized by: the first time window comprises a plurality of timeslots, and the first sidelink resource information comprises the reservation information sent in a first timeslot and the auxiliary information sent in a second timeslot; wherein the first timeslot is earlier than the second timeslot in terms of time. determining, by a first sidelink device, first indication information and first sidelink resource information, wherein the first indication information indicates that the first sidelink resource information comprises auxiliary information; and sending, by the first sidelink device, the first indication information and the first sidelink resource information to a second sidelink device, wherein the auxiliary information is used to assist the second sidelink device in resource selection; wherein the first sidelink resource information further comprises reservation information, and the reservation information indicates a resource reserved by the first sidelink device; wherein the sending, by the first sidelink device, the first indication information and the first sidelink resource information to a second sidelink device comprises: sending, by the first sidelink device, the first sidelink resource information in a first time window; and characterized by: the first time window comprises a plurality of timeslots, and the first sidelink resource information comprises the reservation information sent in a first timeslot and the auxiliary information sent in a second timeslot; wherein the first timeslot is earlier than the second timeslot in terms of time. the first time window comprises a plurality of timeslots, and the first sidelink resource information comprises the reservation information sent in a first timeslot and the auxiliary information sent in a second timeslot; wherein the first timeslot is earlier than the second timeslot in terms of time.
A series hydrostatic transmission for a vehicle, the vehicle comprising a plurality of wheels, the transmission comprising: first hydraulic pump and a hydraulic motor (702, 704) each of which has a pumping mode in which it operates as a hydraulic pump and a motoring mode in which it operates as a hydraulic motor, the pump being torque connected or torque connectable to at least one prime mover, the motor (702, 704) being torque connected or torque connectable to one or more of the wheels by way of a torque transmitting device, wherein the transmission has at least a first mode in which the pump and motor (702, 704) are fluidly connected to each other such that fluid pressurised by the pump drives the motor, a second mode in which energy from hydraulic fluid pressurised by the motor in the pumping mode is transferred to an energy store, and a third mode in which energy from the energy store drives the motor (702, 704), characterised by the said pump and the said motor (702, 704) each comprising a plurality of cylinders of cyclically varying working volume in which the displacement of hydraulic fluid through each cylinder is regulated by one or more electronically controllable valves, on each cycle of cylinder working volume, and in phased relationship to cycles of cylinder working volume with reference to a phase signal provided by a phase sensor, and wherein the motor comprises a valve assembly disposed between a high pressure line and a working chamber of the motor, the valve assembly comprising: a main valve having a main valve element providing sealing contact with a valve seat; and a pilot valve for equalising pressure across the main valve element by placing the working chamber in direct fluid communication with the high pressure line. characterised by the said pump and the said motor (702, 704) each comprising a plurality of cylinders of cyclically varying working volume in which the displacement of hydraulic fluid through each cylinder is regulated by one or more electronically controllable valves, on each cycle of cylinder working volume, and in phased relationship to cycles of cylinder working volume with reference to a phase signal provided by a phase sensor, and wherein the motor comprises a valve assembly disposed between a high pressure line and a working chamber of the motor, the valve assembly comprising: a main valve having a main valve element providing sealing contact with a valve seat; and a pilot valve for equalising pressure across the main valve element by placing the working chamber in direct fluid communication with the high pressure line.
An image decoding method performed by a decoding apparatus, the method comprising: receiving a bitstream comprising residual information; deriving transform coefficients for a target block based on the residual information; deriving modified transform coefficients based on an inverse non-separable transform of the transform coefficients; deriving residual samples for the target block based on an inverse primary transform of the modified transform coefficients; and generating a reconstructed picture based on the residual samples for the target block, wherein the inverse non-separable transform is performed based on a transform index indicating a predetermined transform kernel matrix, wherein the inverse primary transform is performed based on a multiple transform selection, MTS, index indicating an MTS of a horizontal transform kernel and a vertical transform kernel, wherein the MTS index is not received from the bitstream and is inferred equal to 0, wherein the transform index indicating the predetermined transform kernel matrix is context-decoded based on a context increment, wherein based on a tree type of a partition structure of the target block being not a single tree type, a context increment on a first bin among bin strings for the transform index is derived as a first context increment equal to 1, and wherein based on the tree type being the single tree type, the context increment on the first bin is derived as a second context increment equal to 0. receiving a bitstream comprising residual information; deriving transform coefficients for a target block based on the residual information; deriving modified transform coefficients based on an inverse non-separable transform of the transform coefficients; deriving residual samples for the target block based on an inverse primary transform of the modified transform coefficients; and generating a reconstructed picture based on the residual samples for the target block, wherein the inverse non-separable transform is performed based on a transform index indicating a predetermined transform kernel matrix, wherein the inverse primary transform is performed based on a multiple transform selection, MTS, index indicating an MTS of a horizontal transform kernel and a vertical transform kernel, wherein the MTS index is not received from the bitstream and is inferred equal to 0, wherein the transform index indicating the predetermined transform kernel matrix is context-decoded based on a context increment, wherein based on a tree type of a partition structure of the target block being not a single tree type, a context increment on a first bin among bin strings for the transform index is derived as a first context increment equal to 1, and wherein based on the tree type being the single tree type, the context increment on the first bin is derived as a second context increment equal to 0.
Syringe pump system for HPLC with at least two solvents, where two independent syringe piston pumps are coupled to form a binary system; where each syringe piston pump has a pump head (13, 13'), which is connected to a multi-position valve (25, 25') via one outlet connecting pipe (23, 23') and one suction line (17, 17'); where each multi-position valve (25, 25') has an additional output pipe (33, 33') which opens via a connector into a common output pipe; and where the pressure required for a chromatographic analysis for each of the solvents is built up in the pump head (13, 13') via the pump piston (11, 11'); characterised in that the pump head (13, 13') of each of the syringe piston pumps is also connected to the said multi-position valve (25, 25') via a wash outlet pipe (19, 19'), and the respective outlet connecting pipe (23, 23') is fitted with a passive pump outlet valve (21, 21'), so that the pressure required for the chromatographic analysis for each of the solvents is built up separately in the respective pump head (13, 13') via the pump piston (11, 11'), thanks to the passive pump output valve (21, 21'); where each of the said syringe piston pumps is fitted with a motor (3, 3') as drive for the pump pistons (11, 11'), and as a force sensor for the compression of the respective solvent.
Snowsports board comprising a shovel, a central body and an essentially flat tail, the tail narrowing both: - in width, with its width decreasing towards the rear end of the ski and - in thickness, with its thickness decreasing from a central axis towards a lateral edge (50, 51) of the tail, the board comprising a multi-layered structure including at least: - a core (23, 42), - upper layers (262, 263, 264, 266), - lower layers (272, 273, 274, 276), and - a main core forms the core of the multi-layered structure in the central body, characterized in that: - an insert forms the core of the multi-layered structure at the tail, and - the insert is incorporated behind and in line with the main core. - in width, with its width decreasing towards the rear end of the ski and - in thickness, with its thickness decreasing from a central axis towards a lateral edge (50, 51) of the tail, the board comprising a multi-layered structure including at least: - a core (23, 42), - upper layers (262, 263, 264, 266), - lower layers (272, 273, 274, 276), and - a core (23, 42), - upper layers (262, 263, 264, 266), - lower layers (272, 273, 274, 276), and - a main core forms the core of the multi-layered structure in the central body, - an insert forms the core of the multi-layered structure at the tail, and - the insert is incorporated behind and in line with the main core.
A tire comprising: a tire frame, which is toric and is formed from a resin material containing a thermoplastic resin, an adhesion layer, which is formed from a composition comprising a polythiol compound, a polyisocyanate compound, and a radical generator, and in which a ratio (S/N) of a number of sulfur atoms contained in the adhesion layer to a number of nitrogen atoms contained in the adhesion layer is three or more, and an exterior component, which contains a rubber, and which is mounted on the tire frame via the adhesion layer such that at least part of the rubber touches the adhesion layer, wherein the radical generator is a thermal radical generator that is a peroxide, and a boiling point of a decomposition product of the thermal radical generator that is the peroxide is 150°C or higher. a tire frame, which is toric and is formed from a resin material containing a thermoplastic resin, an adhesion layer, which is formed from a composition comprising a polythiol compound, a polyisocyanate compound, and a radical generator, and in which a ratio (S/N) of a number of sulfur atoms contained in the adhesion layer to a number of nitrogen atoms contained in the adhesion layer is three or more, and an exterior component, which contains a rubber, and which is mounted on the tire frame via the adhesion layer such that at least part of the rubber touches the adhesion layer, wherein the radical generator is a thermal radical generator that is a peroxide, and a boiling point of a decomposition product of the thermal radical generator that is the peroxide is 150°C or higher.
A method of allocating resources in a wireless network that includes one or more macro user devices served by a macro base station associated with a macro cell and a micro base station associated with a small cell that is served by the macro base station, the method comprising: determining a portion of downlink resources allocated to a self-backhaul link between the macro base station and the micro base station for the small cell; determining that a threshold condition is exceeded with respect to the self-backhaul link for the small cell; and decreasing, based on the determining, the portion of downlink resources allocated to the self-backhaul link for the small cell. determining a portion of downlink resources allocated to a self-backhaul link between the macro base station and the micro base station for the small cell; determining that a threshold condition is exceeded with respect to the self-backhaul link for the small cell; and decreasing, based on the determining, the portion of downlink resources allocated to the self-backhaul link for the small cell.