mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving (S401), by a terminal device, a reference signal sent by a network device; measuring (S402), by the terminal device, the reference signal to obtain at least one piece of beam quality; reporting (S403), by the terminal device, specified differential beam quality indication information to the network device, wherein the specified differential beam quality indication information is reported by using an additional bit indication in addition to a reference value of the beam quality and is used to indicate that beam quality reporting is abnormal, wherein a bit-length of the additional bit indication is 4 bits and provides 16 pieces of differential beam quality indication information; and , in response to the reporting, receiving, by the terminal device, an updated differential step size from the network device. receiving (S401), by a terminal device, a reference signal sent by a network device; measuring (S402), by the terminal device, the reference signal to obtain at least one piece of beam quality; reporting (S403), by the terminal device, specified differential beam quality indication information to the network device, wherein the specified differential beam quality indication information is reported by using an additional bit indication in addition to a reference value of the beam quality and is used to indicate that beam quality reporting is abnormal, wherein a bit-length of the additional bit indication is 4 bits and provides 16 pieces of differential beam quality indication information; and , in response to the reporting, receiving, by the terminal device, an updated differential step size from the network device.
A coating composition comprising a stable aqueous dispersion of polymer particles and a phenyl glycidyl ether adduct of the compound of Formula I: where m is from 1 to 60.
A light emitting device, comprising a first electrode and a second electrode facing each other, and an emission layer disposed between the first electrode and the second electrode, wherein the emission layer comprises a plurality of quantum dots and a metal carboxylate comprising at least one hydrocarbon group having at least one carbon atom, and the plurality of quantum dots comprises a first organic ligand, the quantum dots do not comprise cadmium, lead, or a combination thereof, and wherein the plurality of quantum dots do not comprise a thiol-containing organic compound or a salt thereof bound to a surface of the plurality of quantum dots. a first electrode and a second electrode facing each other, and an emission layer disposed between the first electrode and the second electrode, wherein the emission layer comprises a plurality of quantum dots and a metal carboxylate comprising at least one hydrocarbon group having at least one carbon atom, and the plurality of quantum dots comprises a first organic ligand, the quantum dots do not comprise cadmium, lead, or a combination thereof, and wherein the plurality of quantum dots do not comprise a thiol-containing organic compound or a salt thereof bound to a surface of the plurality of quantum dots.
A conjugated diene polymer comprising: a low vinyl portion having a vinyl content of 2 to 20% by mol; and a high vinyl portion having a vinyl content of 50% by mol or more, wherein the conjugated diene polymer has a number average molecular weight, Mn, of 250,000 to 500,000, the average vinyl content of the conjugated diene polymer is from 7 to 20 % by mol, and the high vinyl portion is in an amount of more than 0% by mol and 10% by mol or less.
A pyro igniter circuit , comprising: - a shunt resistor connected in series with a power line ; - an amplifier comprising inputs electrically connected to terminals of the shunt resistor ; - a pyro igniter disconnect element electrically connected to an output of the amplifier and configured to cut the power line based on an ignition control signal received from the output of the amplifier ; the pyro igniter circuit being characterized by further comprising - a coupling resistor electrically interconnected between an input of the amplifier and a terminal of the shunt resistor ; - a supervisory circuit electrically connected to a node (n1) interconnected between an input of the amplifier and the coupling resistor , configured to: transmit a test signal to the node (n1), wherein the test signal comprises a pulse duration time (Td) below an igniter activation pulse time (Ta) of the pyro igniter disconnect element and/or the ignition control signal in response to the transmitted test signal comprises an amplitude (Vd, Id) below an igniter activation amplitude (Va, la) of the pyro igniter disconnect element ; and receive a diagnostic response signal in response to the transmitted test signal . - a shunt resistor connected in series with a power line ; - an amplifier comprising inputs electrically connected to terminals of the shunt resistor ; - a pyro igniter disconnect element electrically connected to an output of the amplifier and configured to cut the power line based on an ignition control signal received from the output of the amplifier ; - a coupling resistor electrically interconnected between an input of the amplifier and a terminal of the shunt resistor ; - a supervisory circuit electrically connected to a node (n1) interconnected between an input of the amplifier and the coupling resistor , configured to: transmit a test signal to the node (n1), wherein the test signal comprises a pulse duration time (Td) below an igniter activation pulse time (Ta) of the pyro igniter disconnect element and/or the ignition control signal in response to the transmitted test signal comprises an amplitude (Vd, Id) below an igniter activation amplitude (Va, la) of the pyro igniter disconnect element ; and receive a diagnostic response signal in response to the transmitted test signal . transmit a test signal to the node (n1), wherein the test signal comprises a pulse duration time (Td) below an igniter activation pulse time (Ta) of the pyro igniter disconnect element and/or the ignition control signal in response to the transmitted test signal comprises an amplitude (Vd, Id) below an igniter activation amplitude (Va, la) of the pyro igniter disconnect element ; and receive a diagnostic response signal in response to the transmitted test signal .
A rotor unit comprising: a hub that is configured to rotate about an axis in a first rotational direction; and a stacked rotor blade fixed to the hub such that the stacked rotor blade is rotatable about the axis, the stacked rotor blade comprising: a first blade element comprising a first leading edge, and a second blade element comprising a second leading edge, wherein the first blade element and the second blade element are arranged in a stacked configuration, and wherein at least a portion of the first leading edge and at least a portion of the second leading edge form a leading edge of the stacked rotor blade, wherein the first blade element further comprises a first alignment feature, and the second blade element further comprises a second alignment feature characterized in that it couples to the first alignment feature. a hub that is configured to rotate about an axis in a first rotational direction; and a stacked rotor blade fixed to the hub such that the stacked rotor blade is rotatable about the axis, the stacked rotor blade comprising: a first blade element comprising a first leading edge, and a second blade element comprising a second leading edge, wherein the first blade element and the second blade element are arranged in a stacked configuration, and wherein at least a portion of the first leading edge and at least a portion of the second leading edge form a leading edge of the stacked rotor blade, wherein the first blade element further comprises a first alignment feature, and the second blade element further comprises a second alignment feature characterized in that it couples to the first alignment feature. a first blade element comprising a first leading edge, and a second blade element comprising a second leading edge, wherein the first blade element and the second blade element are arranged in a stacked configuration, and wherein at least a portion of the first leading edge and at least a portion of the second leading edge form a leading edge of the stacked rotor blade, wherein the first blade element further comprises a first alignment feature, and the second blade element further comprises a second alignment feature characterized in that it couples to the first alignment feature.
A catalyst comprising palladium-ruthenium solid solution alloy fine particles in which palladium and ruthenium form a solid solution at an atomic level.
Device for closed systems for equalisation of pressure surges, comprising an outlet nozzle , on which an impact plate is provided and a hinged cover is pivotably mounted, wherein in a rest position the hinged cover lies on the outlet nozzle and in an open position bears on the impact plate , wherein at least one closure retention device is provided, which in the rest position presses the hinged cover against the outlet nozzle and in the event of a pressure surge releases the hinged cover , characterised in that the device has a pneumatic or electro-pneumatic control unit using electronic circuits, which controls the closure retention device , which is pneumatically adjustable, wherein at least one sensor is provided, which detects the position of the hinged cover and communicates it to the control unit , wherein after the detection of the rest position of the hinged cover by the sensor the closure retention device , on the basis of a signal of the control unit , presses against the hinged cover that is in the rest position . characterised in that the device has a pneumatic or electro-pneumatic control unit using electronic circuits, which controls the closure retention device , which is pneumatically adjustable, wherein at least one sensor is provided, which detects the position of the hinged cover and communicates it to the control unit , wherein after the detection of the rest position of the hinged cover by the sensor the closure retention device , on the basis of a signal of the control unit , presses against the hinged cover that is in the rest position .
A high pressure integrated compression unit for a process fluid comprising at least the following: a compression device (C) able to compress the process fluid from a gaseous initial thermodynamic state (Pi, Ti) to an intermediate thermodynamic state (P 1 , T 1 ); characterized by a pump (P) connected mechanically to the compression device (C) and able to compress the process fluid from said intermediate thermodynamic state (P 1 , T 1 ) to a final thermodynamic state (Pf, Tf); an external cooling device provided in the process path between the compression device (C) and the pump (P); an external feed circuit to at least partially fill the pump (P) with process fluid, the process fluid being at the same thermodynamic conditions to that which is fed by the compression device (C) during activation of the compression device (C) and, at the same time, the pump (P); a motor device (M) able to drive said compression device (C) and said pump (P); and a pressure casing in which are enclosed at least said compression device (C) and the pump (P) mechanically coupled to each other. a compression device (C) able to compress the process fluid from a gaseous initial thermodynamic state (Pi, Ti) to an intermediate thermodynamic state (P 1 , T 1 ); characterized by a pump (P) connected mechanically to the compression device (C) and able to compress the process fluid from said intermediate thermodynamic state (P 1 , T 1 ) to a final thermodynamic state (Pf, Tf); an external cooling device provided in the process path between the compression device (C) and the pump (P); an external feed circuit to at least partially fill the pump (P) with process fluid, the process fluid being at the same thermodynamic conditions to that which is fed by the compression device (C) during activation of the compression device (C) and, at the same time, the pump (P); a motor device (M) able to drive said compression device (C) and said pump (P); and a pressure casing in which are enclosed at least said compression device (C) and the pump (P) mechanically coupled to each other.
A detector tile for a photon counting detector comprising a plurality of detector tiles, wherein the detector tile comprises: a sensor material layer ; an integrated circuit ; an input/output connection or flex ; a high voltage electrode or foil ; and an anti scatter grid ; wherein, the input/output connection or flex is connected to the integrated circuit; wherein, the integrated circuit is configured to readout signals from the sensor material layer; wherein, the anti scatter grid is positioned adjacent to a surface of the sensor material layer; and wherein, the high voltage electrode or foil extends across the surface of the sensor material layer and is configured to provide a bias voltage to the surface of the sensor material layer, and wherein the high voltage electrode or foil comprises at least one tail section , characterized in that the high voltage electrode or foil is configured to make an electrical connection with the high voltage electrode or foil of an adjacent detector tile via one or more tail sections of the at least one tail section of the first detector tile. a sensor material layer ; an integrated circuit ; an input/output connection or flex ; a high voltage electrode or foil ; and an anti scatter grid ; wherein, the input/output connection or flex is connected to the integrated circuit; wherein, the integrated circuit is configured to readout signals from the sensor material layer; wherein, the anti scatter grid is positioned adjacent to a surface of the sensor material layer; and wherein, the high voltage electrode or foil extends across the surface of the sensor material layer and is configured to provide a bias voltage to the surface of the sensor material layer, and wherein the high voltage electrode or foil comprises at least one tail section , characterized in that the high voltage electrode or foil is configured to make an electrical connection with the high voltage electrode or foil of an adjacent detector tile via one or more tail sections of the at least one tail section of the first detector tile.
A method for producing a window pane of a vehicle, said window pane having a first curved window pane body and a second curved window pane body and at least one functional film structure which is disposed between the two window pane bodies , the method comprising the following steps: - providing the first curved window pane body , which has an inner surface and an outer surface; - providing the functional film structure and arranging the same in a planar and level manner with a horizontal orientation; - applying a first adhesive system to a surface of the functional film structure in such a manner that the adhesive system is present at the functional film structure in hardened form; - moulding the functional film structure which is provided with the hardened adhesive system to the inner surface of the first window pane body in such a manner that the functional film structure follows a curvature of the first window pane body ; - providing the second curved window pane body and applying a second adhesive system in liquid form; - attaching the second window pane body by means of the second adhesive system in its liquid form to produce a pane compound which comprises the first and the second window pane body ; and - subsequently hardening the second adhesive system. - providing the first curved window pane body , which has an inner surface and an outer surface; - providing the functional film structure and arranging the same in a planar and level manner with a horizontal orientation; - applying a first adhesive system to a surface of the functional film structure in such a manner that the adhesive system is present at the functional film structure in hardened form; - moulding the functional film structure which is provided with the hardened adhesive system to the inner surface of the first window pane body in such a manner that the functional film structure follows a curvature of the first window pane body ; - providing the second curved window pane body and applying a second adhesive system in liquid form; - attaching the second window pane body by means of the second adhesive system in its liquid form to produce a pane compound which comprises the first and the second window pane body ; and - subsequently hardening the second adhesive system.
Combined control method of an Organic Rankine Cycle (ORC) power plant , wherein - said plant comprises at least a feed pump , a heat exchanger , an expansion turbine and a condenser , being the heat exchanger and the expansion turbine in fluid dynamic connection by means of at least one admission line which is provide with an admission valve (AV) and being the heat exchanger and the condenser in fluid connection by means of at least one by-pass line which is provided with a by-pass valve (BV), said Organic Rankine Cycle (ORC) power plant furthermore comprising a control unit and a means for receiving a set point value of a required power, - operating said Organic Rankine Cycle power plant includes a step of feeding an organic working fluid, a step of heating and/or vaporizing the same working fluid, an expansion phase and a step of condensing the same working fluid, - said combined control method comprising that said control unit regulates the power supplied from the Organic Rankine Cycle (ORC) power plant by determining an opening degree (%AV) of the admission valve (AV) as a function of the received set point value of the required power and determining an opening degree of the by-pass valve (%BV) as a function of the opening degree (%AV) of the admission valve (AV), so that the total flow rate of the organic working fluid remains substantially constant during changing of the power supply output. - said plant comprises at least a feed pump , a heat exchanger , an expansion turbine and a condenser , being the heat exchanger and the expansion turbine in fluid dynamic connection by means of at least one admission line which is provide with an admission valve (AV) and being the heat exchanger and the condenser in fluid connection by means of at least one by-pass line which is provided with a by-pass valve (BV), said Organic Rankine Cycle (ORC) power plant furthermore comprising a control unit and a means for receiving a set point value of a required power, - operating said Organic Rankine Cycle power plant includes a step of feeding an organic working fluid, a step of heating and/or vaporizing the same working fluid, an expansion phase and a step of condensing the same working fluid, - said combined control method comprising that said control unit regulates the power supplied from the Organic Rankine Cycle (ORC) power plant by determining an opening degree (%AV) of the admission valve (AV) as a function of the received set point value of the required power and determining an opening degree of the by-pass valve (%BV) as a function of the opening degree (%AV) of the admission valve (AV), so that the total flow rate of the organic working fluid remains substantially constant during changing of the power supply output.
A surge protection device "SPD" with a double-trip mechanism, comprising a frame , an electrode , and a reed , wherein the electrode is provided on the frame ; the reed corresponds to the electrode and is welded with the electrode through a low-temperature alloy; and the SPD further comprises a first trip structure and a second trip structure on the frame ; the first trip structure comprises a slider and a first tension spring ; and the first tension spring comprises one end connected to the frame , and the other end connected to the slider ; the second trip structure comprises a second tension spring ; and the second tension spring comprises one end connected to the frame , and the other end connected to the reed ; and when the SPD is triggered, the first tension spring drives the slider to move to the electrode and be located between the electrode and the reed , and the second tension spring drives the reed to move toward a direction away from the electrode . with a double-trip mechanism, comprising a frame , an electrode , and a reed , wherein the electrode is provided on the frame ; the reed corresponds to the electrode and is welded with the electrode through a low-temperature alloy; and the SPD further comprises a first trip structure and a second trip structure on the frame ; the first trip structure comprises a slider and a first tension spring ; and the first tension spring comprises one end connected to the frame , and the other end connected to the slider ; the second trip structure comprises a second tension spring ; and the second tension spring comprises one end connected to the frame , and the other end connected to the reed ; and when the SPD is triggered, the first tension spring drives the slider to move to the electrode and be located between the electrode and the reed , and the second tension spring drives the reed to move toward a direction away from the electrode .
A medical appliance for managing fecal or urinary waste comprising a bag connector system and an external waste storage container, wherein the bag connector system comprises: a) a first coupling element comprising a first housing having a fluid inlet and a fluid outlet , the first housing comprising a self-closing seal to prevent fluid flow from exiting the fluid outlet of the first coupling element, wherein the self-closing seal comprises a sliding cover connected to a spring element , and is positioned outside of the housing of the first coupling element; and b) a second coupling element comprising a second housing having a fluid inlet and a fluid outlet , the second coupling element fluid inlet configured to displace the self-closing seal of the first coupling element when inserted into the fluid outlet of the first coupling element ; and wherein uncoupling of the first coupling element and the second coupling element results in minimal fluid contamination on outer surfaces of the coupling elements . a) a first coupling element comprising a first housing having a fluid inlet and a fluid outlet , the first housing comprising a self-closing seal to prevent fluid flow from exiting the fluid outlet of the first coupling element, wherein the self-closing seal comprises a sliding cover connected to a spring element , and is positioned outside of the housing of the first coupling element; and b) a second coupling element comprising a second housing having a fluid inlet and a fluid outlet , the second coupling element fluid inlet configured to displace the self-closing seal of the first coupling element when inserted into the fluid outlet of the first coupling element ; and