mhurhangee/ep-ind-claims huggingface dataset:
A MEMS gas sensor, comprising: a photoacoustic sensor comprising a thermal emitter, an acoustic transducer, and a measurement cavity, wherein the thermal emitter and the acoustic transducer are arranged inside said measurement cavity, wherein the thermal emitter comprises a semiconductor substrate and a membrane being supported by the semiconductor substrate, the membrane including a heating element, and a chemical sensor thermally coupled to the heating element, the chemical sensor including a gas adsorbing layer, wherein the thermal emitter comprises a predetermined temperature profile according to which the heating element is configured to heat a first portion ( A 1) of the thermal emitter to a first temperature ( T 1) so as to emit infrared radiation within a first temperature range (Δ T 1) for operating the photoacoustic sensor, and to heat a second portion ( A 2) of the thermal emitter to a second temperature ( T 2) being lower than the first temperature ( T 1) so as to emit heat within a second temperature range ( ΔT 2) for operating the chemical sensor, wherein the adsorbing layer is arranged at the second portion ( A 2) of the thermal emitter. a photoacoustic sensor comprising a thermal emitter, an acoustic transducer, and a measurement cavity, wherein the thermal emitter and the acoustic transducer are arranged inside said measurement cavity, wherein the thermal emitter comprises a semiconductor substrate and a membrane being supported by the semiconductor substrate, the membrane including a heating element, and a chemical sensor thermally coupled to the heating element, the chemical sensor including a gas adsorbing layer, wherein the thermal emitter comprises a predetermined temperature profile according to which the heating element is configured to heat a first portion ( A 1) of the thermal emitter to a first temperature ( T 1) so as to emit infrared radiation within a first temperature range (Δ T 1) for operating the photoacoustic sensor, and to heat a second portion ( A 2) of the thermal emitter to a second temperature ( T 2) being lower than the first temperature ( T 1) so as to emit heat within a second temperature range ( ΔT 2) for operating the chemical sensor, wherein the adsorbing layer is arranged at the second portion ( A 2) of the thermal emitter.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a first synchronization signal, SS, block that does not include remaining minimum system information, RMSI, wherein the first SS block indicates an offset for obtaining a second SS block that includes RMSI; and determining a location of the second SS block based at least in part on the offset. receiving a first synchronization signal, SS, block that does not include remaining minimum system information, RMSI, wherein the first SS block indicates an offset for obtaining a second SS block that includes RMSI; and determining a location of the second SS block based at least in part on the offset.
A memory device, comprising: at least one command contact; and at least one data contact, characterized in that the memory device is configured to: detect a condition in which the at least one command contact is connected to a controller and the at least one data contact is disconnected from the controller, and in response to the detected condition, enter a first operating mode with a lower nominal power rating than a second operating mode of the memory device. at least one command contact; and at least one data contact, characterized in that the memory device is configured to: detect a condition in which the at least one command contact is connected to a controller and the at least one data contact is disconnected from the controller, and in response to the detected condition, enter a first operating mode with a lower nominal power rating than a second operating mode of the memory device. detect a condition in which the at least one command contact is connected to a controller and the at least one data contact is disconnected from the controller, and in response to the detected condition, enter a first operating mode with a lower nominal power rating than a second operating mode of the memory device.
Measurement device comprising a support having recesses provided with an opening leading toward the outside in which sensors are provided, all of said openings of said recesses being covered by a single film, the height of said recesses being such that the sensors are not in contact with the film.
An agent containing parathyroid hormone as the active ingredient for use in the treatment or prevention of osteoporosis in a patient at high risk for bone fractures, wherein the PTH containing agent is to be administered once a week in a unit dose of 200 units over a duration exceeding 48 weeks.
A polymeric material comprising a reaction product of a polymerized product of a polymerizable composition comprising i) a monomer mixture comprising 1) 8 to 40 weight percent maleic anhydride based on a total weight of monomers in the monomer mixture; and 2) 48 to 75 weight percent divinylbenzene based on the total weight of monomers in the monomer mixture; and 3) 0 to 20 weight percent of a styrene-type monomer based on the total weight of monomers in the monomer mixture, wherein the styrene-type monomer is styrene, an alkyl substituted styrene, or a combination thereof; and ii) an organic solvent comprising a ketone, an ester, acetonitrile, or a mixture thereof, wherein the polymerizable composition is a single phase prior to polymerization; and wherein the polymeric material has a BET specific surface area equal to at least 300 m 2 /gram. i) a monomer mixture comprising 1) 8 to 40 weight percent maleic anhydride based on a total weight of monomers in the monomer mixture; and 2) 48 to 75 weight percent divinylbenzene based on the total weight of monomers in the monomer mixture; and 3) 0 to 20 weight percent of a styrene-type monomer based on the total weight of monomers in the monomer mixture, wherein the styrene-type monomer is styrene, an alkyl substituted styrene, or a combination thereof; and 1) 8 to 40 weight percent maleic anhydride based on a total weight of monomers in the monomer mixture; and 2) 48 to 75 weight percent divinylbenzene based on the total weight of monomers in the monomer mixture; and 3) 0 to 20 weight percent of a styrene-type monomer based on the total weight of monomers in the monomer mixture, wherein the styrene-type monomer is styrene, an alkyl substituted styrene, or a combination thereof; and ii) an organic solvent comprising a ketone, an ester, acetonitrile, or a mixture thereof,
A method of wireless communication performed by a user equipment, UE, comprising: transmitting, to a source base station associated with a source master cell group, MCG, a physical uplink shared channel, PUSCH, repetition in each of one or more slots of the source MCG during a dual active protocol stack, DAPS-based handover of the UE from the source MCG to a target MCG; and performing, to a target base station associated with the target MCG, an uplink transmission in one or more slots to the target MCG during the DAPS-based handover, wherein PUSCH repetitions associated with the source MCG that overlap in time with the uplink transmission to the target MCG are canceled and a counting of the PUSCH repetitions is based at least in part on slots of the source MCG associated with canceled PUSCH repetitions. transmitting, to a source base station associated with a source master cell group, MCG, a physical uplink shared channel, PUSCH, repetition in each of one or more slots of the source MCG during a dual active protocol stack, DAPS-based handover of the UE from the source MCG to a target MCG; and performing, to a target base station associated with the target MCG, an uplink transmission in one or more slots to the target MCG during the DAPS-based handover, wherein PUSCH repetitions associated with the source MCG that overlap in time with the uplink transmission to the target MCG are canceled and a counting of the PUSCH repetitions is based at least in part on slots of the source MCG associated with canceled PUSCH repetitions.
An apparatus, comprising a first wireless communications device, SS, comprising a processor and a radio coupled to the processor, wherein the first SS is adapted to communicate directly with a first access point, AP, the first SS comprising: a means for transmitting a request for a direct communications link with a second SS; a means for receiving a response to the request; and a means for transmitting a confirmation of the response; wherein the first SS is further adapted to establish the direct communications link with the second SS, using parameters contained in at least one of the request, the response, and the confirmation; and characterized in that: the request includes a type of network protocol to be used for the direct communications link; the parameters include an indicator of physical location of at least one of the first SS and the second SS; and the first SS is adapted to transmit the request for a direct communication link with the second SS to be communicated to a second AP having a direct communications link with the second SS. the request includes a type of network protocol to be used for the direct communications link; the parameters include an indicator of physical location of at least one of the first SS and the second SS; and the first SS is adapted to transmit the request for a direct communication link with the second SS to be communicated to a second AP having a direct communications link with the second SS.
A method for determining variations of a solenoid fluid control valve response within a temperature range, the method comprising: performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep; characterised in that the method further comprises the steps of: assigning a first metric (502, 504, 506) to the solenoid fluid control valve based on the first current; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric. performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep; characterised in that the method further comprises the steps of: assigning a first metric (502, 504, 506) to the solenoid fluid control valve based on the first current; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric. assigning a first metric (502, 504, 506) to the solenoid fluid control valve based on the first current; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric.
A urethane acrylate being a reaction product of a raw material composition comprising at least a diol component, a component having acrylic unsaturation and an isocyanate component characterised in, that said component comprises at least one alkoxylated 2,4,8,10-tetraoxaspiro[5.5]undecane-3,9-dialkanol of formula wherein each substituent R individually is a linear or branched C 1 -C 8 alkylene group and m, n, p and q individually are integers each being at least 1, that said component comprises at least one hydroxyalkyl acrylate, hydroxyalkyl methacrylate and/or hydroxyalkyl methylacrylate, and/or comprises acrylic acid, methacrylic acid and/or a methylacrylic acid and/or a corresponding alkyl ester of a said acrylic acid, and that said component comprises at least one di or polyisocyanate and/or a derivative thereof.
Thermoelectric generator, comprising a flow control device configured to be used in said thermoelectric generator, said generator generating a temperature gradient between a cold source and a hot source in at least two zones (A, B), characterised in that it comprises a valve, said valve comprising a valve body and a plate hinged with respect to the valve body and configured to occupy an open position and a closed position, said valve being configured to be positioned inside said generator, between said two zones (A, B), so as to modulate the quantity of a first fluid circulating through said thermoelectric generator, said thermoelectric generator comprising a core of thermoelectric modules, said valve being configured to divert radially the first fluid through the core.
A weighing device for an espresso coffee machine, the device comprising a weighing platform locatable in the drip tray area of the espresso coffee machine under a group thereof, a control unit connected to the weighing platform, a start/stop button,the weighing device being characterized in that it comprises a timer unit and a display all being connected to the control unit, such that, in use, the weight of a brewed shot and the time taken to deliver it are measured by the weighing platform and the timer unit respectively, with the results being shown on the display.
A negative active material for a rechargeable lithium battery comprising an amorphous silicon-containing compound represented by the following Chemical Formula 1, [Chemical Formula 1] SiC x wherein, 0.05 ≤ x ≤ 1.5
A telecommunications device (10, 100, 300) for a telecommunications network, comprising a traffic processing unit for processing of telecommunications data, a transceiving unit connected to the traffic processing unit (12, 112, 312) for interfacing the traffic processing unit to a communication medium of the telecommunications network and a controller (13, 113,313) configured to enable or disable said telecommunications device for reception and/or transmission of telecommunications data, the telecommunication device normally adapted to be active and working, said controller (13, 113, 313) being connected to the transceiving unit (11, 110) and comprising means for sending a plurality of keep-alive signals to the transceiving unit at predetermined instants or on a periodic basis, said transceiving unit (11, 110) being configured to remain being switched on as long as the transceiving unit (11, 110) receives keep-alive signals and to switch off itself if no keep-alive signal from the controller is received after a predetermined time, wherein said controller (13, 113, 313) is further adapted to communicate via a protection protocol with another controller in a back-up telecommunications device (20, 200, 400) which is normally disabled, said working telecommunications device (10, 100, 300) being configured to be connected to the same communication medium of the telecommunications network as said back-up telecommunications device and to implement a virtual switch through said protection protocol for switching telecommunications data from the working telecommunications device (10, 100, 300) to the back-up telecommunications device (20, 200, 400) when a fault occurs.
A method for characterizing a fault affecting a cable in which a reference signal s of limited time support is injected and a measurement r of the reflection of said reference signal s in the cable is taken, characterized in that said method comprises the following steps: - identifying a section of the measurement r corresponding to a fault, this measurement section being called the signature of the fault; - generating a modified reference signal s', of parameterizable amplitude, equal to the sum of said reference signal s and of said reference signal s inverted and delayed by a parameterizable delay; - determining conjointly the values of the parameterizable delay and of the parameterizable amplitude that minimize the error between the modified reference signal s' and the signature of the fault; - deducing therefrom an estimation of the length of the fault from the determined value of said delay. - identifying a section of the measurement r corresponding to a fault, this measurement section being called the signature of the fault; - generating a modified reference signal s', of parameterizable amplitude, equal to the sum of said reference signal s and of said reference signal s inverted and delayed by a parameterizable delay; - determining conjointly the values of the parameterizable delay and of the parameterizable amplitude that minimize the error between the modified reference signal s' and the signature of the fault; - deducing therefrom an estimation of the length of the fault from the determined value of said delay.
Device for securing an air intake through a flow surface, the air intake being intended to guide at least a part of a flow of air flowing over the flow surface towards a duct inlet situated beneath the flow surface, the air intake comprising an opening made on the flow surface, a ramp and at least two lateral walls (6a, 6b), the opening being delimited by a lip and two lateral edges, the two lateral edges extending symmetrically on either side of the lip while gradually converging towards one another, the lateral walls (6a, 6b) extending respectively between the lateral edges and the ramp, the ramp extending between the flow surface and a region beneath the flow surface, the duct inlet being defined between the lip and the ramp, characterized in that it comprises at least one plate intended to at least partially close off the opening, the plate being provided with a counter-lip and at least two elastic elements (13a, 13b) configured to exert a force respectively against the two lateral walls (6a, 6b) in order to press the counter-lip against the lip when the device is installed in the air intake.
A method for manufacturing an optical fiber base material including producing glass fine particles through a hydrolysis of a glass material gas in a flame created by an oxidizing gas and a combustible gas, the method using a burner comprising: a central gas discharge port that ejects a gas containing an oxidizing gas; a plurality of small-diameter gas discharge ports that are arranged in a concentric circle with the central gas discharge port so as to externally surround the central gas discharge port, the plurality of small-diameter gas discharge ports ejecting a gas containing an oxidizing gas; a combustible gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the central gas discharge port, the combustible gas discharge port having the plurality of small-diameter gas discharge port arranged therein, the combustible gas discharge port ejecting a combustible gas; and an oxidizing gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the combustible gas discharge port, the oxidizing gas discharge port ejecting an oxidizing gas, characterized in that relations of H/(O1 + O 2 + O 3) > 2 and O 1 < O 2 < O 3 are both satisfied where O 1 denotes a gas flow rate at the central gas discharge port, O 2 denotes a gas flow rate at the plurality of small-diameter gas discharge ports, O 3 denotes a gas flow rate at the oxidizing gas discharge port, and H denotes a gas flow rate at the combustible gas discharge port. a central gas discharge port that ejects a gas containing an oxidizing gas; a plurality of small-diameter gas discharge ports that are arranged in a concentric circle with the central gas discharge port so as to externally surround the central gas discharge port, the plurality of small-diameter gas discharge ports ejecting a gas containing an oxidizing gas; a combustible gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the central gas discharge port, the combustible gas discharge port having the plurality of small-diameter gas discharge port arranged therein, the combustible gas discharge port ejecting a combustible gas; and an oxidizing gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the combustible gas discharge port, the oxidizing gas discharge port ejecting an oxidizing gas, characterized in that relations of H/(O1 + O 2 + O 3) > 2 and O 1 < O 2 < O 3 are both satisfied where O 1 denotes a gas flow rate at the central gas discharge port, O 2 denotes a gas flow rate at the plurality of small-diameter gas discharge ports, O 3 denotes a gas flow rate at the oxidizing gas discharge port, and H denotes a gas flow rate at the combustible gas discharge port.
A synchronizer circuit having controllable metastability, the synchronizer circuit comprising: a first flip-flop circuit (202) comprising a first master latch (204) connected in series with a first slave latch (206); and a second flip-flop circuit (202) comprising a second master latch connected in series with a second slave latch (206), wherein the first and second flip-flops each comprise transistors connected between a positive power supply voltage and a negative power supply voltage; wherein an output of the first flip-flop circuit is connected to an input of the second flip-flop circuit, at least a portion of the first flip-flop circuit is implemented in a first PWell isolated by an underlying a deep isolation NWell, at least a portion of the first flip-flop circuit is implemented in a first NWell that electrically contacts the deep isolation NWell, the first NWell is connected to a first bias voltage that is less than the positive power supply voltage, and the first PWell is connected to a second bias voltage that is greater than the negative power supply voltage. a first flip-flop circuit (202) comprising a first master latch (204) connected in series with a first slave latch (206); and a second flip-flop circuit (202) comprising a second master latch connected in series with a second slave latch (206), wherein the first and second flip-flops each comprise transistors connected between a positive power supply voltage and a negative power supply voltage; wherein an output of the first flip-flop circuit is connected to an input of the second flip-flop circuit, at least a portion of the first flip-flop circuit is implemented in a first PWell isolated by an underlying a deep isolation NWell, at least a portion of the first flip-flop circuit is implemented in a first NWell that electrically contacts the deep isolation NWell, the first NWell is connected to a first bias voltage that is less than the positive power supply voltage, and the first PWell is connected to a second bias voltage that is greater than the negative power supply voltage. an output of the first flip-flop circuit is connected to an input of the second flip-flop circuit, at least a portion of the first flip-flop circuit is implemented in a first PWell isolated by an underlying a deep isolation NWell, at least a portion of the first flip-flop circuit is implemented in a first NWell that electrically contacts the deep isolation NWell, the first NWell is connected to a first bias voltage that is less than the positive power supply voltage, and the first PWell is connected to a second bias voltage that is greater than the negative power supply voltage.