mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device, comprising: a plurality of input devices configured to receive a plurality of input signals, each of which includes a speech signal and a noise signal; and a processor electrically connected with the input devices, wherein the processor is configured to: determine a signal to noise ratio, SNR, value for the plurality of input signals for each frequency band; determine a first parameter indicating a phase shift to frequency in the plurality of input signals in a first frequency band where the SNR value is greater than or equal to a specified threshold; determine a second parameter indicating a phase shift to frequency in the plurality of input signals in a second frequency band where the SNR value is less than the threshold, based on the first parameter; and perform beamforming for the plurality of input signals based on the first parameter and the second parameter. a plurality of input devices configured to receive a plurality of input signals, each of which includes a speech signal and a noise signal; and a processor electrically connected with the input devices, wherein the processor is configured to: determine a signal to noise ratio, SNR, value for the plurality of input signals for each frequency band; determine a first parameter indicating a phase shift to frequency in the plurality of input signals in a first frequency band where the SNR value is greater than or equal to a specified threshold; determine a second parameter indicating a phase shift to frequency in the plurality of input signals in a second frequency band where the SNR value is less than the threshold, based on the first parameter; and perform beamforming for the plurality of input signals based on the first parameter and the second parameter. determine a signal to noise ratio, SNR, value for the plurality of input signals for each frequency band; determine a first parameter indicating a phase shift to frequency in the plurality of input signals in a first frequency band where the SNR value is greater than or equal to a specified threshold; determine a second parameter indicating a phase shift to frequency in the plurality of input signals in a second frequency band where the SNR value is less than the threshold, based on the first parameter; and perform beamforming for the plurality of input signals based on the first parameter and the second parameter.
A driver circuit for an LED, having a connection for a mains voltage, a rectifier (GR1) and a filter circuit (L1), an inductor (L2) with a primary winding (L2p) and a secondary winding (L2s) coupled thereto and a switch (S1), wherein the inductor (L2) is magnetized, when the switch (S1) is closed, and the inductor (L2) is demagnetized, when the switch (S1) is opened, and at least during the phase of the demagnetization the current feeds the LED through the inductor (L2), wherein the switch (S1) is always opened only when the current through the switch (S1) has reached a predetermined threshold value, wherein a supply voltage is detected via the rectified voltage, characterized in that the predetermined threshold value depends on the current amplitude of the supply voltage (Vin), wherein the driver circuit can be connected to a commercially available dimmer not belonging to the driver circuit and wherein the switch (S1) is also kept closed, if the dimmer cuts off part of the phase, as long as the current through the switch (S1) has not reached a further predetermined threshold value.
A method of wireless communication operable at a scheduling entity , comprising: identifying a slot to carry feedback corresponding to a long downlink burst , comprising selecting, based on a power headroom of a scheduled entity , either a short uplink control burst provided in the same slot as the long downlink burst or a long uplink control burst in a later-provided slot, wherein the long uplink control burst in the later-provided slot is selected when the scheduled entity does not have sufficient headroom to transmit the short uplink control burst in the same slot as the long downlink burst; transmitting scheduling information, operative to schedule transmission of uplink control information in the slot identified to carry the feedback corresponding to the long downlink burst transmission by the scheduled entity, wherein the uplink control information includes the feedback corresponding to the long downlink burst transmission; transmitting the long downlink burst in one of two or more slots that provide for a short uplink control burst; and transmitting a short downlink control burst in at least one slot that provides for a long uplink burst. identifying a slot to carry feedback corresponding to a long downlink burst , comprising selecting, based on a power headroom of a scheduled entity , either a short uplink control burst provided in the same slot as the long downlink burst or a long uplink control burst in a later-provided slot, wherein the long uplink control burst in the later-provided slot is selected when the scheduled entity does not have sufficient headroom to transmit the short uplink control burst in the same slot as the long downlink burst; transmitting scheduling information, operative to schedule transmission of uplink control information in the slot identified to carry the feedback corresponding to the long downlink burst transmission by the scheduled entity, wherein the uplink control information includes the feedback corresponding to the long downlink burst transmission; transmitting the long downlink burst in one of two or more slots that provide for a short uplink control burst; and transmitting a short downlink control burst in at least one slot that provides for a long uplink burst.
A brake device for applying a brake to a vehicle provided with a target member by using an electric actuator to drive a frictional member so that the frictional member is pressed against the target member , the brake device comprising: an acquiring unit for acquiring driving information regarding driving of the electric actuator ; a travel distance calculating unit for, based on the acquired driving information, calculating a travel distance by which the frictional member travels to touch the target member ; a wear amount calculating unit for calculating a wear amount (C) of the frictional member based on a currently calculated value of the travel distance and an old value of the travel distance, and a control unit for controlling driving of the electric actuator , wherein the control unit controls the driving of the electric actuator such that the frictional member travels to a position that is at a predetermined distance from the position where the frictional member touches the target member , and characterized in that , when the wear amount (C) of the frictional member is greater than a wear amount (C) of a frictional member of another brake device provided on another vehicle making up a same train, the control unit adjusts a braking force such that the braking force is less than a braking force of the other brake device. an acquiring unit for acquiring driving information regarding driving of the electric actuator ; a travel distance calculating unit for, based on the acquired driving information, calculating a travel distance by which the frictional member travels to touch the target member ; a wear amount calculating unit for calculating a wear amount (C) of the frictional member based on a currently calculated value of the travel distance and an old value of the travel distance, and a control unit for controlling driving of the electric actuator , wherein the control unit controls the driving of the electric actuator such that the frictional member travels to a position that is at a predetermined distance from the position where the frictional member touches the target member , and characterized in that , when the wear amount (C) of the frictional member is greater than a wear amount (C) of a frictional member of another brake device provided on another vehicle making up a same train, the control unit adjusts a braking force such that the braking force is less than a braking force of the other brake device.
A mountaineering ski, of a type provided with a crawler belt motorized by means of a motor powered by a battery , comprising a binding equipped with a microswitch working between an operating position of said crawler belt when the boot is in a raised position with respect to the binding, and a stop position of the movement of the crawler belt when the boot is in the leaning position on the binding itself, characterized in that said binding is provided with a heelpiece movable, in a direction perpendicular to the ski in contrast to the action of a spring , between a raised position of activation of a microswitch and a lowered position of deactivation of said microswitch.
A laminate comprising: a plurality of gas barrier layers (A) formed from a polymer comprising a gas barrier resin; and one or a plurality of elastomer layers (B) comprising at least one adhesive layer (B1), wherein a sum of number of the gas barrier layers (A) and number of the one or plurality of elastomer layers (B) is 5 or greater and 300 or less, the adhesive layer (B1) is laminated as at least one outermost layer, the adhesive layer (B1) comprises a styrene elastomer and is formed from a polymer having an iodine value of 200 or greater and 300 or less, an average thickness of the adhesive layer (B1) laminated as the outermost layer is 0.1 μm or greater and 10 μm or less, the gas barrier resin has an oxygen permeation rate determined under a condition at 20 °C and 65% RH in accordance with a method prescribed in JIS K 7126-2 (equal pressure method; 2006) of 100 mL·20 μm(m 2 ·day·atm) or less, the one or plurality of elastomer layers (B) are formed from a polymer comprising an elastomer, which after being stretched to gain a twofold increase in length under a condition at 20°C and maintained as it is for 1 minute, contracts to be less than 1.5 times longer than its original length within 1 minute, and the iodine value is determined by iodometric titration as defined in the description of the present application. a plurality of gas barrier layers (A) formed from a polymer comprising a gas barrier resin; and one or a plurality of elastomer layers (B) comprising at least one adhesive layer (B1), wherein a sum of number of the gas barrier layers (A) and number of the one or plurality of elastomer layers (B) is 5 or greater and 300 or less, the adhesive layer (B1) is laminated as at least one outermost layer, the adhesive layer (B1) comprises a styrene elastomer and is formed from a polymer having an iodine value of 200 or greater and 300 or less, an average thickness of the adhesive layer (B1) laminated as the outermost layer is 0.1 μm or greater and 10 μm or less, the gas barrier resin has an oxygen permeation rate determined under a condition at 20 °C and 65% RH in accordance with a method prescribed in JIS K 7126-2 (equal pressure method; 2006) of 100 mL·20 μm(m 2 ·day·atm) or less, the one or plurality of elastomer layers (B) are formed from a polymer comprising an elastomer, which after being stretched to gain a twofold increase in length under a condition at 20°C and maintained as it is for 1 minute, contracts to be less than 1.5 times longer than its original length within 1 minute, and the iodine value is determined by iodometric titration as defined in the description of the present application.
An injection molding machine, comprising: a motor ; a motion conversion mechanism which converts a rotary motion of the motor into a linear motion, the motion conversion mechanism being comprised by a motion conversion mechanism assembly ; a pressure detector ; a pressure detector retainer ; and a base to which the motor and the motion conversion mechanism are assembled, characterized in that the base and the pressure detector are spigot-fitted to each other, thus centering and positioning the pressure detector in the front-rear direction of the injection molding machine with respect to an assembly hole , the pressure detector is spigot-fitted to the motion conversion mechanism assembly , thus centering and positioning said motion conversion mechanism assembly in the front-rear direction of the injection molding machine with respect to the assembly hole , the pressure detector is spigot-fitted to the pressure detector retainer , thus centering and positioning said pressure detector retainer in the front-rear direction of the injection molding machine with respect to the assembly hole , and the pressure detector retainer is spigot-fitted to the motor , thus centering and positioning said motor in the front-rear direction of the injection molding machine with respect to the assembly hole . a motor ; a motion conversion mechanism which converts a rotary motion of the motor into a linear motion, the motion conversion mechanism being comprised by a motion conversion mechanism assembly ; a pressure detector ; a pressure detector retainer ; and a base to which the motor and the motion conversion mechanism are assembled, characterized in that the base and the pressure detector are spigot-fitted to each other, thus centering and positioning the pressure detector in the front-rear direction of the injection molding machine with respect to an assembly hole , the pressure detector is spigot-fitted to the motion conversion mechanism assembly , thus centering and positioning said motion conversion mechanism assembly in the front-rear direction of the injection molding machine with respect to the assembly hole , the pressure detector is spigot-fitted to the pressure detector retainer , thus centering and positioning said pressure detector retainer in the front-rear direction of the injection molding machine with respect to the assembly hole , and the pressure detector retainer is spigot-fitted to the motor , thus centering and positioning said motor in the front-rear direction of the injection molding machine with respect to the assembly hole .
A method of measuring a radon concentration or a radon exposure level comprising: placing a plurality of individual radon measurement instruments at locations (105; 106; 108), each instrument being capable of data output; receiving radon measurement data from each of said plurality of instruments; combining said data from said plurality of instruments into a single data set; and calculating a radon concentration or radon exposure value from said single data set; characterized in that the single data set is divided into time slots and wherein the method comprises calculating for each time slot a radon concentration or radon exposure value and a measurement uncertainty value based on the number of disintegrations detected within that time slot from more than one individual instrument. placing a plurality of individual radon measurement instruments at locations (105; 106; 108), each instrument being capable of data output; receiving radon measurement data from each of said plurality of instruments; combining said data from said plurality of instruments into a single data set; and calculating a radon concentration or radon exposure value from said single data set; characterized in that the single data set is divided into time slots and wherein the method comprises calculating for each time slot a radon concentration or radon exposure value and a measurement uncertainty value based on the number of disintegrations detected within that time slot from more than one individual instrument.
An oil-based inkjet ink comprising at least a pigment, a dispersant and an organic solvent, wherein the pigment is copper phthalocyanine, all the organic solvent used in the ink is water-insoluble, a calcium content in the ink is 8 ppm or less, and a magnesium content in the ink is 3 ppm or less, and further wherein said ink is obtainable by a method including preparing said ink from raw materials comprising at least said pigment, said dispersant and said organic solvent, and washing a raw material with ion-exchanged water or contacting said prepared ink with an ion-exchange resin to reduce the calcium content in the ink and the magnesium content in the ink.
A wound dressing device for securing a dressing in position on a wound, wherein the wound dressing device comprises: a. a retaining device for encompassing a portion of the body; b. a dressing , and; c. a fastening element that can secure the dressing in position; the fastening element being configured at least substantially external to the retaining device , the dressing being configured at least substantially internal to the retaining device , wherein: i) the retaining device comprises a perforated element defining at least one opening therethrough, thereby permitting the fastening element and the dressing to be configured to at least partially cover at least one opening in the perforated element such that the dressing and the fastening element can adhere together through the at least one opening such that the dressing can be secured to the fastening element through the retaining device , or ii) when in such a configuration the dressing may be secured to the fastening element through the retaining device by magnetic attraction. a. a retaining device for encompassing a portion of the body; b. a dressing , and; c. a fastening element that can secure the dressing in position; i) the retaining device comprises a perforated element defining at least one opening therethrough, thereby permitting the fastening element and the dressing to be configured to at least partially cover at least one opening in the perforated element such that the dressing and the fastening element can adhere together through the at least one opening such that the dressing can be secured to the fastening element through the retaining device , or ii) when in such a configuration the dressing may be secured to the fastening element through the retaining device by magnetic attraction.
An assembly for monitoring air flow at a surface of a rotor blade of a wind turbine, the assembly comprising a surface module adapted to be arranged at a predetermined location on the rotor blade surface , the surface module comprising two air inlets facing opposite directions along an axis, a sensor module comprising two pressure sensors, wherein one of the two pressure sensors is in fluidic communication with one of the two air inlets and the other one of the two pressure sensors is in fluidic communication with the other one of the two air inlets, wherein the sensor module is adapted to output two pressure signals indicative of the pressures sensed by the two pressure sensors, and a processing unit adapted to determine at least one of a flow direction and a flow speed along the axis based on the two pressure signals, characterized in that the surface module comprises two additional air inlets facing opposite directions along the axis and being located above the two air inlets, wherein the sensor module comprises two additional pressure sensors, one of the two further additional sensors being in fluidic communication with one of the two additional air inlets and the other one of the two additional pressure sensors being in fluidic communication with the other one of the two additional air inlets, the sensor module being adapted to output two additional pressure signals indicative of the pressures sensed by the two additional pressure sensors, and wherein the processing unit is adapted to determine at least one of an additional flow direction and an additional flow speed based on the two additional pressure signals. a surface module adapted to be arranged at a predetermined location on the rotor blade surface , the surface module comprising two air inlets facing opposite directions along an axis, a sensor module comprising two pressure sensors, wherein one of the two pressure sensors is in fluidic communication with one of the two air inlets and the other one of the two pressure sensors is in fluidic communication with the other one of the two air inlets, wherein the sensor module is adapted to output two pressure signals indicative of the pressures sensed by the two pressure sensors, and a processing unit adapted to determine at least one of a flow direction and a flow speed along the axis based on the two pressure signals, characterized in that the surface module comprises two additional air inlets facing opposite directions along the axis and being located above the two air inlets, wherein the sensor module comprises two additional pressure sensors, one of the two further additional sensors being in fluidic communication with one of the two additional air inlets and the other one of the two additional pressure sensors being in fluidic communication with the other one of the two additional air inlets, the sensor module being adapted to output two additional pressure signals indicative of the pressures sensed by the two additional pressure sensors, and wherein the processing unit is adapted to determine at least one of an additional flow direction and an additional flow speed based on the two additional pressure signals.
An audio network interface device that is configured to be used with different types of microphones, comprising: a housing that carries at least one set of electrical connectors (65-72), each of the at least one set of electrical connectors being adapted to be electrically connected to a microphone and comprising at least one general purpose input, and at least two general purpose outputs; a first network connector that is adapted to provide connection to a data network; a second network connector that is adapted to provide connection to a separate data network path for a different electronic device; a microphone phantom power source that is configured to provide phantom power to a microphone that is connected to one of the at least one set of electrical connectors; a processing system that is configured to cause the conversion of input signals from a microphone that is connected to one of the at least one set of electrical connectors, to digital output signals that are provided to the first network connector; and an internal power supply that is configured to derive power from the data network connected via the first network connector, and provide derived power to the microphone phantom power source, DC power to a microphone connector, and the processing system. a housing that carries at least one set of electrical connectors (65-72), each of the at least one set of electrical connectors being adapted to be electrically connected to a microphone and comprising at least one general purpose input, and at least two general purpose outputs; a first network connector that is adapted to provide connection to a data network; a second network connector that is adapted to provide connection to a separate data network path for a different electronic device; a microphone phantom power source that is configured to provide phantom power to a microphone that is connected to one of the at least one set of electrical connectors; a processing system that is configured to cause the conversion of input signals from a microphone that is connected to one of the at least one set of electrical connectors, to digital output signals that are provided to the first network connector; and an internal power supply that is configured to derive power from the data network connected via the first network connector, and provide derived power to the microphone phantom power source, DC power to a microphone connector, and the processing system.