mhurhangee/patent-ind-claim-en huggingface dataset:
A belt molding (10; 100) for vehicle, the belt molding (10; 100) being configured to be mounted along a lower edge of a window opening of a vehicle door and come into sliding contact with a window pane which is raised and lowered in the window opening , the belt molding (10; 100) comprising: a body portion (15; 150) configured to be mounted to a door panel (11; 110) of the vehicle door ; and a sealing portion (16, 16a; 160, 160a) configured to be in elastic contact with the window pane , wherein the sealing portion (16, 16a; 160, 160a) has a contact portion (24, 24a; 240, 240a) formed by attaching numerous fibers (25, 25a; 250, 250a) having a thickness of 1.0 to 4.5 decitex at a portion configured to be in contact with the window pane , wherein attached density of the fibers (25, 25a; 250, 250a) is 100 to 600 fibers/mm 2 , and wherein a strip-shaped sheet member to which the fibers (25, 25a; 250, 250a) are attached in advance is affixed to the contact portion (24, 24a; 240, 240a), characterized in that the strip-shaped sheet member is formed of a material that is the same kind as or compatible with the sealing portion (16, 16a; 160, 160a) and is affixed simultaneously with the extrusion molding of the belt molding . a body portion (15; 150) configured to be mounted to a door panel (11; 110) of the vehicle door ; and a sealing portion (16, 16a; 160, 160a) configured to be in elastic contact with the window pane , wherein the sealing portion (16, 16a; 160, 160a) has a contact portion (24, 24a; 240, 240a) formed by attaching numerous fibers (25, 25a; 250, 250a) having a thickness of 1.0 to 4.5 decitex at a portion configured to be in contact with the window pane , wherein attached density of the fibers (25, 25a; 250, 250a) is 100 to 600 fibers/mm 2 , and wherein a strip-shaped sheet member to which the fibers (25, 25a; 250, 250a) are attached in advance is affixed to the contact portion (24, 24a; 240, 240a), characterized in that the strip-shaped sheet member is formed of a material that is the same kind as or compatible with the sealing portion (16, 16a; 160, 160a) and is affixed simultaneously with the extrusion molding of the belt molding .
A heat pump device comprising: a compressor having a compression mechanism for compressing a refrigerant; a motor that actuates the compression mechanism provided in the compressor ; an inverter that applies a predetermined voltage to the motor ; and an inverter control unit that causes the inverter to generate a high-frequency AC voltage having a de-energized section in which the voltage applied from the inverter to the motor is zero between a section in which the voltage is positive and a section in which the voltage is negative, characterized in that the inverter control unit includes: a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated. a compressor having a compression mechanism for compressing a refrigerant; a motor that actuates the compression mechanism provided in the compressor ; an inverter that applies a predetermined voltage to the motor ; and an inverter control unit that causes the inverter to generate a high-frequency AC voltage having a de-energized section in which the voltage applied from the inverter to the motor is zero between a section in which the voltage is positive and a section in which the voltage is negative, characterized in that the inverter control unit includes: a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated. a current-value detection unit that detects a value of a current flowing to the inverter in a detection section from immediately before a start of the de-energized section to immediately after an end of the de-energized section from a current detection unit within the inverter, the value being a current value showing a current stable portion in the de-energized section; and a high-frequency-voltage generation unit that causes the inverter to generate the high-frequency AC voltage according to a power supply voltage value detected in the inverter and a current value detected by the current-value detection unit when the motor needs to be heated.
A method performed by one or more data processing apparatus, the method comprising: obtaining one or more images which each depict a mouth of a given person at a respective time point, wherein each of the respective time points are different; processing the one or more images using an image embedding neural network to generate a latent representation of the one or more images; obtaining audio data corresponding to the one or more images ; processing a representation of the audio data using an audio embedding neural network to generate a latent representation of the audio data; and processing the latent representation of the one or more images and the latent representation of the audio data using a recurrent neural network to generate an output defining a prediction for whether the given person is speaking at one or more of the respective time points, wherein the output of the recurrent neural network defines a probability of whether the given person is speaking at each of the respective time points; wherein the image embedding neural network , the audio embedding neural network , and the recurrent neural network are trained by an end-to-end optimization procedure. obtaining one or more images which each depict a mouth of a given person at a respective time point, wherein each of the respective time points are different; processing the one or more images using an image embedding neural network to generate a latent representation of the one or more images; obtaining audio data corresponding to the one or more images ; processing a representation of the audio data using an audio embedding neural network to generate a latent representation of the audio data; and processing the latent representation of the one or more images and the latent representation of the audio data using a recurrent neural network to generate an output defining a prediction for whether the given person is speaking at one or more of the respective time points, wherein the output of the recurrent neural network defines a probability of whether the given person is speaking at each of the respective time points; wherein the image embedding neural network , the audio embedding neural network , and the recurrent neural network are trained by an end-to-end optimization procedure.
A gas detector comprising: a planar mirror ; a concave spherical mirror having a and an optical axis a radiation emitter (E) and a radiation receiver (R), wherein: the spherical mirror is facing the planar mirror ; the optical axis of the spherical mirror is orthogonal to the planar mirror; the emitter (E) or the receiver (R) is arranged at the point of intersection of the spherical mirror and of the optical axis ; the receiver (R) or the emitter (E) is arranged at the point of intersection of the planar mirror and of the optical axis ; and when a beam is emitted by emitter (E), it is reflected by the planar mirror and then by the spherical mirror before reaching the receiver (R), characterized in that the emitter (E) and the receiver (R) are respectively connected to the planar and spherical mirrors at the intersections of said mirrors with the optical axis so as to form a single assembly; and in that the distance (D) between the planar and spherical mirrors being equal to 0.75 times the radius of curvature of the spherical mirror, to within 10%. a planar mirror ; a concave spherical mirror having a and an optical axis a radiation emitter (E) and a radiation receiver (R), wherein: the spherical mirror is facing the planar mirror ; the optical axis of the spherical mirror is orthogonal to the planar mirror; the emitter (E) or the receiver (R) is arranged at the point of intersection of the spherical mirror and of the optical axis ; the receiver (R) or the emitter (E) is arranged at the point of intersection of the planar mirror and of the optical axis ; and when a beam is emitted by emitter (E), it is reflected by the planar mirror and then by the spherical mirror before reaching the receiver (R), characterized in that the emitter (E) and the receiver (R) are respectively connected to the planar and spherical mirrors at the intersections of said mirrors with the optical axis so as to form a single assembly; and in that the distance (D) between the planar and spherical mirrors being equal to 0.75 times the radius of curvature of the spherical mirror, to within 10%. the spherical mirror is facing the planar mirror ; the optical axis of the spherical mirror is orthogonal to the planar mirror; the emitter (E) or the receiver (R) is arranged at the point of intersection of the spherical mirror and of the optical axis ; the receiver (R) or the emitter (E) is arranged at the point of intersection of the planar mirror and of the optical axis ; and when a beam is emitted by emitter (E), it is reflected by the planar mirror and then by the spherical mirror before reaching the receiver (R), characterized in that the emitter (E) and the receiver (R) are respectively connected to the planar and spherical mirrors at the intersections of said mirrors with the optical axis so as to form a single assembly; and in that the distance (D) between the planar and spherical mirrors being equal to 0.75 times the radius of curvature of the spherical mirror, to within 10%.
Device for detecting liquid, in particular in the event of a leakage, having a housing on which a capacitive sensor is arranged on a base , which sensor is connected to a control unit for detecting a liquid running under the base , wherein the base can be set down on foot elements at a distance from a substrate, characterized in that the foot elements have a different height, so that the base is aligned inclined to the horizontal in the case of a horizontal flat substrate.
A method for manufacturing composite blade cleats for an aircraft turbine engine, comprising: - providing a panel , the panel being woven and comprising a plurality of cleat preforms each having a usable portion and at least one margin , the preforms being distributed in the panel so that two adjacent preforms have at least one portion of said margin in common; - injecting a matrix onto the panel ; - after injection, dividing the panel in order to separate the cleats from one another; - machining the cleats to remove the margins ; characterized in that , after the injecting , the cleats have a curved cross section, the curvature of a given cleat being reversed relative to the curvature of an adjacent cleat. - providing a panel , the panel being woven and comprising a plurality of cleat preforms each having a usable portion and at least one margin , the preforms being distributed in the panel so that two adjacent preforms have at least one portion of said margin in common; - injecting a matrix onto the panel ; - after injection, dividing the panel in order to separate the cleats from one another; - machining the cleats to remove the margins ;
Method for selecting a satellite that is designed to send a global navigation satellite system signal, called a GNSS signal below, to a vehicle , comprising: - measurement of measurement location data relating to the vehicle with respect to the satellite on the basis of the GNSS signal , - determination of reference location data relating to the vehicle that are redundant in relation to the measurement location data determined on the basis of the GNSS signal and are defined as the expected values of the measurement location data ; and - selection of the satellite when a juxtaposition of the measurement location data and the reference location data satisfies a predetermined condition, wherein the predetermined condition is a maximum admissible error (μ Stan ) between the measurement location data and the reference location data, characterized in that the maximum admissible error (μ Stan ) is dependent on a standard deviation that is calculated on the basis of a sum comprising a reference variance (σ rec ) for the reference location data and a measurement variance (σ GNSS ) for the measurement location data , wherein the maximum admissible error (μ Stan ) corresponds to a multiple of the standard deviation such that a probability that the measurement location data are within a scatter range that is dependent on the standard deviation is below a predetermined threshold value. - measurement of measurement location data relating to the vehicle with respect to the satellite on the basis of the GNSS signal , - determination of reference location data relating to the vehicle that are redundant in relation to the measurement location data determined on the basis of the GNSS signal and are defined as the expected values of the measurement location data ; and - selection of the satellite when a juxtaposition of the measurement location data and the reference location data satisfies a predetermined condition, wherein the predetermined condition is a maximum admissible error (μ Stan ) between the measurement location data and the reference location data,
A process for increasing the hydrogen content of a synthesis gas mixture comprising hydrogen, carbon oxides and steam, comprising the steps of: passing the synthesis gas mixture at an inlet temperature in the range 280-500°C over a high temperature water-gas shift catalyst to form a hydrogen-enriched shifted gas mixture, wherein the water-gas shift catalyst is in the form of a cylindrical pellet having a length C and diameter D, wherein the surface of the cylindrical pellet has two or more flutes running along its length, said cylinder having no through-holes and domed ends of lengths A and B such that (A+B+C)/D is in the range 0.25 to 1.25, and (A+B)/C is in the range 0.03 to 0.3.
A method for managing network slice enabled traffic on a communications network, wherein the method is carried out by a network controller, the network slice instantiated on the communications network for providing connectivity resources to a network operator using the communications network, the method comprising: receiving a traffic level from the communications network indicative of the traffic corresponding to a user equipment, and parameters from the network operator for adjusting the traffic on the communications network in accordance with the traffic level; and transmitting an instruction to a network operator accessible function associated with the network slice to modify traffic management parameters to adjust a traffic profile within the slice in accordance with a determination that the received traffic level measurement is indicative of an unwanted traffic profile, wherein the traffic carried within the network slice comprises a plurality of flows, and the step of transmitting an instruction includes transmitting modified traffic management parameters to prioritize at least one of the plurality of flows, wherein the traffic carried within the network slice is generated by at least the user equipment communicatively coupled to the communications network and the transmitting an instruction further includes transmitting an instruction to the at least one user equipment to move into another geographical area not served by the network slice. receiving a traffic level from the communications network indicative of the traffic corresponding to a user equipment, and parameters from the network operator for adjusting the traffic on the communications network in accordance with the traffic level; and transmitting an instruction to a network operator accessible function associated with the network slice to modify traffic management parameters to adjust a traffic profile within the slice in accordance with a determination that the received traffic level measurement is indicative of an unwanted traffic profile,
A method for wireless communication at a user equipment, UE, comprising: receiving a downlink transmission on at least one downlink directional beam; identifying dedicated resources reserved for UE-generated uplink message transmissions that are different from resources reserved for random access channel, RACH, transmissions; associating the dedicated resources with the at least one downlink directional beam; identifying a UE-generated uplink message for transmission; determining to transmit the UE-generated uplink message using a scheduled mode or an autonomous mode based at least in part on a characteristic associated with the UE-generated uplink message; and wherein: in the scheduled mode, the UE-generated uplink message is transmitted with another pre-scheduled uplink transmission; in the autonomous mode, the UE-generated uplink message is transmitted on the dedicated resources reserved for UE-generated uplink message transmissions, which are multiplexed in the frequency domain with the RACH transmissions; and transmitting the UE-generated uplink message using the scheduled mode or the autonomous mode. receiving a downlink transmission on at least one downlink directional beam; identifying dedicated resources reserved for UE-generated uplink message transmissions that are different from resources reserved for random access channel, RACH, transmissions; associating the dedicated resources with the at least one downlink directional beam; identifying a UE-generated uplink message for transmission; determining to transmit the UE-generated uplink message using a scheduled mode or an autonomous mode based at least in part on a characteristic associated with the UE-generated uplink message; and wherein: in the scheduled mode, the UE-generated uplink message is transmitted with another pre-scheduled uplink transmission; in the autonomous mode, the UE-generated uplink message is transmitted on the dedicated resources reserved for UE-generated uplink message transmissions, which are multiplexed in the frequency domain with the RACH transmissions; and transmitting the UE-generated uplink message using the scheduled mode or the autonomous mode. in the scheduled mode, the UE-generated uplink message is transmitted with another pre-scheduled uplink transmission; in the autonomous mode, the UE-generated uplink message is transmitted on the dedicated resources reserved for UE-generated uplink message transmissions, which are multiplexed in the frequency domain with the RACH transmissions; and transmitting the UE-generated uplink message using the scheduled mode or the autonomous mode.
A solar cell element comprising: a silicon semiconductor substrate including a p-type semiconductor region on one main surface (1a; 1b) thereof; a first passivation layer , containing aluminium oxide, located on the p-type semiconductor region ; a second passivation layer , including a silicon oxide layer, located between the p-type semiconductor region and the first passivation layer ; and a protective layer , containing silicon oxide which contains hydrogen and carbon, located on the first passivation layer ; wherein a thickness of the second passivation layer is smaller than a thickness of the protective layer , and the total thickness of the second passivation layer and the protective layer is smaller than the thickness of the first passivation layer . a silicon semiconductor substrate including a p-type semiconductor region on one main surface (1a; 1b) thereof; a first passivation layer , containing aluminium oxide, located on the p-type semiconductor region ; a second passivation layer , including a silicon oxide layer, located between the p-type semiconductor region and the first passivation layer ; and a protective layer , containing silicon oxide which contains hydrogen and carbon, located on the first passivation layer ; wherein a thickness of the second passivation layer is smaller than a thickness of the protective layer , and the total thickness of the second passivation layer and the protective layer is smaller than the thickness of the first passivation layer .
A cryogenic apparatus comprising: a first enclosure ; a thermo-mechanical cooler thermally coupled to said first enclosure ; a second enclosure spatially distanced from the first enclosure ; an elongate tubular link member configured to thermally couple the first and second enclosures across the space between them; a liquid helium containing vessel located in or proximal to said second enclosure for holding liquid helium, in use; a liquid helium delivery assembly for delivering helium from said thermo-mechanical cooler to said liquid helium containing vessel ; a helium gas extraction duct for carrying helium gas returned from said second enclosure , via said link member , to said thermo-mechanical cooler ; a connecting device located in said first enclosure and comprising a plurality of fluidly coupled ports (405a-c), wherein a first port of said connecting device is coupled, via first vibration-suppressing means , to an end of said tubular link member , a second port of said connecting device is coupled, via second vibration-suppressing means , to an end of said helium gas extraction duct, and a third port of said connecting device is coupled, via third vibration suppressing means , to a wall of said first enclosure . a first enclosure ; a thermo-mechanical cooler thermally coupled to said first enclosure ; a second enclosure spatially distanced from the first enclosure ; an elongate tubular link member configured to thermally couple the first and second enclosures across the space between them; a liquid helium containing vessel located in or proximal to said second enclosure for holding liquid helium, in use; a liquid helium delivery assembly for delivering helium from said thermo-mechanical cooler to said liquid helium containing vessel ; a helium gas extraction duct for carrying helium gas returned from said second enclosure , via said link member , to said thermo-mechanical cooler ; a connecting device located in said first enclosure and comprising a plurality of fluidly coupled ports (405a-c), wherein a first port of said connecting device is coupled, via first vibration-suppressing means , to an end of said tubular link member , a second port of said connecting device is coupled, via second vibration-suppressing means , to an end of said helium gas extraction duct, and a third port of said connecting device is coupled, via third vibration suppressing means , to a wall of said first enclosure .