mhurhangee/ep-ind-claims huggingface dataset:
Safety device having a housing, a rupture device and a connection point for a pressure accumulator which pressure accumulator can be connected to the rupture device via the connection point, wherein the rupture device can be triggered by means of an activatable force element which, in the triggered state, permits emptying of the pressure accumulator on the gas side, wherein the rupture device has a rupture disc which trips when the force element is activated, wherein the force element is a pyrotechnic object which deforms or destroys a wall section of the housing when the propellant is ignited, in such a manner that the rupture device accommodated therein activates, wherein the rupture disc of the rupture device is fixed in a pressurised duct in the housing and closes off this duct in a pressure-tight manner, it being possible to route said duct to the gas side of the pressure accumulator, wherein the rupture disc is located inside the duct in a common plane with the operating direction of the pyrotechnic force element and wherein the wall section of the housing, which can be destroyed or deformed by the propellant, extends transverse to this plane, characterised in that the duct opens out into the open environment, that the rupture disc is fixed by means of a threaded insert, which is screwed into a threaded hole of the duct from the environment side of the housing and which clamps the rupture disc against a shoulder formed at the inner end of the threaded hole, and that the peripheral edge of the rupture disc is folded down around the end of the insert inside an annular groove which is located at the end of the threaded hole.
A method for optimising total energy supplied to a plurality of comfort equipments distributed in a space (4, 6, 8, 10) including a central module for managing energy to be supplied and a plurality of zones Zi, each zone Zi including at least one work station (16, 18, 20, 22) likely to accommodate at least one person, including the following steps of: - determining the occupancy rate of zones Zi, - collecting in real time information relating to the use of each comfort equipment in each zone Zi and data representative of the dissatisfaction level of persons present in each zone Zi, and, - assessing from said data an overall dissatisfaction rate of the persons present in each zone Zi, - comparing the overall dissatisfaction rate with a predefined threshold, the method being characterised in that it further includes the following steps of: - if the dissatisfaction rate is lower than the predefined threshold, iteratively calculating an overall setpoint to decrease the overall energy to be supplied, and, • reassessing the resulting dissatisfaction rate for each new value of the setpoint Cg, • applying the overall setpoint Cg calculated to at least one of the comfort equipments to minimise total energy supplied, - if the dissatisfaction rate is greater than the predefined threshold, iteratively varying the overall setpoint until the resulting overall dissatisfaction rate becomes lower than the predefined threshold, • applying the overall setpoint Cg to the central module for managing total energy to adapt total energy to be supplied. - determining the occupancy rate of zones Zi, - collecting in real time information relating to the use of each comfort equipment in each zone Zi and data representative of the dissatisfaction level of persons present in each zone Zi, and, - assessing from said data an overall dissatisfaction rate of the persons present in each zone Zi, - comparing the overall dissatisfaction rate with a predefined threshold, the method being characterised in that it further includes the following steps of: - if the dissatisfaction rate is lower than the predefined threshold, iteratively calculating an overall setpoint to decrease the overall energy to be supplied, and, • reassessing the resulting dissatisfaction rate for each new value of the setpoint Cg, • applying the overall setpoint Cg calculated to at least one of the comfort equipments to minimise total energy supplied, • reassessing the resulting dissatisfaction rate for each new value of the setpoint Cg, • applying the overall setpoint Cg calculated to at least one of the comfort equipments to minimise total energy supplied, - if the dissatisfaction rate is greater than the predefined threshold, iteratively varying the overall setpoint until the resulting overall dissatisfaction rate becomes lower than the predefined threshold, • applying the overall setpoint Cg to the central module for managing total energy to adapt total energy to be supplied. • applying the overall setpoint Cg to the central module for managing total energy to adapt total energy to be supplied.
A method for applying a material onto a substrate using a droplet printing technique and a gas stream guiding system, which method comprises the steps of: (a) releasing a gas stream which comprises a carrier gas and droplets of a suspension of the material or droplets of a solution of a precursor of the material or droplets of a precursor of the material as such into the direction of the substrate, whereby the droplets are produced using the droplet printing technique; (b) maintaining a steady flow of the gas stream over a first period of time, wherein the Stokes number of the droplets in the gas stream is less than 1, during the first period of time; (c) converting the steady flow of the droplets in the gas stream into a converging flow and maintaining the converging flow of the droplets over a second period of time, whereby the Stokes number of the droplets in the gas stream increases up to a value higher than 10,, during the second period of time; and (d) contacting the droplets of the suspension of the material so obtained or the droplets of a solution of a precursor of the material so obtained with the substrate. (a) releasing a gas stream which comprises a carrier gas and droplets of a suspension of the material or droplets of a solution of a precursor of the material or droplets of a precursor of the material as such into the direction of the substrate, whereby the droplets are produced using the droplet printing technique; (b) maintaining a steady flow of the gas stream over a first period of time, wherein the Stokes number of the droplets in the gas stream is less than 1, during the first period of time; (c) converting the steady flow of the droplets in the gas stream into a converging flow and maintaining the converging flow of the droplets over a second period of time, whereby the Stokes number of the droplets in the gas stream increases up to a value higher than 10,, during the second period of time; and (d) contacting the droplets of the suspension of the material so obtained or the droplets of a solution of a precursor of the material so obtained with the substrate.
Converter module for a multi-level energy converter having two converter module connections (11, 12), a switching unit and a control connection for the control of switching states of the switching unit, wherein the switching unit provides the two converter module connections (11, 12) of the converter module and the control connection, comprising two series-connected converter module capacitors (8, 9), which are connected to the switching unit, wherein each of the converter module capacitors (8, 9) respectively delivers a converter module capacitor voltage, wherein the switching unit is configured to switch the converter module capacitor voltage of one of the converter module capacitors (8, 9), or a summed voltage of the series-connected converter module capacitors (8, 9), to the converter module connections (11, 12), according to the respective switching state of the switching unit, wherein the switching unit has four semiconductor switches (2, 3, 4, 5), two of which are connected in series in each case to form a series circuit (14, 15), wherein the two series circuits (14, 15) are connected in parallel and, in each case, a center terminal of one of the series circuits (14, 15) constitutes one of the converter module connections (11, 12) respectively, characterized in that the switching unit has two further semiconductor switches (6, 7), each of which is connected on one of its terminals to one connection point of the two series circuits (14, 15), wherein the other connection point of the two series circuits (14, 15) is connected to one end of the series-connected converter module capacitors (8, 9), wherein the other terminal of one of the two further semiconductor switches is connected to the other end of the series-connected converter module capacitors (8, 9), and the other terminal of the other of the two further semiconductor switches is connected to a center terminal constituted by the series-connected converter module capacitors (8, 9).
A method for generating a cleaned version of ambient sound performed by a first electronic device (102-1, 104, 106), the method comprising: while a media content item is emitted by a second electronic device that is remote from the first electronic device: receiving data that includes: timing information, offset information that indicates a difference between an initial position of the media content item and a current playback position of the media content item, and an audio stream that corresponds to the media content item, wherein the audio stream is a compressed version of the media content item that is emitted by the second electronic device and has a lower data rate than the media content item that is emitted by the second electronic device; detecting ambient sound that includes sound corresponding to the media content item emitted by the second electronic device; and generating a cleaned version of the ambient sound, including: using the timing information and the offset information to align the audio stream with the ambient sound; and performing a subtraction operation to substantially subtract the audio stream from the ambient sound. receiving data that includes: timing information, offset information that indicates a difference between an initial position of the media content item and a current playback position of the media content item, and an audio stream that corresponds to the media content item, wherein the audio stream is a compressed version of the media content item that is emitted by the second electronic device and has a lower data rate than the media content item that is emitted by the second electronic device; timing information, offset information that indicates a difference between an initial position of the media content item and a current playback position of the media content item, and an audio stream that corresponds to the media content item, wherein the audio stream is a compressed version of the media content item that is emitted by the second electronic device and has a lower data rate than the media content item that is emitted by the second electronic device; detecting ambient sound that includes sound corresponding to the media content item emitted by the second electronic device; and generating a cleaned version of the ambient sound, including: using the timing information and the offset information to align the audio stream with the ambient sound; and performing a subtraction operation to substantially subtract the audio stream from the ambient sound. using the timing information and the offset information to align the audio stream with the ambient sound; and performing a subtraction operation to substantially subtract the audio stream from the ambient sound.
A grease composition comprising: (a) a base oil; (b) a thickener comprising a urea compound; (c) an amine antioxidant at 0.5 to 5% by mass based on a total mass of the composition; and (d) a quinoline antioxidant at 0.5 to 5% by mass based on the total mass of the composition, wherein the (b) thickener comprising a urea compound is a thickener comprising a diurea compound represented by the following formula: where R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, R 1 and R 3 may be the same or different from each other, and each are a alkyl group having 6 to 30 carbon atoms, or a cyclohexyl group, and in the diurea compound, a molar ratio between the cyclohexyl group and the alkyl group is 10:90 to 50:50, and wherein the (c) amine antioxidant is at least one amine antioxidant selected from phenyl-α-naphthyl amine, alkyl phenyl-α-naphthyl amine, and alkyl diphenyl amine. (a) a base oil; (b) a thickener comprising a urea compound; (c) an amine antioxidant at 0.5 to 5% by mass based on a total mass of the composition; and (d) a quinoline antioxidant at 0.5 to 5% by mass based on the total mass of the composition, wherein the (b) thickener comprising a urea compound is a thickener comprising a diurea compound represented by the following formula: where R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, R 1 and R 3 may be the same or different from each other, and each are a alkyl group having 6 to 30 carbon atoms, or a cyclohexyl group, and in the diurea compound, a molar ratio between the cyclohexyl group and the alkyl group is 10:90 to 50:50, and wherein the (c) amine antioxidant is at least one amine antioxidant selected from phenyl-α-naphthyl amine, alkyl phenyl-α-naphthyl amine, and alkyl diphenyl amine.
A process for preparing a branched conjugated diene polymer with a molecular weight distribution Mw/Mn of at least 1.1, by anionic polymerization, comprising the following reaction steps: a) polymerizing a mixture of monomers comprising at least one conjugated diene and optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer; b) terminating the polymerization, and c) optionally functionalizing and/or hydrogenating the polymer so produced, wherein the mixture of monomers comprises an alpha,omega-bis(vinylphenyl)alkane as comonomer in an amount of less than 2.0 mole% of the mixture of monomers. a) polymerizing a mixture of monomers comprising at least one conjugated diene and optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer; b) terminating the polymerization, and c) optionally functionalizing and/or hydrogenating the polymer so produced,
A user equipment, UE, configured to operate in a wireless communication system, the UE comprising: a controller configured to: identify a pool of hybrid automatic repeat request, HARQ, process numbers which is configured by a base station, for transmission on a sidelink channel; sense and search one or more sidelink control information, SCI, transmissions received on a physical sidelink control channel, PSCCH of one or more other UEs to determine whether any HARQ process numbers are being used by the one or more other UEs; exclude the detected HARQ process numbers from the pool of the HARQ process numbers based on the searched one or more SCI transmissions, wherein a detected HARQ process number is not excluded if the corresponding UE has finished the maximal allowed retransmission number; select a HARQ process number from remaining HARQ process numbers in the pool of the HARQ process numbers; generate sidelink control information, SCI, including the selected HARQ process number; and a transmitter coupled with the controller and configured to perform a transmission or re-transmission of a packet including sidelink data based on the generated SCI with the selected HARQ process number to another UE on the sidelink channel. identify a pool of hybrid automatic repeat request, HARQ, process numbers which is configured by a base station, for transmission on a sidelink channel; sense and search one or more sidelink control information, SCI, transmissions received on a physical sidelink control channel, PSCCH of one or more other UEs to determine whether any HARQ process numbers are being used by the one or more other UEs; exclude the detected HARQ process numbers from the pool of the HARQ process numbers based on the searched one or more SCI transmissions, wherein a detected HARQ process number is not excluded if the corresponding UE has finished the maximal allowed retransmission number; select a HARQ process number from remaining HARQ process numbers in the pool of the HARQ process numbers; generate sidelink control information, SCI, including the selected HARQ process number; and a transmitter coupled with the controller and configured to perform a transmission or re-transmission of a packet including sidelink data based on the generated SCI with the selected HARQ process number to another UE on the sidelink channel.
A window lining assembly comprising a window lining composed by a set of lining panels (21, 22, 23, 24), a lining frame having a number of lining frame pieces (31, 32, 34), and a plurality of mounting fittings (4; 8; 9), each mounting fitting including a first leg (41; 841; 941) for connection to a lining frame piece, and a second leg (42; 842; 942) for connection to a lining panel, each lining frame piece (31, 32, 34) comprises a track formed by a bottom and side walls (312, 313) of the lining frame piece, and of a first and a second flange (315, 314) protruding from a respective opposite side wall (313, 312), and that the first leg (41; 841; 941) of each mounting fitting (4; 8; 9) has a length extending between a first end (413; 813; 913) and a second end (414; 814; 914) exceeding the distance between the protruding flanges (315, 314), and a width extending between a first side (41a; 841a; 941a) and a second side (41b; 841b; 941b) not exceeding the distance between the protruding flanges (315, 314) characterized in that the distance from the bottom to the first flange is different from the distance from the bottom to the second flange, and wherein a stepped portion (416; 816; 916) is provided at the second end (414; 814; 914), the height of the stepped portion (416; 816; 916) corresponding substantially to distance from the bottom to the second flange.
Human powered land vehicle with two steered front wheels and one rear wheel driven by a drive train, which drive train (3, 3.1) incorporates a human powered actuator to be actuated for propulsion of the vehicle by a person driving the vehicle and kinematically coupled to a driven wheel for propulsing the vehicle in at least one driving direction and which vehicle further disposes of a non-human powered actuator arranged to drive at least one of the wheels of the vehicle, whereas - the drive train between the human powered actuator and the driven wheel comprises at least two drive train segments (14, 14.1, 14.2), whereas between two drive train segments (14, 14.1, 14.2) the driving power is transferred from a first driving means of a first drive train segment to a second driving means of a second drive train segment (14.1), - the non-human powered actuator is incorporated in-line into this drive train, such that the rotating member of the non-human powered actuator is driven by way of a first driving means of a first drive train segment driven by the human powered actuator and that the rotational movement of the rotating member of the non-human powered actuator drives a second drive train segment driving the driven wheel, and - the first drive train segment is driven by a third drive train segment (14.2) incorporating the human powered actuator, characterized, in that - the non-human powered actuator is an electric motor, - a longitudinal beam encloses the first drive train segment and is arranged below the axis of rotation of the two front wheels (3, 3.1) and the rear wheel - the third drive train segment (14.2) is enclosed in a housing and - whereas the longitudinal extension of the first and third drive train segments (14, 14.2) are arranged angular to each other embracing an obtuse angle. - the drive train between the human powered actuator and the driven wheel comprises at least two drive train segments (14, 14.1, 14.2), whereas between two drive train segments (14, 14.1, 14.2) the driving power is transferred from a first driving means of a first drive train segment to a second driving means of a second drive train segment (14.1), - the non-human powered actuator is incorporated in-line into this drive train, such that the rotating member of the non-human powered actuator is driven by way of a first driving means of a first drive train segment driven by the human powered actuator and that the rotational movement of the rotating member of the non-human powered actuator drives a second drive train segment driving the driven wheel, and - the first drive train segment is driven by a third drive train segment (14.2) incorporating the human powered actuator, characterized, in that - the non-human powered actuator is an electric motor, - a longitudinal beam encloses the first drive train segment and is arranged below the axis of rotation of the two front wheels (3, 3.1) and the rear wheel - the third drive train segment (14.2) is enclosed in a housing and - whereas the longitudinal extension of the first and third drive train segments (14, 14.2) are arranged angular to each other embracing an obtuse angle.
A method for wireless communications, comprising: retrieving service metadata associated with one or more service devices from a connectivity entity, wherein the service metadata comprises connectivity parameters; configuring one or more links with at least one of the one or more service devices based on the service metadata; and ranking the one or more links based on the connectivity parameters associated with each of the one or more links. retrieving service metadata associated with one or more service devices from a connectivity entity, wherein the service metadata comprises connectivity parameters; configuring one or more links with at least one of the one or more service devices based on the service metadata; and ranking the one or more links based on the connectivity parameters associated with each of the one or more links.
A floating type disc brake device in which a body, a support and a cylinder unit are configured separately, and a first piston and a second piston are accommodated in the cylinder unit, wherein the cylinder unit is fixed to arm portions provided on both a rotation-in side and a rotation-out side of a rotor in the support via cylinder attachment portions disposed on an outer circumference side of the cylinder unit.
A heat pump hydronic heater comprising a heat pump circuit and a hot water tank circuit, in which the heat pump circuit includes a compressor which compresses a refrigerant and discharges a high temperature refrigerant, a water/refrigerant heat exchanger which exchanges heat between water and a high temperature refrigerant to produce hot water, a decompressor which decompresses a refrigerant, and an evaporator which exchanges heat between air and a refrigerant, the hot water tank circuit includes a boiling circuit and a heating circuit, in the boiling circuit, hot/cold water in a hot water tank is heated by the water/refrigerant heat exchanger, in the heating circuit, the hot water produced by the water/refrigerant heat exchanger is introduced directly into a heating terminal or introduced to the heating terminal through the hot water tank, and the hot water is made to dissipate heat by the heating terminal, and the heat pump circuit and the hot water tank circuit are accommodated in one casing, wherein a longitudinally long cylindrical tank is used as the hot water tank, wherein the evaporator is provided with a blast fan to send air, and wherein the hot water tank is disposed in one of spaces in the casing in its width direction, characterized in that a hermetic expansion tank is connected to the hot water tank wherein the evaporator and the blast fan are disposed in the other space in the casing in the width direction, and wherein the expansion tank is disposed at a location higher than the hot water tank.