mhurhangee/ep-ind-claims huggingface dataset:
A prepreg obtained by impregnating a woven fabric base with a thermosetting resin composition, wherein the thermosetting resin composition contains 80 to 200 volume parts of an inorganic filler per 100 volume parts of a thermosetting resin, characterized in that the inorganic filler contains gibbsite aluminum hydroxide particles having an average particle diameter (D 50) of 2 to 15 μm, at least one inorganic component selected from the group consisting of boehmite particles having an average particle diameter (D 50) of 2 to 15 μm and inorganic particles that have an average particle diameter (D 50) of 2 to 15 μm and that contain crystal water having a release initiation temperature of 400°C or higher or contain no crystal water, and aluminum oxide particles having an average particle diameter (D 50) of 1.5 μm or smaller, the compounded ratio (volume ratio) of the gibbsite aluminum hydroxide particles, the at least one inorganic component selected from the group consisting of the boehmite particles and the inorganic particles, and the aluminum oxide particles being 1: 0.1 to 2.5: 0.1 to 1.
Device for pumping and treating gases comprising a stator comprising a plurality of pumping stages (6, 7, 8, 9, 10) connected in series one after another between a suction side and a delivery side by the inter-stage ducts (24, 25), characterized in that the device for pumping and treating gases comprises: - an inner tube and a blind outer tube, the tubes being inserted one inside the other and made of ceramic material, the inner tube being connected to the delivery side of the rotor housing of a pumping stage and the outer tube being connected to the stator and communicating with at least one inter-stage duct formed in the stator, the tubes defining a path for the pumped gases, and - a plasma source located outside the stator to generate a plasma in the path of the pumped gases. - an inner tube and a blind outer tube, the tubes being inserted one inside the other and made of ceramic material, the inner tube being connected to the delivery side of the rotor housing of a pumping stage and the outer tube being connected to the stator and communicating with at least one inter-stage duct formed in the stator, the tubes defining a path for the pumped gases, and - a plasma source located outside the stator to generate a plasma in the path of the pumped gases.
A terminal apparatus comprising: a reception unit configured to receive a Physical Downlink Control Channel, PDCCH; and a Medium Access Control, MAC, layer processing unit configured to trigger a first confirmation in a case that downlink control information included in the PDCCH indicates release of unicast transmissions in a primary cell, trigger a second confirmation in a case that the downlink control information included in the PDCCH indicates release of unicast transmissions in a Licensed Assisted Access, LAA, secondary cell, at least based on that the first confirmation has been triggered and not cancelled, generate a first confirmation MAC Control Element, CE, corresponding to a first Logical Channel Identity, LCID, and cancel the first confirmation, at least based on that the second confirmation has been triggered and not cancelled, generate a second confirmation MAC CE corresponding to a second LCID which is different from the first LCID and cancel the second confirmation, and generate a MAC Protocol Data Unit including the first confirmation MAC CE and/or the second confirmation MAC CE, wherein a size of the first confirmation MAC CE is 0 bits, a size of the second MAC CE is larger than 0 bits, and the first confirmation MAC CE is identified by a MAC subheader with the first LCID. a reception unit configured to receive a Physical Downlink Control Channel, PDCCH; and a Medium Access Control, MAC, layer processing unit configured to trigger a first confirmation in a case that downlink control information included in the PDCCH indicates release of unicast transmissions in a primary cell, trigger a second confirmation in a case that the downlink control information included in the PDCCH indicates release of unicast transmissions in a Licensed Assisted Access, LAA, secondary cell, at least based on that the first confirmation has been triggered and not cancelled, generate a first confirmation MAC Control Element, CE, corresponding to a first Logical Channel Identity, LCID, and cancel the first confirmation, at least based on that the second confirmation has been triggered and not cancelled, generate a second confirmation MAC CE corresponding to a second LCID which is different from the first LCID and cancel the second confirmation, and generate a MAC Protocol Data Unit including the first confirmation MAC CE and/or the second confirmation MAC CE, wherein a size of the first confirmation MAC CE is 0 bits, a size of the second MAC CE is larger than 0 bits, and the first confirmation MAC CE is identified by a MAC subheader with the first LCID.
A method for manufacturing a microstructured device comprising the following steps: a) providing a substrate b) printing a non-solid ink on the substrate, the ink solidifying upon contact with the substrate to form a negative pattern of at least one microstructure of the microstructured device to be fabricated; c) covering the ink in solid form with a non-crosslinked polymer comprising an additive capable of allowing crosslinking of said polymer, said polymer being immiscible with the pattern obtained in step b) in order to form a cover for the pattern, said polymer having a melting temperature strictly higher than the sublimation or evaporation temperature of the ink forming the pattern; d) cross-linking the cover; then e) sublimating or, depending on the nature of the ink, liquefying and then evaporating the ink so as to form the microstructured device comprising said at least one microstructure. a) providing a substrate b) printing a non-solid ink on the substrate, the ink solidifying upon contact with the substrate to form a negative pattern of at least one microstructure of the microstructured device to be fabricated; c) covering the ink in solid form with a non-crosslinked polymer comprising an additive capable of allowing crosslinking of said polymer, said polymer being immiscible with the pattern obtained in step b) in order to form a cover for the pattern, said polymer having a melting temperature strictly higher than the sublimation or evaporation temperature of the ink forming the pattern; d) cross-linking the cover; then e) sublimating or, depending on the nature of the ink, liquefying and then evaporating the ink so as to form the microstructured device comprising said at least one microstructure.
Rail vehicle group, comprising a leading rail vehicle with at least one front region which is arranged at a trailing end of the leading rail vehicle, the shape of the front region being at least partially convex at least in the region of its roof at least in the longitudinal direction of the leading rail vehicle, and further comprising a trailing rail vehicle which has a roof-mounted pantograph, characterized by at least one wing which is arranged in the front region of the leading rail vehicle on the roof at least partially in the convex region in order to increase the flow speed on the roof-mounted pantograph of the trailing rail vehicle, a shape of the wing at least substantially following a shape of the front region.
A drain plug (100, 200), comprising: an attachment member (112, 212), configured to fixingly couple into an aperture of a wall structure, so as to provide a fluid path along a longitudinal axis of said attachment member (112, 212) through the wall structure, and comprising a casing member (116, 216) axially protruding along said longitudinal axis towards a distal end of said attachment member (112, 212), and a fluid flow member (114, 214), sealingly engageable with said casing member (116, 216), comprising at least one fluid conduit (124, 218), extending between an inlet port (126, 226) and an outlet port (128, 228) of said drain plug (100, 200), said fluid conduit (124, 218) comprising at least one first region towards said inlet port (126, 226) and at least one second region, downstream of said at least one first region towards said outlet port (128, 228), characterised in that the cross-sectional area of said at least one first region is greater than the cross-sectional area of said at least one second region. an attachment member (112, 212), configured to fixingly couple into an aperture of a wall structure, so as to provide a fluid path along a longitudinal axis of said attachment member (112, 212) through the wall structure, and comprising a casing member (116, 216) axially protruding along said longitudinal axis towards a distal end of said attachment member (112, 212), and a fluid flow member (114, 214), sealingly engageable with said casing member (116, 216), comprising at least one fluid conduit (124, 218), extending between an inlet port (126, 226) and an outlet port (128, 228) of said drain plug (100, 200), said fluid conduit (124, 218) comprising at least one first region towards said inlet port (126, 226) and at least one second region, downstream of said at least one first region towards said outlet port (128, 228), characterised in that the cross-sectional area of said at least one first region is greater than the cross-sectional area of said at least one second region.
An inhaler, comprising a housing, a mouthpiece extending from or mounted to the housing, a blister strip having a plurality of blisters, each blister containing, at least initially, a dose of medicament for inhalation by a user via the mouthpiece, a blister opening assembly for facilitating withdrawal of medicament from a target blister of the blister strip, an actuator mechanism (22,24) operable to sequentially move each blister into alignment with the blister opening assembly so as to become the target blister, the housing comprising a first blister compartment for storing an unopened portion of the blister strip as a first coil, a second blister compartment for receiving an opened portion of the blister strip and coiling it into a second coil, and a movable dividing wall separating the first and second blister compartments, the movable dividing wall being displaced progressively during successive actuations of the inhaler, thereby causing the volume of the first blister compartment to decrease progressively and the volume of the second blister compartment to increase progressively, the inhaler further comprising an arcuate supporting surface in the first blister compartment for supporting at least a portion of the first coil, a second arcuate supporting surface in the first blister compartment for supporting a further portion of the first coil and a third arcuate supporting surface in the second blister compartment for supporting a portion of the second coil, characterized in that the inhaler further comprises a blister strip guide rib positioned in the second blister compartment for controlling the direction of the used blister strip as it enters the second blister compartment, the used blister strip passing between the guide rib and an internal surface of the housing during successive actuations of the inhaler, wherein the blister strip has a height a and the guide rib is spaced apart from the internal surface of the housing by distance b, wherein distance b is less than height a.
A multilayer structure comprising: a) a first layer, optionally selected from the group consisting of polymers, composites, metals, alloys, glass, silicon, ceramics, wood, and paper; and b) a gas permeation barrier layer disposed on at least a portion of the first layer, comprising a furan-based polyamide wherein the furan-based polyamide is derived from: i. one or more dicarboxylic acids or derivatives thereof selected from the group consisting of an aliphatic diacid, an aromatic diacid and an alkylaromatic diacid, wherein at least one of the dicarboxylic acid is furan dicarboxylic acid or a derivative thereof, and ii. one or more diamines selected from the group consisting of an aliphatic diamine, an aromatic diamine and an alkylaromatic diamine, and wherein the gas permeation barrier layer provides a substantial barrier to gas permeation. a) a first layer, optionally selected from the group consisting of polymers, composites, metals, alloys, glass, silicon, ceramics, wood, and paper; and b) a gas permeation barrier layer disposed on at least a portion of the first layer, comprising a furan-based polyamide wherein the furan-based polyamide is derived from: i. one or more dicarboxylic acids or derivatives thereof selected from the group consisting of an aliphatic diacid, an aromatic diacid and an alkylaromatic diacid, wherein at least one of the dicarboxylic acid is furan dicarboxylic acid or a derivative thereof, and ii. one or more diamines selected from the group consisting of an aliphatic diamine, an aromatic diamine and an alkylaromatic diamine, and wherein the gas permeation barrier layer provides a substantial barrier to gas permeation. i. one or more dicarboxylic acids or derivatives thereof selected from the group consisting of an aliphatic diacid, an aromatic diacid and an alkylaromatic diacid, wherein at least one of the dicarboxylic acid is furan dicarboxylic acid or a derivative thereof, and ii. one or more diamines selected from the group consisting of an aliphatic diamine, an aromatic diamine and an alkylaromatic diamine, and wherein the gas permeation barrier layer provides a substantial barrier to gas permeation.
A method for producing a carbon fibre reinforced composite material comprising (i) at least two carbon fibre fabrics, each of which is formed of an opened yarn obtained by opening a carbon fibre bundle, and (ii) a thermoplastic resin, wherein the thermoplastic resin is impregnated with the at least two carbon fibre fabrics in a solidified state such that the carbon fibre reinforced composite material is formed integrally as a whole, which method comprises the steps of thermal pressing of a laminate containing (i) the at least two carbon fibre fabrics of an opened yarn obtained by opening a carbon fibre bundle and, between them, (ii) a foam of the thermoplastic resin, under conditions where the foam melts and the molten thermoplastic resin is impregnated with the fabrics; and solidifying the molten thermoplastic resin that has been penetrated with fabrics. (i) at least two carbon fibre fabrics, each of which is formed of an opened yarn obtained by opening a carbon fibre bundle, and (ii) a thermoplastic resin, thermal pressing of a laminate containing (i) the at least two carbon fibre fabrics of an opened yarn obtained by opening a carbon fibre bundle and, between them, (ii) a foam of the thermoplastic resin, under conditions where the foam melts and the molten thermoplastic resin is impregnated with the fabrics; and (i) the at least two carbon fibre fabrics of an opened yarn obtained by opening a carbon fibre bundle and, between them, (ii) a foam of the thermoplastic resin, under conditions where the foam melts and the molten thermoplastic resin is impregnated with the fabrics; and solidifying the molten thermoplastic resin that has been penetrated with fabrics.
A system comprising: a source of a first beam of electromagnetic energy; an amplifier for amplifying said beam to provide a second low power beam, and characterised in that it comprises: a sensor for sensing aberration in said second low power beam and providing an error signal in response thereto; a processor for processing said error signal and providing a correction signal in response thereto; a spatial light modulator responsive to said correction signal for adjusting said second low power beam to facilitate a correction of said aberration thereof; and a mirror configured to produce, after reflecting a second time off the spatial light modulator, a conjugated beam having a conjugate wavefront of the second low power beam; wherein the amplifier is configured for amplifying said conjugated beam to provide an output beam having a corrected wavefront a source of a first beam of electromagnetic energy; an amplifier for amplifying said beam to provide a second low power beam, and characterised in that it comprises: a sensor for sensing aberration in said second low power beam and providing an error signal in response thereto; a processor for processing said error signal and providing a correction signal in response thereto; a spatial light modulator responsive to said correction signal for adjusting said second low power beam to facilitate a correction of said aberration thereof; and a mirror configured to produce, after reflecting a second time off the spatial light modulator, a conjugated beam having a conjugate wavefront of the second low power beam; wherein the amplifier is configured for amplifying said conjugated beam to provide an output beam having a corrected wavefront a sensor for sensing aberration in said second low power beam and providing an error signal in response thereto; a processor for processing said error signal and providing a correction signal in response thereto; a spatial light modulator responsive to said correction signal for adjusting said second low power beam to facilitate a correction of said aberration thereof; and a mirror configured to produce, after reflecting a second time off the spatial light modulator, a conjugated beam having a conjugate wavefront of the second low power beam; wherein the amplifier is configured for amplifying said conjugated beam to provide an output beam having a corrected wavefront
A wind turbine rotor blade which includes a fiber-reinforced plastics material and an electrical heating device having electrical connections at a blade root end, wherein the wind turbine rotor blade is assembled from a first rotor blade half shell and a second rotor blade half shell made of a fiber-reinforced plastics material and the electrical heating device includes the following: • a first heating element which has a blade root end and a blade tip end and, during the production of the first rotor blade half shell, was embedded in a plastics matrix contemporaneously with reinforcement fibers of the first rotor blade half shell by curing a liquid plastics material, • a second heating element which has a blade root end and a blade tip end and, during the production of the second rotor blade half shell, was embedded in a plastics matrix contemporaneously with reinforcement fibers of the second rotor blade half shell by curing a liquid plastics material, • a third heating element which is connected to the first rotor blade half shell and to the second rotor blade half shell and has a blade root end and a blade tip end, characterized in that • the blade tip ends (28, 34, 46) of the first, second and third heating elements (24, 30, 42) are connected to each other in an electrically conductive manner, and • the blade root ends (26, 32, 44) of the first, second and third heating elements (24, 30, 42) each are connected to an electrical connecting line (48, 50, 52). • a first heating element which has a blade root end and a blade tip end and, during the production of the first rotor blade half shell, was embedded in a plastics matrix contemporaneously with reinforcement fibers of the first rotor blade half shell by curing a liquid plastics material, • a second heating element which has a blade root end and a blade tip end and, during the production of the second rotor blade half shell, was embedded in a plastics matrix contemporaneously with reinforcement fibers of the second rotor blade half shell by curing a liquid plastics material, • a third heating element which is connected to the first rotor blade half shell and to the second rotor blade half shell and has a blade root end and a blade tip end, characterized in that • the blade tip ends (28, 34, 46) of the first, second and third heating elements (24, 30, 42) are connected to each other in an electrically conductive manner, and • the blade root ends (26, 32, 44) of the first, second and third heating elements (24, 30, 42) each are connected to an electrical connecting line (48, 50, 52).
Method for identifying an assignment of a key for a symmetric cryptography method, a first terminal being identified from a first group of terminals and a second terminal being identified from a second group of terminals, which first and second terminals are intended to communicate with one another in a first mission, wherein the first mission defines a first time period in which communication between the first terminal and the second terminal is intended to be possible, wherein the first terminal is intended to communicate with the second terminal in a second mission, wherein the second mission defines a second time period in which communication between the first terminal and the second terminal is intended to be possible, and wherein, for communication between the first terminal and the second terminal, the same key is assigned within a duration of an overlap of the first time period and the second time period.
A conveyor structure of an agricultural machine, the conveyor structure comprising: a first conveyor structure layer; a core structure layer disposed on the first conveyor structure layer, and comprising: a rope layer disposed on the first conveyor structure layer, and comprising a plurality of warp ropes; a cloth layer disposed on the rope layer; and a second conveyor structure layer disposed on the core structure layer; characterized in the core structure layer further comprising: a plurality of first wefts; and a plurality of second wefts, wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer, or on the cloth layer, or on the rope layer and the cloth layer. a first conveyor structure layer; a core structure layer disposed on the first conveyor structure layer, and comprising: a rope layer disposed on the first conveyor structure layer, and comprising a plurality of warp ropes; a cloth layer disposed on the rope layer; and a rope layer disposed on the first conveyor structure layer, and comprising a plurality of warp ropes; a cloth layer disposed on the rope layer; and a second conveyor structure layer disposed on the core structure layer; characterized in the core structure layer further comprising: a plurality of first wefts; and a plurality of second wefts, wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer, or on the cloth layer, or on the rope layer and the cloth layer. a plurality of first wefts; and a plurality of second wefts, wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer, or on the cloth layer, or on the rope layer and the cloth layer.
A method for assisted operating support for a ground compaction machine, comprising the steps of: a) controlling the ground compaction machine by an operator; b) detecting of at least a change in travel speed the method being characterized with the additional steps c) determining a time at which a reversal of the ground compaction machine takes place from the parameter detected in step b); d) detecting a steering angle (w) of the ground compaction machine within a time interval around the time determined in step c); e) comparing the steering angle (w) within the interval with predetermined reference values for a target steering angle; f) outputting a result of the comparison. a) controlling the ground compaction machine by an operator; b) detecting of at least a change in travel speed the method being characterized with the additional steps c) determining a time at which a reversal of the ground compaction machine takes place from the parameter detected in step b); d) detecting a steering angle (w) of the ground compaction machine within a time interval around the time determined in step c); e) comparing the steering angle (w) within the interval with predetermined reference values for a target steering angle; f) outputting a result of the comparison.