mhurhangee/ep-ind-claims huggingface dataset:
Aircraft nacelle comprising a cowling, an engine housed in an internal volume of the cowling, an annular flow channel for a secondary thrust flow, provided between the engine and the cowling, and at least one thrust reverser for forming a reverse flow from the secondary thrust flow circulating in the annular channel, comprising a plurality of doors provided in a rear part of the cowling, so as to form a trailing edge of said cowling, the doors being mounted so as to rotate on static link rods fastened to the cowling, characterized in that the doors in the closed position are closely juxtaposed, and in that the thrust reverser includes actuation means (18, 19, 20, 29) for actuating the doors, at least one actuation means actuating two adjacent doors, at least one door being actuated by two actuation means and at least one actuation means being mounted on a static link rod.
A system comprising: - a combustion apparatus (20,120) comprising a diesel engine, a fuel inlet configured to receive a feed of fuel to the engine, and an oxidiser inlet (21,121) configured to receive a feed of an oxidiser to the engine; - a Selective Catalytic Reduction ('SCR') device (30,130) associated with the combustion apparatus (20,120) and configured for catalyzing conversion of nitrogen oxides in an exhaust (25, 125) of the engine into nitrogen and water; and - an apparatus (10,110) having: ∘ a temperature sensing device (40,140) configured to measure the temperature of the exhaust; ∘ an injection unit (50,150) configured to inject hydrogen (51,151) into the feed of oxidizer (21,121) to the engine; and ∘ a control unit (60,160) configured to control operation of the injection unit (50,150), - wherein the control unit is configured to control and/or regulate injection of hydrogen via the injection unit in an amount of hydrogen to oxidiser feed based on an exhaust temperature received from the temperature sensing device so that a measured temperature in the exhaust is at least 270°C; and the system being characterized in that the injection unit (50, 150) is configured to mix hydrogen (51, 151) and air prior to injection of the feed of oxidizer (21, 121) to the engine. - a combustion apparatus (20,120) comprising a diesel engine, a fuel inlet configured to receive a feed of fuel to the engine, and an oxidiser inlet (21,121) configured to receive a feed of an oxidiser to the engine; - a Selective Catalytic Reduction ('SCR') device (30,130) associated with the combustion apparatus (20,120) and configured for catalyzing conversion of nitrogen oxides in an exhaust (25, 125) of the engine into nitrogen and water; and - an apparatus (10,110) having: ∘ a temperature sensing device (40,140) configured to measure the temperature of the exhaust; ∘ an injection unit (50,150) configured to inject hydrogen (51,151) into the feed of oxidizer (21,121) to the engine; and ∘ a control unit (60,160) configured to control operation of the injection unit (50,150), ∘ a temperature sensing device (40,140) configured to measure the temperature of the exhaust; ∘ an injection unit (50,150) configured to inject hydrogen (51,151) into the feed of oxidizer (21,121) to the engine; and ∘ a control unit (60,160) configured to control operation of the injection unit (50,150), - wherein the control unit is configured to control and/or regulate injection of hydrogen via the injection unit in an amount of hydrogen to oxidiser feed based on an exhaust temperature received from the temperature sensing device so that a measured temperature in the exhaust is at least 270°C; and
A method comprising: receiving (650, 652) caption service information, SI, that provides information for a receiver to support 3D captions, said caption service information, SI, being included in a Program Map Table, PMT, or an Event Information Table, EIT, and including plurality of descriptors that provide information related to types and attributes of the 3D captions, and acquiring subtitle captions for a base view of 3D images, wherein the subtitle captions are included in a caption channel packet; identifying (656, 658) said plurality of descriptors in the received caption service information, SI, for depacketizing and interpreting the caption channel packet; identifying a 3D type flag included in the caption channel packet, said 3D type flag indicating whether the 3D caption is supported and whether a parameter in the caption channel packet denotes a horizontal disparity value or a value for the depth; determining (700, 702, 704) a scaled horizontal disparity value to be adapted for a display panel of the receiver based on the depth or the horizontal disparity value of the subtitle captions, a reference resolution and the identified 3D type flag; generating subtitle captions for an extended view of the 3D images by using the scaled horizontal disparity value; and processing (708, 710) an elementary stream using the subtitle captions for the base view and the subtitle captions for the extended view, to support the 3D images. receiving (650, 652) caption service information, SI, that provides information for a receiver to support 3D captions, said caption service information, SI, being included in a Program Map Table, PMT, or an Event Information Table, EIT, and including plurality of descriptors that provide information related to types and attributes of the 3D captions, and acquiring subtitle captions for a base view of 3D images, wherein the subtitle captions are included in a caption channel packet; identifying (656, 658) said plurality of descriptors in the received caption service information, SI, for depacketizing and interpreting the caption channel packet; identifying a 3D type flag included in the caption channel packet, said 3D type flag indicating whether the 3D caption is supported and whether a parameter in the caption channel packet denotes a horizontal disparity value or a value for the depth; determining (700, 702, 704) a scaled horizontal disparity value to be adapted for a display panel of the receiver based on the depth or the horizontal disparity value of the subtitle captions, a reference resolution and the identified 3D type flag; generating subtitle captions for an extended view of the 3D images by using the scaled horizontal disparity value; and processing (708, 710) an elementary stream using the subtitle captions for the base view and the subtitle captions for the extended view, to support the 3D images.
An isolated nucleic acid sequence encoding an immune optimised functional variant of the yeast NDI1 protein of SEQ ID NO: 542 comprising at least one conservative amino acid change to a residue selected from the group consisting of: L195, F90, I82, L89, V266, L481, L202, L259, L150, R85, Y151, Y482, S488, V45, and S80, wherein the nucleic acid comprises at least 50 codons which, compared with the sequence of wild-type yeast NDI1 gene of SEQ ID NO: 1, are codon optimised for expression in mammalian cells.
An air containment cooling system for containing and cooling air between two rows of equipment racks, the air containment cooling system comprising: a canopy assembly configured to enclose a hot aisle defined by the two rows of the equipment racks, the canopy assembly including a free-standing frame structure having a plurality of vertical and horizontal support members defining a docking station configured to receive equipment racks having electronic equipment and to span a width of the hot aisle; and a cooling system embedded within the canopy assembly and being configured to cool the air disposed within the hot aisle, the cooling system comprising a heat exchanger disposed within a cooling panel, that is supported by the frame structure of the canopy assembly which encloses the top of the cooling system, characterised in that said cooling panel is either: substantially inverse U-shaped in construction and has two sides (110, 112) and a top to increase a surface area of said heat exchanger, or V-shaped in construction and has two sides. a canopy assembly configured to enclose a hot aisle defined by the two rows of the equipment racks, the canopy assembly including a free-standing frame structure having a plurality of vertical and horizontal support members defining a docking station configured to receive equipment racks having electronic equipment and to span a width of the hot aisle; and a cooling system embedded within the canopy assembly and being configured to cool the air disposed within the hot aisle, the cooling system comprising a heat exchanger disposed within a cooling panel, that is supported by the frame structure of the canopy assembly which encloses the top of the cooling system, characterised in that said cooling panel is either: substantially inverse U-shaped in construction and has two sides (110, 112) and a top to increase a surface area of said heat exchanger, or V-shaped in construction and has two sides. substantially inverse U-shaped in construction and has two sides (110, 112) and a top to increase a surface area of said heat exchanger, or V-shaped in construction and has two sides.
An electrochemical reaction unit cell comprising: an electrolyte layer containing Zr; an anode disposed on one side of the electrolyte layer in a first direction; a cathode containing Sr and disposed on the other side of the electrolyte layer in the first direction; and a reaction preventing layer disposed between the electrolyte layer and the cathode, characterized in that the reaction preventing layer contains Zr in an amount of 0.015 wt% to 1 wt%. an electrolyte layer containing Zr; an anode disposed on one side of the electrolyte layer in a first direction; a cathode containing Sr and disposed on the other side of the electrolyte layer in the first direction; and a reaction preventing layer disposed between the electrolyte layer and the cathode, characterized in that the reaction preventing layer contains Zr in an amount of 0.015 wt% to 1 wt%.
Electromagnetic relay, in particular motor vehicle relay, having a magnet yoke and having a relay coil as well as having a hinged armature which is pivotable around a rotational axis, on which hinged armature a movable contact is held opposite at least one first fixed contact (6a, 6b), having a piezo stack actuator, characterised in that the power stroke direction (h) thereof runs in parallel to the rotational axis of the hinged armature, as a result of the control of which the moving contact remains closed in the case of a current-free relay coil.
Device for the aftertreatment of exhaust gas from an internal combustion engine by mixing the exhaust gas with a metered addition of an at least partially liquid additive, evaporation of the liquid fraction of the additive and preparation of the exhaust gas-additive mixture for a downstream catalytic converter, comprising a prechamber having an exhaust gas inlet, a main chamber, a mixing device, in which the exhaust gas can be mixed with an additive, characterized in that the device furthermore comprises an intermediate device, via which a partial exhaust gas flow can be delivered from the prechamber to the mixing device, preferably at the end face, wherein - the intermediate device is provided with swirl elements, in order to reverse the direction of swirl of the swirled exhaust gas flow generated in the prechamber as the exhaust gas overflows into the interior of the intermediate device, and/or - the prechamber is designed to impel a partial exhaust gas flow in a direction of swirl, and the main chamber is designed to impel a partial exhaust gas flow from the prechamber in a direction of swirl, wherein the direction of swirl of the exhaust gas in the prechamber is opposed to the direction of swirl of the exhaust gas in the main chamber. - the intermediate device is provided with swirl elements, in order to reverse the direction of swirl of the swirled exhaust gas flow generated in the prechamber as the exhaust gas overflows into the interior of the intermediate device, and/or - the prechamber is designed to impel a partial exhaust gas flow in a direction of swirl, and the main chamber is designed to impel a partial exhaust gas flow from the prechamber in a direction of swirl, wherein the direction of swirl of the exhaust gas in the prechamber is opposed to the direction of swirl of the exhaust gas in the main chamber.
Coating system, in particular corrosion protection coating system, for producing cathodic corrosion protection on a metallic substrate, comprising at least two layers, characterized in that the coating system comprises (a) a first layer in the form of a cathodic corrosion protection coating which cross-links under the action of moisture at temperatures of less than 100 °C, wherein the first layer is obtained from a coating composition comprising at least one solvent, and (b) a second layer in the form of a coating obtained from an aqueous-based coating composition, wherein the second layer comprises at least one hydrophilic inorganic or organic polymeric compound, and wherein the inorganic or organic polymeric compound comprises ionic components and/or the coating composition additionally comprises ionic components in amounts of 0.1 to 5 wt.%, based on the coating composition. (a) a first layer in the form of a cathodic corrosion protection coating which cross-links under the action of moisture at temperatures of less than 100 °C, wherein the first layer is obtained from a coating composition comprising at least one solvent, and (b) a second layer in the form of a coating obtained from an aqueous-based coating composition, wherein the second layer comprises at least one hydrophilic inorganic or organic polymeric compound, and wherein the inorganic or organic polymeric compound comprises ionic components and/or the coating composition additionally comprises ionic components in amounts of 0.1 to 5 wt.%, based on the coating composition. wherein the second layer comprises at least one hydrophilic inorganic or organic polymeric compound, and wherein the inorganic or organic polymeric compound comprises ionic components and/or the coating composition additionally comprises ionic components in amounts of 0.1 to 5 wt.%, based on the coating composition.
A method of transmitting a Physical sidelink shared channel, PSSCH, which is transmitted by a user equipment, UE, in a wireless communication system, comprising the steps of: generating a PSSCH based on information included in a Physical sidelink control channel, PSCCH; and transmitting the generated PSSCH with the PSCCH in a subframe, wherein sequences for the PSSCH are scrambled by using a value related to a cyclic redundancy check, CRC, field on the PSCCH. generating a PSSCH based on information included in a Physical sidelink control channel, PSCCH; and transmitting the generated PSSCH with the PSCCH in a subframe, wherein sequences for the PSSCH are scrambled by using a value related to a cyclic redundancy check, CRC, field on the PSCCH.
A method for detection of an uplink grant for a user agent, UA, comprising: transmitting a request for an uplink grant to an access device; and only after transmitting the request: detecting and decoding a semi-persistent scheduling, SPS, activation or reconfiguration signaling over a physical downlink control channel, PDCCH, only during an SPS activation window, wherein the SPS activation window at least partially overlaps a discontinuous reception, DRX, on-duration and a start of the SPS activation window precedes a start of the DRX on-duration by a predetermined amount of time.
A method of hydrogenating cannabis oil, comprising: obtaining a cannabis plant having essential oil, comprising at least one of Δ-9-tetrahydrocannabinolic acid and Δ-9-cannabidiolic acid; extracting the essential oil from the cannabis plant to form an essential oil extract; and hydrogenating the essential oil extract to form hydrogenated cannabis oil, comprising at least one of hydrogenated Δ-9-tetrahydrocannabinolic acid and Δ-9-cannabidiolic acid. obtaining a cannabis plant having essential oil, comprising at least one of Δ-9-tetrahydrocannabinolic acid and Δ-9-cannabidiolic acid; extracting the essential oil from the cannabis plant to form an essential oil extract; and hydrogenating the essential oil extract to form hydrogenated cannabis oil, comprising at least one of hydrogenated Δ-9-tetrahydrocannabinolic acid and Δ-9-cannabidiolic acid.
An intaglio printing plate coating apparatus comprising: - a vacuum chamber having an inner space adapted to receive at least one intaglio printing plate to be coated; - a vacuum system coupled to the vacuum chamber and adapted to create vacuum in the inner space of the vacuum chamber; and - a physical vapour deposition system adapted to perform deposition of wear-resistant coating material under vacuum onto an engraved surface of the intaglio printing plate, which physical vapour deposition system includes at least one coating material target (51, 52) comprising a source of the wear-resistant coating material to be deposited onto the engraved surface of the intaglio printing plate, wherein the vacuum chamber is arranged so that the intaglio printing plate to be coated sits substantially vertically in the inner space of the vacuum chamber with its engraved surface facing the at least one coating material target (51, 52), and wherein the intaglio printing plate coating apparatus further comprises a movable carrier located within the inner space of the vacuum chamber and adapted to support and cyclically move the intaglio printing plate in front of and past the at least one coating material target (51,52). - a vacuum chamber having an inner space adapted to receive at least one intaglio printing plate to be coated; - a vacuum system coupled to the vacuum chamber and adapted to create vacuum in the inner space of the vacuum chamber; and - a physical vapour deposition system adapted to perform deposition of wear-resistant coating material under vacuum onto an engraved surface of the intaglio printing plate, which physical vapour deposition system includes at least one coating material target (51, 52) comprising a source of the wear-resistant coating material to be deposited onto the engraved surface of the intaglio printing plate,
An electric distributed propulsion system, the system comprising: two or more motors (611a-d) controlled by speed; an input control (626, 726) connected to the two or more motors (61 1a-d) to provide control to the two or more motors (61 1a-d) to produce a desired net thrust; and a logic connected to the input control and the two or more motors (611a-d), the logic for controlling the two or more motors (61 1a-d) with different rotational speeds to achieve the desired net thrust and to avoid a motor speed condition, characterized in that the motor speed condition is a speed dead band of the two or more motors (611a-d), wherein the logic is configured to adjust the speed and rotational direction of the motors based on the input control to achieve a desired net thrust from the propulsion system while maintaining the speed of each of the motors (611a-d) outside of the speed dead band. two or more motors (611a-d) controlled by speed; an input control (626, 726) connected to the two or more motors (61 1a-d) to provide control to the two or more motors (61 1a-d) to produce a desired net thrust; and a logic connected to the input control and the two or more motors (611a-d), the logic for controlling the two or more motors (61 1a-d) with different rotational speeds to achieve the desired net thrust and to avoid a motor speed condition, characterized in that the motor speed condition is a speed dead band of the two or more motors (611a-d), wherein the logic is configured to adjust the speed and rotational direction of the motors based on the input control to achieve a desired net thrust from the propulsion system while maintaining the speed of each of the motors (611a-d) outside of the speed dead band.
A system comprising: a belt having at least one reinforcement member comprising a conductive reinforcement material; a belt monitor disposed in conjunction with said belt, said belt monitor comprising a field inductor excited by an applied signal; and means for monitoring an electrical characteristic of at least a portion of said field inductor as influenced by changes in the electrical properties of said conductive reinforcement member in order to determine a physical condition of said conductive reinforcement member and thereby monitor a physical characteristic of said belt, characterised in that said means for monitoring comprises a sense inductor disposed adjacent to said field inductor and wherein said field inductor and said sense inductor share a common core. a belt having at least one reinforcement member comprising a conductive reinforcement material; a belt monitor disposed in conjunction with said belt, said belt monitor comprising a field inductor excited by an applied signal; and means for monitoring an electrical characteristic of at least a portion of said field inductor as influenced by changes in the electrical properties of said conductive reinforcement member in order to determine a physical condition of said conductive reinforcement member and thereby monitor a physical characteristic of said belt, characterised in that said means for monitoring comprises a sense inductor disposed adjacent to said field inductor and wherein said field inductor and said sense inductor share a common core.
A vacuum wound care module comprising: a fluid reservoir; a pump module fluidly connected to the irrigation reservoir and adapted for pumping fluid out of the fluid reservoir; a venturi vacuum fitting fluidly connected to the pump module and having a vacuum outlet and a fluid outlet; a first fluid connection (263, 264) from the fluid outlet to the fluid reservoir; a trap reservoir fluidly connected to the vacuum outlet; and a second fluid connection that is one of: (a) fluidly connected to the trap reservoir and (i) adapted to be fitted with a wound dressing to provide vacuum and allow removal of wound exudate or (ii) fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate, and (b) adapted to be fluidly connected to the trap reservoir and fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate. a fluid reservoir; a pump module fluidly connected to the irrigation reservoir and adapted for pumping fluid out of the fluid reservoir; a venturi vacuum fitting fluidly connected to the pump module and having a vacuum outlet and a fluid outlet; a first fluid connection (263, 264) from the fluid outlet to the fluid reservoir; a trap reservoir fluidly connected to the vacuum outlet; and a second fluid connection that is one of: (a) fluidly connected to the trap reservoir and (i) adapted to be fitted with a wound dressing to provide vacuum and allow removal of wound exudate or (ii) fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate, and (b) adapted to be fluidly connected to the trap reservoir and fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate. (a) fluidly connected to the trap reservoir and (i) adapted to be fitted with a wound dressing to provide vacuum and allow removal of wound exudate or (ii) fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate, and (b) adapted to be fluidly connected to the trap reservoir and fitted to such a wound dressing such that, when the wound dressing is employed, it provides vacuum and allows removal of wound exudate.