mhurhangee/ep-ind-claims huggingface dataset:
An architecture for supplying emergency electrical power to an aircraft including a pressurized cabin, at least one main engine, an auxiliary power unit APU including an alternator and a circuit for exhausting air from the cabin to the outside, said architecture being designed to supply electrical power to the aircraft in the event of a breakdown of the main engine and the emergency auxiliary unit, and including: - a circuit for recovering air coming from the cabin, - an air distributing valve to connect the air recovery circuit to the evacuation circuit, - a control for said valve to modulate the flow of air in the recovery circuit, - a system for producing electricity (32, 24, 34) by expansion of the air recovered from the cabin, said system including a turbine supplied with air recovered from the cabin, a rotating shaft driven by the turbine, and - a shiftable transmission gearbox designed to selectively connect the alternator to a drive shaft of the auxiliary power unit or to the rotating shaft driven by the turbine the architecture being characterized in that the control of the valve is further configured to control the disengagement of the transmission gearbox. - a circuit for recovering air coming from the cabin, - an air distributing valve to connect the air recovery circuit to the evacuation circuit, - a control for said valve to modulate the flow of air in the recovery circuit, - a system for producing electricity (32, 24, 34) by expansion of the air recovered from the cabin, said system including a turbine supplied with air recovered from the cabin, a rotating shaft driven by the turbine, and - a shiftable transmission gearbox designed to selectively connect the alternator to a drive shaft of the auxiliary power unit or to the rotating shaft driven by the turbine
A thermodynamic system, comprising: one or more walls forming a sealed cavity that contains a bi-phase fluid, the bi-phase fluid having at least a vapor fraction and a liquid fraction; a plurality of ribs forming channels that extend from an evaporator region of the sealed cavity to a condenser region of the sealed cavity, the evaporator region for absorbing heat into the bi-phase fluid to convert the liquid fraction into the vapor fraction, the condenser region for dissipating the heat out of the bi-phase fluid to convert the vapor fraction into the liquid fraction; and a porous microstructure sheet (202; 700) disposed over the plurality of ribs to form a boundary between a liquid flow path, that is defined by the channels, and a vapor flow path, wherein the porous microstructure sheet (202; 700) includes a plurality of pores (216; 702) characterised in that the plurality of pores (216; 702) individually include an interior corner, that is formed by an intersection between two interior walls that intersect, wherein the liquid fraction forms a thin-film evaporation region within the interior corner at a liquid-vapor boundary between the liquid fraction and the vapor fraction, wherein the liquid-vapor boundary resides within individual pores of the porous microstructure sheet (202; 700). one or more walls forming a sealed cavity that contains a bi-phase fluid, the bi-phase fluid having at least a vapor fraction and a liquid fraction; a plurality of ribs forming channels that extend from an evaporator region of the sealed cavity to a condenser region of the sealed cavity, the evaporator region for absorbing heat into the bi-phase fluid to convert the liquid fraction into the vapor fraction, the condenser region for dissipating the heat out of the bi-phase fluid to convert the vapor fraction into the liquid fraction; and a porous microstructure sheet (202; 700) disposed over the plurality of ribs to form a boundary between a liquid flow path, that is defined by the channels, and a vapor flow path, wherein the porous microstructure sheet (202; 700) includes a plurality of pores (216; 702) characterised in that
A primer coating composition comprising: an aqueous polyolefin-based resin; an aqueous epoxy resin; a hydrophilicized-modified carbodiimide compound; and an aqueous polyurethane resin, wherein the aqueous polyolefin-based resin includes an aqueous polypropylene-based resin having a weight-average molecular weight of 50,000 to 200,000, the hydrophilicized-modified carbodiimide compound is a compound represented by a formula, or below: [Chemical Formula 1] YOCONH-X-NHCOO-Z-OCONH-X-NHCOOY ··· wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, and 2 is a structure resulting from elimination of a hydroxyl group from a bifunctional polyol having a number-average molecular weight of 200 to 5,000, wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, R 0 is hydrogen, a methyl group or an ethyl group, R 1 is an alkylene group having 4 or less carbon atoms, n is 0 or 1, and m is 0 to 60, [Chemical Formula 3] YOCONH-X-NHCOOY ··· wherein X is a bifunctional organic group having at least one carbodiimide group, and Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether. an aqueous polyolefin-based resin; an aqueous epoxy resin; a hydrophilicized-modified carbodiimide compound; and an aqueous polyurethane resin, wherein the aqueous polyolefin-based resin includes an aqueous polypropylene-based resin having a weight-average molecular weight of 50,000 to 200,000, the hydrophilicized-modified carbodiimide compound is a compound represented by a formula, or below: [Chemical Formula 1] YOCONH-X-NHCOO-Z-OCONH-X-NHCOOY ··· wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, and 2 is a structure resulting from elimination of a hydroxyl group from a bifunctional polyol having a number-average molecular weight of 200 to 5,000, wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, R 0 is hydrogen, a methyl group or an ethyl group, R 1 is an alkylene group having 4 or less carbon atoms, n is 0 or 1, and m is 0 to 60, [Chemical Formula 3] YOCONH-X-NHCOOY ··· wherein X is a bifunctional organic group having at least one carbodiimide group, and Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether.
A structure comprising: a tube having an inner surface forming a cavity and two ends, wherein one or both ends are open, the tube being suitable for supporting an electrode active material; a metal on the inner surface of the tube; and lithium metal formed on the metal. a tube having an inner surface forming a cavity and two ends, wherein one or both ends are open, the tube being suitable for supporting an electrode active material; a metal on the inner surface of the tube; and lithium metal formed on the metal.
A dye-sensitized solar cell module which provides a plurality of electrically series-connected solar cells each having a first conductive layer formed on an insulating substrate, a photoelectric conversion device formed on the first conductive layer, and a second conductive layer formed on the photoelectric conversion device, wherein the photoelectric conversion device has a photoelectric conversion layer having a porous semiconductor layer adsorbing a dye, a carrier transporting layer and a catalyst layer, the second conductive layer of the above-described one solar cell contacts the first conductive layer of an adjacent another solar cell and the photoelectric conversion layer of the above-described adjacent another solar cell is in direct physical contact with the second conductive layer of the above-described one solar cell.
Device for air-conditioning a room with a heat exchanger module which comprises at least one meandering pipe coil through which a tempering fluid can flow and which has a plurality of parallel longitudinal pipe sections, which are connected via connecting sections, the pipe coil being inserted in the region of the longitudinal pipe sections in pipe receptacles of at least one holding profile running transversely to the longitudinal direction of the longitudinal pipe sections, characterized in that the heat exchanger module is composed of at least two pipe coils whose conjoined pipe ends are connected to one another in the region of a common longitudinal pipe section by means of a fitting which forms a pivot bearing with an axis of rotation parallel to the longitudinal pipe direction for the pipe coils connected to one another.
A method for controlling vehicles, in particular transport vehicles, of an installation, wherein in a first step routes of the vehicles from a respective starting position to a target position are determined, wherein in a second step positions of the vehicles are detected and transmitted to a central control unit, wherein the detection and transmission are repeated cyclically, wherein the route of a respective vehicle is represented by a chronological sequence of segments, wherein a respective segment is associated with each time step in this case, wherein a driving region segment is determined as respective route for each time step, wherein for each time step not more than one of the vehicles is disposed in any of the driving region segments, characterised in that a segment sequence is specified for the respective vehicle, the respective vehicle controlling its position or path itself, wherein the segment determined for each time step for the respective vehicle is specified by the central control unit, wherein the vehicle in the time period corresponding to the time step is allowed to move only within the segment, wherein the vehicle drives along a trajectory which is directed towards the segment specified for the next time step, with in this next time step the vehicle then having to enter into the next segment and there in turn driving directed towards the next segment in turn, upon a respective vehicle deviating from the route determined for the respective vehicle the route for the respective vehicle is determined anew, wherein a priority stage is associated with the vehicles and when determining routes those routes which are provided for vehicles with a higher priority stage are determined as priority.
Organic light-emitting device comprising: - an active layer for generating radiation having a first side surface and a second side surface adjoining a corner edge, - a first contact strip extending along the first side surface and serving for injecting charge carriers of a first type into the active layer, and - a second contact strip extending along the second side surface and serving for injecting charge carriers of a second type into the active layer, wherein the first side surface has a cancellation region adjoining the corner edge, and the injection of charge carriers from the first contact strip is suppressed in the cancellation region, wherein the active layer has a first main surface and a second main surface, and a first contact connection comprising the first contact strip extends onto the first main surface and a second contact connection comprising the second contact strip extends on the second main surface, characterized in that a metallic contact layer of the first contact connection has a triangular structure in a marginal region, wherein the metallic contact layer is withdrawn from the side surface of the active layer all the more, the nearer said metallic contact layer comes to the cancellation region, with the result that the first contact connection has a conductivity profile, and the conductivity decreases from a centre of the first side surface towards the cancellation region. - an active layer for generating radiation having a first side surface and a second side surface adjoining a corner edge, - a first contact strip extending along the first side surface and serving for injecting charge carriers of a first type into the active layer, and - a second contact strip extending along the second side surface and serving for injecting charge carriers of a second type into the active layer,
A terminal comprising: a reception unit configured to receive information used for random access from a base station; a control unit configured to identify a random access channel, RACH, resource for transmitting a random access preamble based on the information; and a transmission unit configured to transmit the random access preamble to the base station via the RACH resource, wherein the control unit is configured to identify the RACH resource based on a number of continuously arranged RACH resources associated with one synchronization signal, SS, block, the number being indicated by the information. a reception unit configured to receive information used for random access from a base station; a control unit configured to identify a random access channel, RACH, resource for transmitting a random access preamble based on the information; and a transmission unit configured to transmit the random access preamble to the base station via the RACH resource, wherein the control unit is configured to identify the RACH resource based on a number of continuously arranged RACH resources associated with one synchronization signal, SS, block, the number being indicated by the information.
A centralizing bushing assembly comprising: a bushing housing having axial ends and an opening extending therethrough along an axial axis, the opening including a pocket extending outwardly from the axial axis within the bushing housing and having internal shoulders facing each other in which the opening through the bushing housing includes a smaller diameter hole connected to the pocket which has a larger diameter; a bushing ring positioned within the pocket of the bushing housing between the internal shoulders, the bushing ring having a split for allowing collapsing of the bushing ring radially inward, an inner diameter (la) for slidably engaging an axially movable shaft extending through the bushing housing along the axial axis, and an outer shoulder; and a resilient biasing member positioned against the outer shoulder of the bushing ring radially biasing the inner diameter of the bushing ring radially inwardly in a centralizing manner about the axial axis for engaging and centralizing the shaft slidably positioned therethrough, wherein the resilient biasing member comprising a resilient O-ring characterized in that the pocket within the bushing housing has an angled surface which biases the O-ring both radially inwardly and axially, for biasing the inner diameter (la) of the bushing ring radially inwardly, and for biasing the bushing ring axially against one internal shoulder. a bushing housing having axial ends and an opening extending therethrough along an axial axis, the opening including a pocket extending outwardly from the axial axis within the bushing housing and having internal shoulders facing each other in which the opening through the bushing housing includes a smaller diameter hole connected to the pocket which has a larger diameter; a bushing ring positioned within the pocket of the bushing housing between the internal shoulders, the bushing ring having a split for allowing collapsing of the bushing ring radially inward, an inner diameter (la) for slidably engaging an axially movable shaft extending through the bushing housing along the axial axis, and an outer shoulder; and a resilient biasing member positioned against the outer shoulder of the bushing ring radially biasing the inner diameter of the bushing ring radially inwardly in a centralizing manner about the axial axis for engaging and centralizing the shaft slidably positioned therethrough, wherein the resilient biasing member comprising a resilient O-ring characterized in that the pocket within the bushing housing has an angled surface which biases the O-ring both radially inwardly and axially, for biasing the inner diameter (la) of the bushing ring radially inwardly, and for biasing the bushing ring axially against one internal shoulder.
A method for preparing a flavor-containing sheet for a smoking article, characterized by comprising: a step of extending a raw material slurry on a substrate, wherein the slurry contains a polysaccharide consisting of gellan gum and tamarind gum, a flavor, an emulsifier and 70 to 95 wt% of water, has a weight ratio of gellan gum to tamarind gum of 1:1 to 3:1, and has a temperature of 60 to 90°C in a sol state; a step of cooling the extended raw material slurry to a sample temperature of 0 to 30°C to form a gel without adding a metal ion; and a heat-drying step comprising heating the gelled raw material and drying it at a sample temperature of 70 to 100°C, wherein the heat-drying step is performed for a total heat-drying time of 20 minutes or less. a step of extending a raw material slurry on a substrate, wherein the slurry contains a polysaccharide consisting of gellan gum and tamarind gum, a flavor, an emulsifier and 70 to 95 wt% of water, has a weight ratio of gellan gum to tamarind gum of 1:1 to 3:1, and has a temperature of 60 to 90°C in a sol state; a step of cooling the extended raw material slurry to a sample temperature of 0 to 30°C to form a gel without adding a metal ion; and a heat-drying step comprising heating the gelled raw material and drying it at a sample temperature of 70 to 100°C, wherein the heat-drying step is performed for a total heat-drying time of 20 minutes or less.
A lens assembly, comprising: - a lens formed from a transparent material, which has an upper surface, a lateral surface surrounding the lens, and a bottom surface, - a lateral direction (d lat, D lat), which is orthogonal to a vertical direction (d v) pointing from the bottom surface towards the upper surface, widths (w 1, w 2) of the lens that are defined in the lateral direction (d lat, D lat) by the lateral surface decreasing in the vertical direction (d v) from a maximal width (W max, W max) at or near the bottom surface to a non-vanishing minimal width (w min, W min) at the upper surface, - an optoelectronic component arranged at or near the bottom surface, - an encasement is provided for the lens, - the encasement is arranged at a distance from the lens, and - a void is left between the encasement and the lens, - an aperture is provided at the upper surface, the lens being arranged between the optoelectronic component and the aperture, wherein the aperture is formed by the encasement or by a cap layer, characterized in that - the lens is configured to direct incident radiation from a wide field of view onto the optoelectronic component by total internal reflection at the lateral surface of the lens, or to direct emitted radiation from the optoelectronic component in a reversed direction, respectively. - a lens formed from a transparent material, which has an upper surface, a lateral surface surrounding the lens, and a bottom surface, - a lateral direction (d lat, D lat), which is orthogonal to a vertical direction (d v) pointing from the bottom surface towards the upper surface, widths (w 1, w 2) of the lens that are defined in the lateral direction (d lat, D lat) by the lateral surface decreasing in the vertical direction (d v) from a maximal width (W max, W max) at or near the bottom surface to a non-vanishing minimal width (w min, W min) at the upper surface, - an optoelectronic component arranged at or near the bottom surface, - an encasement is provided for the lens, - the encasement is arranged at a distance from the lens, and - a void is left between the encasement and the lens, - an aperture is provided at the upper surface, the lens being arranged between the optoelectronic component and the aperture, wherein the aperture is formed by the encasement or by a cap layer, characterized in that - the lens is configured to direct incident radiation from a wide field of view onto the optoelectronic component by total internal reflection at the lateral surface of the lens, or to direct emitted radiation from the optoelectronic component in a reversed direction, respectively.
A method for controlling a wireless power transmitter, the method comprising: applying a detection power for detecting a change in a load of the wireless power transmitter; detecting the change in the load of the wireless power transmitter; receiving a first signal comprising load detection indication bits from an electronic device within a preset time after detecting the change in the load; determining whether the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits; in response to determining that the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits, transmitting a second signal responsive to the first signal; and in response to determining that the change in the load of the wireless power transmitter cannot be detected for the electronic device based on the load detection indication bits, stopping a communication with the electronic device. applying a detection power for detecting a change in a load of the wireless power transmitter; detecting the change in the load of the wireless power transmitter; receiving a first signal comprising load detection indication bits from an electronic device within a preset time after detecting the change in the load; determining whether the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits; in response to determining that the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits, transmitting a second signal responsive to the first signal; and in response to determining that the change in the load of the wireless power transmitter cannot be detected for the electronic device based on the load detection indication bits, stopping a communication with the electronic device.