mhurhangee/ep-ind-claims huggingface dataset:
An outdoor power generating apparatus, comprising: a housing placed at an outside and including a power generation chamber; a power generation source accommodated in the power generation chamber and formed by either one of an engine driving a generator and a fuel cell generating an electric power by a fuel and an oxidant; an intake portion provided within the housing and positioned at an upper side of the power generation source, the intake portion including an outside air inlet portion that opens to a side wall of the housing to bring an outside air within the housing, the intake portion including a meander passage that connects the outside air inlet portion to the power generation chamber while bringing the outside air to meander from the outside air inlet portion towards the power generation chamber; and a drain port provided at the meander passage and discharging a water in a liquid state that remains at the meander passage to an outside of the meander passage, wherein the housing accommodates a heat supply portion heated by a heat that is generated when the power generation source is operated, characterized in that the heat supply portion includes a hot liquid tank storing a heat as a hot liquid, the heat being generated when either one of the engine and the fuel cell is operated, the hot liquid tank transmitting the heat to the meander passage for melting snow that enters the meander passage. a housing placed at an outside and including a power generation chamber; a power generation source accommodated in the power generation chamber and formed by either one of an engine driving a generator and a fuel cell generating an electric power by a fuel and an oxidant; an intake portion provided within the housing and positioned at an upper side of the power generation source, the intake portion including an outside air inlet portion that opens to a side wall of the housing to bring an outside air within the housing, the intake portion including a meander passage that connects the outside air inlet portion to the power generation chamber while bringing the outside air to meander from the outside air inlet portion towards the power generation chamber; and a drain port provided at the meander passage and discharging a water in a liquid state that remains at the meander passage to an outside of the meander passage, wherein the housing accommodates a heat supply portion heated by a heat that is generated when the power generation source is operated, characterized in that the heat supply portion includes a hot liquid tank storing a heat as a hot liquid, the heat being generated when either one of the engine and the fuel cell is operated, the hot liquid tank transmitting the heat to the meander passage for melting snow that enters the meander passage.
Method for building-up a three-dimensional laminar preform for a structure member of a fibre composite material, comprising the following steps: forming a preform by laying a fibre set of dry fibres on a three-dimensional workpiece carrier for forming of fibre layers of the three-dimensional preform, and air-tight packing of the preform between a first layer (70, 71) at a first side of the laminar preform and a second layer (70, 71) at a second side of the laminar preform opposite to the first side and evacuating the interspace between the layers, the fibre layers being form-fixed by the packing, wherein, during the forming of the preform, one or plural third layers (70, 71) is/are laid between one or plural of the fibre layers (30, 33), and wherein the first layer (70, 71) and the second layer (70, 71) and the third layer(s) are thermoplastic and/or thermoset resin layers or thermoplastic and/or thermoset foils. forming a preform by laying a fibre set of dry fibres on a three-dimensional workpiece carrier for forming of fibre layers of the three-dimensional preform, and air-tight packing of the preform between a first layer (70, 71) at a first side of the laminar preform and a second layer (70, 71) at a second side of the laminar preform opposite to the first side and evacuating the interspace between the layers, the fibre layers being form-fixed by the packing, wherein, during the forming of the preform, one or plural third layers (70, 71) is/are laid between one or plural of the fibre layers (30, 33), and wherein the first layer (70, 71) and the second layer (70, 71) and the third layer(s) are thermoplastic and/or thermoset resin layers or thermoplastic and/or thermoset foils.
An article (100, 200, 400), comprising a microstructured layer (110, 210, 410) with upper and lower major surfaces (114, 414, 116, 416), comprising a plurality of optically-isolated microwells (122, 222, 422) extending below the upper major surface (114, 414); and an optically-transmissive flexible layer (130, 230, 530) coupled to the lower major surface (116, 416) of the microstructured layer (110, 210, 410); wherein each microwell (122, 222, 422) in the micro structured layer (110, 210, 410) comprises an opening, an optically-transmissive bottom wall, and at least one side wall extending between the opening and the bottom wall; wherein a thickness (t) is defined by a thickness of the bottom wall plus a thickness of the optically-transmissive flexible layer (130, 230, 530); wherein t is 2 μm to 55 μm; characterized in that the optically transmissive flexible layer (130, 230, 530) comprises a film comprising polyethylene terephthalate, polyethylene naphthalate, high density polyethylene, low density polyethylene, or linear low density polyethylene; and characterized in that the optically transmissive flexible layer (130, 230, 530) further comprises an adhesive.
Monolithic carrier body for a relay, the monolithic carrier body comprising a base body from which: -a coil carrier that is integral with the base body, and -a contact element mount that is integral with the base body protrude away, characterized in that the contact element mount extends over more than half the height of the coil carrier. -a coil carrier that is integral with the base body, and -a contact element mount that is integral with the base body protrude away, characterized in that the contact element mount extends over more than half the height of the coil carrier.
A sheet for use in a total heat exchanger comprising a hydrophilic polymer-processed sheet, said hydrophilic polymer-processed sheet comprising a porous sheet containing not less than 30% by weight and not more than 100% by weight of hydrophilic fiber, wherein the porous sheet is coated with or impregnated with an aqueous solution of a hydrophilic polymer, wherein the pores of said porous sheet are closed with cellulose regenerated from said aqueous solution of the hydrophilic polymer on the surface and/or inside of said porous sheet, wherein the hydrophilic polymer is being made water-insoluble by the regeneration of the cellulose, wherein the cellulose is regenerated by reacting the aqueous solution with an acid, wherein the hydrophilic polymer is applied to the porous sheet in an amount of not less than 0.5 g/m 2 and not more than 30 g/m 2, and wherein the hydrophilic polymer is cellulose regenerated from a viscose.
A spectral sensor comprising: a light detecting element; a microlens; and an interference filter arranged between the light detecting element and the microlens, and configured to transmit light in one or more spectral bands; characterized in that the interference filter comprises a first multilayer and a second multilayer separated by an intermediate layer configured such that the interference filter provides constructive interference for light in the one or more spectral bands, and that the microlens is configured to refract collimated light incident on the microlens, such that light refracted by the microlens and transmitted through the interference filter, converges towards a position behind a light sensitive volume of the light detecting element. a light detecting element; a microlens; and an interference filter arranged between the light detecting element and the microlens, and configured to transmit light in one or more spectral bands; characterized in that the interference filter comprises a first multilayer and a second multilayer separated by an intermediate layer configured such that the interference filter provides constructive interference for light in the one or more spectral bands, and that the microlens is configured to refract collimated light incident on the microlens, such that light refracted by the microlens and transmitted through the interference filter, converges towards a position behind a light sensitive volume of the light detecting element.
A method for determining the fluid properties of subsurface reservoired hydrocarbons having a hydrocarbon seep, the method comprising the steps of: a) locating a hydrocarbon seep (S1, S2, S3, S4, S5) at a seabed location where hydrocarbons are actively flowing out of the seabed; b) collecting samples of hydrocarbons from the hydrocarbon seep (S1, S2, S3, S4, S5); and c) determining the fluid properties of the samples of hydrocarbons, the fluid properties selected from the group consisting of physical, transport and thermodynamic properties; and characterised in that the method comprises: d) determining whether the hydrocarbon seep (S1, S2, S3, S4, S5) is at a steady state, indicative of reservoired hydrocarbons, by (i) determining at least two temporally spaced compositions of the hydrocarbon seep (S1, S2, S3, S4, S5), the at least two temporally spaced compositions selected from the group consisting of isotopic compositions, molecular compositions, and combinations thereof; (ii) determining a temporal variance between the at least two temporally spaced compositions; and (iii) when the temporal variance falls with a predetermined temporal tolerance, classifying the hydrocarbon seep (S1, S2, S3, S4, S5) as being indicative of the presence of reservoired hydrocarbons. a) locating a hydrocarbon seep (S1, S2, S3, S4, S5) at a seabed location where hydrocarbons are actively flowing out of the seabed; b) collecting samples of hydrocarbons from the hydrocarbon seep (S1, S2, S3, S4, S5); and c) determining the fluid properties of the samples of hydrocarbons, the fluid properties selected from the group consisting of physical, transport and thermodynamic properties; and (i) determining at least two temporally spaced compositions of the hydrocarbon seep (S1, S2, S3, S4, S5), the at least two temporally spaced compositions selected from the group consisting of isotopic compositions, molecular compositions, and combinations thereof; (ii) determining a temporal variance between the at least two temporally spaced compositions; and (iii) when the temporal variance falls with a predetermined temporal tolerance, classifying the hydrocarbon seep (S1, S2, S3, S4, S5) as being indicative of the presence of reservoired hydrocarbons.
A powder coating composition comprising strontium titanium oxide and a ceramic or one or more metals and/or metal alloys, wherein the strontium titanium oxide comprises 25 - 60 wt.% Sr 2 TiO 4 and 75-40 wt.% Sr 3 Ti 2 0 7.
A method comprising: providing an elastomeric stamp (40, 140) comprising a base surface and a stamping surface extending away from the base surface, the stamping surface comprising at least one first pattern element and at least one second pattern element, and wherein: the first pattern element of the stamping surface has a fill factor, defined as an area fraction of a given region of a stamp that includes a raised feature or features, of 20 to 99 percent, and the first pattern element of the stamping surface comprises a continuous region and at least one discontinuous region comprising at least one of: one or more elongated concavities, and one or more interior voids; and the second pattern element of the stamping surface has a fill factor of 0.25 to 10 percent, and the second pattern element of the stamping surface comprises traces with a width from 0.1 micrometers to 50 micrometers; inking the stamping surface with an ink composition comprising a functionalizing molecule with a functional group selected to bind to a surface of an ink-receptive material; and contacting the inked stamping surface with a major surface of the ink-receptive material selected from a sheet or a web for a contact time sufficient to bind the functional group with the surface of the ink-receptive material to form a self-assembled monolayer of the functionalizing material thereon. the first pattern element of the stamping surface has a fill factor, defined as an area fraction of a given region of a stamp that includes a raised feature or features, of 20 to 99 percent, and the first pattern element of the stamping surface comprises a continuous region and at least one discontinuous region comprising at least one of: one or more elongated concavities, and one or more interior voids; and the second pattern element of the stamping surface has a fill factor of 0.25 to 10 percent, and the second pattern element of the stamping surface comprises traces with a width from 0.1 micrometers to 50 micrometers; inking the stamping surface with an ink composition comprising a functionalizing molecule with a functional group selected to bind to a surface of an ink-receptive material; and
A wireless power supply device provided on a ground at a predetermined parking position, the device comprising: a power transmission coil for transmitting electric power to a power receiving coil provided in a vehicle via a wireless connection when the vehicle is parked in the predetermined parking position; a power transmission coil unit housing the power transmission coil; and a marker provided closer to a side where the vehicle enters when parked in the predetermined parking position than the power transmission coil unit, characterized in that the marker is composed of a first segment and a second segment not parallel to each other and has a configuration in which an end portion of the first segment is placed in the second segment, and the power transmission coil being separated by a predetermined distance from a point of intersection of the first segment and the second segment in a direction in which the first segment extends. a power transmission coil for transmitting electric power to a power receiving coil provided in a vehicle via a wireless connection when the vehicle is parked in the predetermined parking position; a power transmission coil unit housing the power transmission coil; and a marker provided closer to a side where the vehicle enters when parked in the predetermined parking position than the power transmission coil unit, characterized in that the marker is composed of a first segment and a second segment not parallel to each other and has a configuration in which an end portion of the first segment is placed in the second segment, and the power transmission coil being separated by a predetermined distance from a point of intersection of the first segment and the second segment in a direction in which the first segment extends.
A method for operating a heating system in a building with at least one heatable room, said method comprising the steps of: at least the following measurement values are periodically generated and recorded at specified times: - a current actual room temperature ( T R) of said at least one heatable room; - a current target room temperature (T R,W) of said at least one heatable room; and - an outside temperature ( T A); specifying a target temperature ( T E) to be reached in said at least one heatable room at a first time ( t E); determining a second time (ts) at which a heating process must start in order to reach the target temperature ( T E) at the first time ( t E), wherein determining the second time (ts) is performed as a function of a plurality of parameters, characterized in that at said specified times, further a measurement value of a current flow temperature ( T VL) is generated and recorded; the plurality of parameters is determined as a function of the recorded measurement values, wherein only those measurement values from a specified period of time (Δ t H) are used that were generated during a heating process, wherein measurement values from a time belong to a heating process if the current actual room temperature ( T R) is lower than the current specified target room temperature ( T R,W). at least the following measurement values are periodically generated and recorded at specified times: - a current actual room temperature ( T R) of said at least one heatable room; - a current target room temperature (T R,W) of said at least one heatable room; and - an outside temperature ( T A); - a current actual room temperature ( T R) of said at least one heatable room; - a current target room temperature (T R,W) of said at least one heatable room; and - an outside temperature ( T A); specifying a target temperature ( T E) to be reached in said at least one heatable room at a first time ( t E); determining a second time (ts) at which a heating process must start in order to reach the target temperature ( T E) at the first time ( t E), wherein determining the second time (ts) is performed as a function of a plurality of parameters, characterized in that at said specified times, further a measurement value of a current flow temperature ( T VL) is generated and recorded; the plurality of parameters is determined as a function of the recorded measurement values, wherein only those measurement values from a specified period of time (Δ t H) are used that were generated during a heating process, wherein measurement values from a time belong to a heating process if the current actual room temperature ( T R) is lower than the current specified target room temperature ( T R,W).
A cooking apparatus comprising: a heating device; a gas passage to guide gas supplied from the outside to the heating device; a gas valve configured to supply gas to the gas passage; a modulating valve configured to adjust the degree of opening of the gas passage; a boosting passage formed to be branched from a first portion of the gas passage and joined to a second portion of the gas passage positioned in the rear of the first portion along a direction in which gas in the gas passage flows; a boosting valve configured to open and close the boosting passage; a first nozzle disposed between the first portion and the second portion of the gas passage; a second nozzle disposed between the second portion of the gas passage and the heating device; a knob connected to the gas valve and configured to control the gas valve to adjust a degree of opening and closing of a gas supply passage; a sensor configured to detect a position of the knob; an ignition device configured to ignite the heating device; and a controller configured to control opening and closing operations of the modulating valve and control opening and closing operations of the boosting valve, wherein when the knob is positioned at a preset first point, the controller operates the ignition device, opens the modulating valve, and closes the boosting valve. a heating device; a gas passage to guide gas supplied from the outside to the heating device; a gas valve configured to supply gas to the gas passage; a modulating valve configured to adjust the degree of opening of the gas passage; a boosting passage formed to be branched from a first portion of the gas passage and joined to a second portion of the gas passage positioned in the rear of the first portion along a direction in which gas in the gas passage flows; a boosting valve configured to open and close the boosting passage; a first nozzle disposed between the first portion and the second portion of the gas passage; a second nozzle disposed between the second portion of the gas passage and the heating device; a knob connected to the gas valve and configured to control the gas valve to adjust a degree of opening and closing of a gas supply passage; a sensor configured to detect a position of the knob; an ignition device configured to ignite the heating device; and a controller configured to control opening and closing operations of the modulating valve and control opening and closing operations of the boosting valve, wherein when the knob is positioned at a preset first point, the controller operates the ignition device, opens the modulating valve, and closes the boosting valve.
A system, comprising: a ceramic blade outer air seal (BOAS); and a meter plate, a portion of the meter plate provided radially outward of a radially outermost surface of the BOAS, wherein the BOAS includes a base, a fore surface, an aft surface, a first circumferential side surface between the fore surface and the aft surface, a second circumferential side surface between the fore surface and the aft surface and a trough between the base, the fore surface, the aft surface, the fist circumferential side surface and the second circumferential side surface, wherein the meter plate has a flow restriction surface radially outward of the trough, the flow restriction surface including a plurality of orifices,wherein a flow distributor extends radially inward from the flow restriction surface into the trough, wherein the flow distributor is a bathtub, the bathtub including a fore surface, an aft surface, a first circumferential side surface between the fore surface and the aft surface, a second circumferential side surface between the fore surface and the aft surface, and a base surface, the bathtub having a contour substantially corresponding to a contour of the trough, and wherein the fore surface, the aft surface, first circumferential side, second circumferential side and the base surface of the bathtub each include orifices (1180, 1200, 1220). a ceramic blade outer air seal (BOAS); and a meter plate, a portion of the meter plate provided radially outward of a radially outermost surface of the BOAS, wherein the BOAS includes a base, a fore surface, an aft surface, a first circumferential side surface between the fore surface and the aft surface, a second circumferential side surface between the fore surface and the aft surface and a trough between the base, the fore surface, the aft surface, the fist circumferential side surface and the second circumferential side surface, wherein the meter plate has a flow restriction surface radially outward of the trough, the flow restriction surface including a plurality of orifices,wherein a flow distributor extends radially inward from the flow restriction surface into the trough, wherein the flow distributor is a bathtub, the bathtub including a fore surface, an aft surface, a first circumferential side surface between the fore surface and the aft surface, a second circumferential side surface between the fore surface and the aft surface, and a base surface, the bathtub having a contour substantially corresponding to a contour of the trough, and wherein the fore surface, the aft surface, first circumferential side, second circumferential side and the base surface of the bathtub each include orifices (1180, 1200, 1220).