mhurhangee/ep-ind-claims huggingface dataset:
Cartridge for an aerosol-generating system, comprising: a liquid storage portion (10, 10.1), comprising a housing (12, 12.1) holding a liquid aerosol-forming substrate, the housing (12, 12.1) having a first and a second opening (14, 14.1); and a first and a second permeable planar heater assembly (16, 16.1), wherein the first planar heater assembly is fixed to the housing (12, 12.1) and extends across the first opening of the housing (12, 12.1), and the second planar heater assembly (16.1) is fixed to the housing (12, 12.1) and extends across the second opening (14.1) of the housing (12, 12.1), wherein the first and second permeable planar heater assemblies (16, 16.1) are arranged opposite each other such that they face each other and form an airflow channel in between each other. a liquid storage portion (10, 10.1), comprising a housing (12, 12.1) holding a liquid aerosol-forming substrate, the housing (12, 12.1) having a first and a second opening (14, 14.1); and a first and a second permeable planar heater assembly (16, 16.1), wherein the first planar heater assembly is fixed to the housing (12, 12.1) and extends across the first opening of the housing (12, 12.1), and the second planar heater assembly (16.1) is fixed to the housing (12, 12.1) and extends across the second opening (14.1) of the housing (12, 12.1), wherein the first and second permeable planar heater assemblies (16, 16.1) are arranged opposite each other such that they face each other and form an airflow channel in between each other.
A method for identifying a connectivity of at least one fracture of a plurality of fractures of interest in an earth formation to other fractures of the plurality of fractures of interest from connectivity information for each fracture of interest, the method comprising: obtaining, by a processor, connectivity information for each fracture of interest in the earth formation, the connectivity information for each fracture of interest comprising connections with other fractures of the plurality of fractures of interest, characterised by: converting, by the processor, the connectivity information for each fracture of interest into a conjunctive normal form; and identifying, by the processor, the connectivity of the at least one fracture to the other fractures of the plurality of fractures of interest by solving the connectivity information for each fracture of interest in the conjunctive normal form using a Boolean Satisfiability problem solver, wherein the connectivity information of each fracture of interest further comprises a location of the fracture of interest and the method further comprises mapping the connectivity of the at least one fracture as a function of location to provide a connectivity map, and performing a production action with production equipment using the connectivity map. obtaining, by a processor, connectivity information for each fracture of interest in the earth formation, the connectivity information for each fracture of interest comprising connections with other fractures of the plurality of fractures of interest, characterised by: converting, by the processor, the connectivity information for each fracture of interest into a conjunctive normal form; and identifying, by the processor, the connectivity of the at least one fracture to the other fractures of the plurality of fractures of interest by solving the connectivity information for each fracture of interest in the conjunctive normal form using a Boolean Satisfiability problem solver, wherein the connectivity information of each fracture of interest further comprises a location of the fracture of interest and the method further comprises mapping the connectivity of the at least one fracture as a function of location to provide a connectivity map, and performing a production action with production equipment using the connectivity map. converting, by the processor, the connectivity information for each fracture of interest into a conjunctive normal form; and identifying, by the processor, the connectivity of the at least one fracture to the other fractures of the plurality of fractures of interest by solving the connectivity information for each fracture of interest in the conjunctive normal form using a Boolean Satisfiability problem solver, wherein the connectivity information of each fracture of interest further comprises a location of the fracture of interest and the method further comprises mapping the connectivity of the at least one fracture as a function of location to provide a connectivity map, and performing a production action with production equipment using the connectivity map.
A circularly polarised antenna device for multiband global navigational satellite systems, comprising: a spiral antenna; and a high impedance surface comprising a ground plane; the high impedance surface further comprises only a single conductive layer of resonant elements, the single conductive layer comprising a first region for operating at a first frequency range and a separate second region for operating at a second frequency range different from the first frequency range, the first region of the single conductive layer is provided with at least one resonant element of a first resonant frequency and the second region of the single conductive layer is provided with at least one resonant element of a second resonant frequency, the first and second regions (15, 20) are split along a substantially straight line, and the first region comprises one half of the single conductive layer and the second region comprises another half of the single conductive layer. a spiral antenna; and a high impedance surface comprising a ground plane; the high impedance surface further comprises only a single conductive layer of resonant elements, the single conductive layer comprising a first region for operating at a first frequency range and a separate second region for operating at a second frequency range different from the first frequency range, the first region of the single conductive layer is provided with at least one resonant element of a first resonant frequency and the second region of the single conductive layer is provided with at least one resonant element of a second resonant frequency, the first and second regions (15, 20) are split along a substantially straight line, and the first region comprises one half of the single conductive layer and the second region comprises another half of the single conductive layer.
A heat pump apparatus, comprising: a heat source-side refrigeration cycle sequentially connecting a compressor, a heat source-side heat exchanger, an expansion valve, and a heat source side of a cascade heat exchanger, the heat source-side refrigeration cycle being configured to circulate refrigerant; and a load-side refrigeration cycle sequentially connecting a heat medium sending unit, a load-side heat exchanger, and a load side of the cascade heat exchanger, the load-side refrigeration cycle being configured to circulate a heat medium, the refrigerant being flammable refrigerant or slightly flammable refrigerant, the heat source-side heat exchanger and the cascade heat exchanger each having an equivalent diameter of less than 1 mm, which is calculated by 4 x S/L, where S represents a cross-sectional area of a fluid passage and L represents a length of a wetted perimeter, wherein the heat source-side refrigeration cycle further includes a flow switching device, and wherein, when V1 represents an internal volume of a fluid passage for the refrigerant of the heat source-side heat exchanger and V2 represents an internal volume of a fluid passage for the refrigerant of the cascade heat exchanger, V1 and V2 are set to satisfy a relationship of 0.9 < (V1/V2) < 1.1. a heat source-side refrigeration cycle sequentially connecting a compressor, a heat source-side heat exchanger, an expansion valve, and a heat source side of a cascade heat exchanger, the heat source-side refrigeration cycle being configured to circulate refrigerant; and a load-side refrigeration cycle sequentially connecting a heat medium sending unit, a load-side heat exchanger, and a load side of the cascade heat exchanger, the load-side refrigeration cycle being configured to circulate a heat medium, the refrigerant being flammable refrigerant or slightly flammable refrigerant, the heat source-side heat exchanger and the cascade heat exchanger each having an equivalent diameter of less than 1 mm, which is calculated by 4 x S/L, where S represents a cross-sectional area of a fluid passage and L represents a length of a wetted perimeter, wherein the heat source-side refrigeration cycle further includes a flow switching device, and wherein, when V1 represents an internal volume of a fluid passage for the refrigerant of the heat source-side heat exchanger and V2 represents an internal volume of a fluid passage for the refrigerant of the cascade heat exchanger, V1 and V2 are set to satisfy a relationship of 0.9 < (V1/V2) < 1.1.
A method of making reduced graphite oxide worm particles, the method comprising: introducing a mixture of graphite oxide particles and a carrier fluid into a chamber at a temperature of greater than 300° C; and reducing the oxidant content of the graphite particles by greater than 50% by weight to produce reduced graphite oxide worm particles, wherein the mixture comprises a slurry of graphite oxide particles in water; wherein introducing comprises spraying the slurry of graphite oxide and water into the chamber; and wherein spraying comprises feeding into a spray nozzle a first stream comprising the graphite oxide particles and a second stream comprising an atomizing gas. introducing a mixture of graphite oxide particles and a carrier fluid into a chamber at a temperature of greater than 300° C; and reducing the oxidant content of the graphite particles by greater than 50% by weight to produce reduced graphite oxide worm particles, wherein the mixture comprises a slurry of graphite oxide particles in water; wherein introducing comprises spraying the slurry of graphite oxide and water into the chamber; and wherein spraying comprises feeding into a spray nozzle a first stream comprising the graphite oxide particles and a second stream comprising an atomizing gas.
A free-cutting copper alloy comprising: higher than 61.0 mass% and lower than 65.0 mass% of Cu; higher than 1.0 mass% and lower than 1.5 mass% of Si; higher than or equal to 0.003 mass% and lower than 0.20 mass% of Pb; and higher than 0.003 mass% and lower than 0.19 mass% of P, with the balance being Zn and inevitable impurities, wherein among the inevitable impurities, a total content of Fe, Mn, Co, and Cr is lower than 0.40 mass% and a total content of Sn and Al is lower than 0.40 mass%, when a Cu content is represented by [Cu] mass%, a Si content is represented by [Si] mass%, a Pb content is represented by [Pb] mass%, and a P content is represented by mass%, a relationship of 56.5 ≤ f 1 = Cu − 4.5 × Si + 0.5 × Pb − P ≤ 59.5 is satisfied, in constituent phases of a metallographic structure excluding non-metallic inclusions, when an area ratio of α phase is represented by (α)%, an area ratio of γ phase is represented by (γ)%, and an area ratio of β phase is represented by (β)%, relationships of 20 ≤ α ≤ 80, 15 ≤ β ≤ 80, 0 ≤ γ < 8, 18 × γ / β < 9, 20 ≤ γ 1 / 2 × 3 + β × Si 1 / 2 ≤ 88, and 33 ≤ γ 1 / 2 × 3 + β × Si 1 / 2 + Pb 1 / 2 × 35 + P 1 / 2 × 15 are satisfied, and a P-containing compound is present in the β phase. higher than 61.0 mass% and lower than 65.0 mass% of Cu; higher than 1.0 mass% and lower than 1.5 mass% of Si; higher than or equal to 0.003 mass% and lower than 0.20 mass% of Pb; and higher than 0.003 mass% and lower than 0.19 mass% of P, with the balance being Zn and inevitable impurities, wherein among the inevitable impurities, a total content of Fe, Mn, Co, and Cr is lower than 0.40 mass% and a total content of Sn and Al is lower than 0.40 mass%, when a Cu content is represented by [Cu] mass%, a Si content is represented by [Si] mass%, a Pb content is represented by [Pb] mass%, and a P content is represented by mass%, a relationship of 56.5 ≤ f 1 = Cu − 4.5 × Si + 0.5 × Pb − P ≤ 59.5 is satisfied, in constituent phases of a metallographic structure excluding non-metallic inclusions, when an area ratio of α phase is represented by (α)%, an area ratio of γ phase is represented by (γ)%, and an area ratio of β phase is represented by (β)%, relationships of 20 ≤ α ≤ 80, 15 ≤ β ≤ 80, 0 ≤ γ < 8, 18 × γ / β < 9, 20 ≤ γ 1 / 2 × 3 + β × Si 1 / 2 ≤ 88, and 33 ≤ γ 1 / 2 × 3 + β × Si 1 / 2 + Pb 1 / 2 × 35 + P 1 / 2 × 15 are satisfied, and a P-containing compound is present in the β phase.
An effluent collection unit for engine washing comprising: a portable trailer having a plurality of sides (15, 18, 20) forming an internal compartment; and an effluent collection system positioned within said internal compartment for capturing engine wash water effluent when said trailer is placed in an operational configuration; wherein: at least some of said sides (18, 20) are movable between a retracted position and an open position which exposes said effluent collection system; and said effluent collection unit further comprises at least one droplet separator panel, and wherein said plurality of movable sides when positioned for use form a channel for forcing effluent/air mixture through said droplet separator panels; characterised in that: said plurality of movable sides includes an end panel movable between a retracted position and a deployed position a portable trailer having a plurality of sides (15, 18, 20) forming an internal compartment; and an effluent collection system positioned within said internal compartment for capturing engine wash water effluent when said trailer is placed in an operational configuration; wherein: at least some of said sides (18, 20) are movable between a retracted position and an open position which exposes said effluent collection system; and said effluent collection unit further comprises at least one droplet separator panel, and wherein said plurality of movable sides when positioned for use form a channel for forcing effluent/air mixture through said droplet separator panels; characterised in that: said plurality of movable sides includes an end panel movable between a retracted position and a deployed position said plurality of movable sides includes an end panel movable between a retracted position and a deployed position
A continuous production process, for polytetrafluoroethene(PTFE) functional films, for fabricating electro-mechanical energy conversion,contains two steps of the thermal bonding of the stacks of the layers with micro-pore structure and the electrical polarization of such thermally bonded laminated films. The features of such process are as the followings: the step of the thermal bonding of the stacks of the layers with micro-pore structure is that there should be at least two compact PTFE layers (6, 8) and one porous PTFE layer sandwiched between two adjacent compact PTFE films. And then the stacks of the compact and porous PTFE films are fed into the pair of the upper and lower hot press rollers (9, 10) and be thermally bonded there forming the laminated film; The laminated film is finally electrically polarized resulting in PTFE piezoelectret film.
Tank for storing a reducing agent, in particular urea or an aqueous urea solution, said reducing agent being exposed to ambient temperature ∂ u, wherein the tank comprises a tank base, tank walls and a tank cover, characterized in that insulation (22, 38) bringing about freezing of the stored reducing agent in a targeted direction from the bottom upwards is arranged at least on the upper side of the tank, wherein the insulation is of hoodshaped design and has a geometry which is complementary with respect to the external geometry of the tank on the upper side, and wherein no insulation is provided on the tank bottom.
A fuel cell stack comprising: an interconnect disposed between a first fuel cell and a second fuel cell; and a contact layer in contact with, and disposed between, an electrode of the first fuel cell and the interconnect, wherein the contact layer comprises: a porous electrically conductive material, and a chromium-getter material disposed in pores of the porous electrically conductive material, the chromium-getter material being selected from the group consisting of: lanthanum oxide; barium oxide; lithium oxide; sodium oxide; and an inorganic carbonate, nitrate, hydroxide, or acetate that reacts with chromium vapor in a range of 300 to 850°C. an interconnect disposed between a first fuel cell and a second fuel cell; and a contact layer in contact with, and disposed between, an electrode of the first fuel cell and the interconnect, wherein the contact layer comprises: a porous electrically conductive material, and a chromium-getter material disposed in pores of the porous electrically conductive material, the chromium-getter material being selected from the group consisting of: lanthanum oxide; barium oxide; lithium oxide; sodium oxide; and an inorganic carbonate, nitrate, hydroxide, or acetate that reacts with chromium vapor in a range of 300 to 850°C. a porous electrically conductive material, and a chromium-getter material disposed in pores of the porous electrically conductive material, the chromium-getter material being selected from the group consisting of: lanthanum oxide; barium oxide; lithium oxide; sodium oxide; and an inorganic carbonate, nitrate, hydroxide, or acetate that reacts with chromium vapor in a range of 300 to 850°C. lanthanum oxide; barium oxide; lithium oxide; sodium oxide; and an inorganic carbonate, nitrate, hydroxide, or acetate that reacts with chromium vapor in a range of 300 to 850°C.
An apparatus comprising: one or more processors to: compute a plurality of hash functions that combine additions, bit-level reordering, bit-linear mixing, and wide substitutions, wherein each hash function of the plurality of hash functions differs from the other hash functions in the plurality of hash functions in the bit-linear mixing and wherein each hash function is common with the other hash functions in the plurality of hash functions in the bit-level reordering and the wide substitutions, in that the bit-level reordering and the wide substitutions can be applied uniformly in each of the plurality of hash functions; iterate through the plurality of hash functions to compute hashed versions of a supplied key until it is determined that the hashed key is located within a hash table, wherein each entry of the hash table comprises a plurality of key-value pairs; and return a corresponding value to the hashed key located within the hash table. compute a plurality of hash functions that combine additions, bit-level reordering, bit-linear mixing, and wide substitutions, wherein each hash function of the plurality of hash functions differs from the other hash functions in the plurality of hash functions in the bit-linear mixing and wherein each hash function is common with the other hash functions in the plurality of hash functions in the bit-level reordering and the wide substitutions, in that the bit-level reordering and the wide substitutions can be applied uniformly in each of the plurality of hash functions; iterate through the plurality of hash functions to compute hashed versions of a supplied key until it is determined that the hashed key is located within a hash table, wherein each entry of the hash table comprises a plurality of key-value pairs; and return a corresponding value to the hashed key located within the hash table.
A method to make an administrable solution, the method comprising: adding an alkali salt to glycerol, wherein the alkali salt is added proportionately per millilitre of the glycerol to increase the solubility of curcuminoid in the glycerol; and dissolving more than 20 milligrams of curcuminoid per millilitre of glycerol. adding an alkali salt to glycerol, wherein the alkali salt is added proportionately per millilitre of the glycerol to increase the solubility of curcuminoid in the glycerol; and dissolving more than 20 milligrams of curcuminoid per millilitre of glycerol.
An ultraviolet-curable silicone pressure-sensitive adhesive composition comprising: 100 parts by weight of organopolysiloxane having per molecule two groups of general formula: (wherein each R 1 independently is a monovalent hydrocarbon group of 1 to 20 carbon atoms; R 2 is an oxygen atom or alkylene group of 1 to 20 carbon atoms; each R 3 independently is an acryloyloxyalkyl, methacryloyloxyalkyl, acryloyloxyalkyloxy or methacryloyloxyalkyloxy group; p is a number that satisfies the condition 0 ≤ p ≤ 10 and a is a number that satisfies the condition 1 ≤ a ≤ 3), from 1 to 200 parts by weight of monofunctional (meth)acrylate compound having no siloxane structure, from 1 to 1,000 parts by weight of organopolysiloxane resin consisting of (a) R 4 3 SiO 1/2 units (wherein each R 4 independently is a monovalent hydrocarbon group of 1 to 10 carbon atoms) and (b) SiO 4/2 units, in a molar ratio of (a) units to (b) units in the range 0.4:1 to 1.2:1, from 1 to 200 parts by weight of organopolysiloxane resin consisting of (c) units of general formula below (wherein R 1, R 2, R 3, a and p are as defined above), (d) R 4 3 SiO 1/2 units (wherein R 4 is as defined above) and (e) SiO 4/2 units, in a molar ratio of (c) units and (d) units combined to (e) units in the range 0.4:1 to 1.2:1, and from 0.01 to 20 parts by weight of photopolymerization initiator. 100 parts by weight of organopolysiloxane having per molecule two groups of general formula: (wherein each R 1 independently is a monovalent hydrocarbon group of 1 to 20 carbon atoms; R 2 is an oxygen atom or alkylene group of 1 to 20 carbon atoms; each R 3 independently is an acryloyloxyalkyl, methacryloyloxyalkyl, acryloyloxyalkyloxy or methacryloyloxyalkyloxy group; p is a number that satisfies the condition 0 ≤ p ≤ 10 and a is a number that satisfies the condition 1 ≤ a ≤ 3), from 1 to 200 parts by weight of monofunctional (meth)acrylate compound having no siloxane structure, from 1 to 1,000 parts by weight of organopolysiloxane resin consisting of (a) R 4 3 SiO 1/2 units (wherein each R 4 independently is a monovalent hydrocarbon group of 1 to 10 carbon atoms) and (b) SiO 4/2 units, in a molar ratio of (a) units to (b) units in the range 0.4:1 to 1.2:1, from 1 to 200 parts by weight of organopolysiloxane resin consisting of (c) units of general formula below (wherein R 1, R 2, R 3, a and p are as defined above), (d) R 4 3 SiO 1/2 units (wherein R 4 is as defined above) and (e) SiO 4/2 units, in a molar ratio of (c) units and (d) units combined to (e) units in the range 0.4:1 to 1.2:1, and from 0.01 to 20 parts by weight of photopolymerization initiator.
An apparatus for applying a liquid matrix to a fibre tow, comprising: a belt press arranged to receive the fibre tow and compress it between two moving belts (8, 11); a matrix application roller arranged to receive liquid matrix and transfer it to the fibre tow; a second matrix application component arranged adjacent to the matrix application roller so as to form a first gap between the component and the matrix application roller; wherein the matrix application roller is positioned adjacent to the belt press so as to form a second gap between the matrix application roller and a belt (8; 11) of the belt press; and wherein the second gap is larger than the first gap. a belt press arranged to receive the fibre tow and compress it between two moving belts (8, 11); a matrix application roller arranged to receive liquid matrix and transfer it to the fibre tow; a second matrix application component arranged adjacent to the matrix application roller so as to form a first gap between the component and the matrix application roller; wherein the matrix application roller is positioned adjacent to the belt press so as to form a second gap between the matrix application roller and a belt (8; 11) of the belt press; and wherein the second gap is larger than the first gap.