mhurhangee/ep-ind-claims huggingface dataset:
A solid polymer composition comprising: (i) luminescent crystals of 3-500nm size, said luminescent crystals being selected from compounds of formula [M 1 A 1] aM 2 b X c, wherein: cation A 1, which is mandatory, is an organic cation, cation M 2 is a metal cation and cation M 1, if present, is an alkali metal cation; and A 1 represents one or more cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and (ii) surfactant selected from the group of non-ionic, anionic, cationic and zwitter-ionic surfactants, preferably zwitter-ionic surfactants; and (iii) a hardened / cured polymer, said polymer selected from the group of acrylate polymers, styrene polymers, silicone polymers, carbonate polymers, and cyclic olefin copolymers, preferably acrylates. (i) luminescent crystals of 3-500nm size, said luminescent crystals being selected from compounds of formula [M 1 A 1] aM 2 b X c, wherein: cation A 1, which is mandatory, is an organic cation, cation M 2 is a metal cation and cation M 1, if present, is an alkali metal cation; and A 1 represents one or more cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and A 1 represents one or more cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and (ii) surfactant selected from the group of non-ionic, anionic, cationic and zwitter-ionic surfactants, preferably zwitter-ionic surfactants; and (iii) a hardened / cured polymer, said polymer selected from the group of acrylate polymers, styrene polymers, silicone polymers, carbonate polymers, and cyclic olefin copolymers, preferably acrylates.
A method of synchronising a feature between an electronic vapour provision system and a mobile communication device of a user, the method comprising the steps of: obtaining a current parameter of a configurable feature on one of the electronic vapour provision system and the mobile communication device; communicating an indication of the parameter to the other of the electronic vapour provision system and the mobile communication device and the other one of the electronic vapour provision system and the mobile communication device reconfiguring a corresponding feature in response to the communicated indication of the parameter wherein a configurable feature of the electronic vapour provision system is a colour of an illuminated portion of the electronic vapour provision system and wherein a corresponding feature of the mobile communication device is one or more selected from the list consisting of: i. a colour theme of an app; ii. a colour theme of an operating system; and iii. a colour of at least part of a wallpaper image. obtaining a current parameter of a configurable feature on one of the electronic vapour provision system and the mobile communication device; communicating an indication of the parameter to the other of the electronic vapour provision system and the mobile communication device and the other one of the electronic vapour provision system and the mobile communication device reconfiguring a corresponding feature in response to the communicated indication of the parameter wherein a configurable feature of the electronic vapour provision system is a colour of an illuminated portion of the electronic vapour provision system and wherein a corresponding feature of the mobile communication device is one or more selected from the list consisting of: i. a colour theme of an app; ii. a colour theme of an operating system; and iii. a colour of at least part of a wallpaper image. i. a colour theme of an app; ii. a colour theme of an operating system; and iii. a colour of at least part of a wallpaper image.
A heat storage material composition, comprising: sodium sulfate 10-hydrate; sodium bromide; and sodium chloride, the heat storage material composition having a melting point and a solidifying point within a range of 0°C to 10°C. sodium sulfate 10-hydrate; sodium bromide; and sodium chloride, the heat storage material composition having a melting point and a solidifying point within a range of 0°C to 10°C.
A current collector for a fuel cell, the current collector comprising: a metal porous body as a sheet, the metal porous body including an electrically conductive layer on a surface, the electrically conductive layer containing electrically conductive particles and a resin, the resin being corrosion-resistant and water-repellent, the electrically conductive particles being fixed to the resin, the electrically conductive layer being porous, characterized in that the metal porous body functions as a gas flow path which allows a gas to flow in a planar direction of the electrode layer, the planar direction is a direction orthogonal to a direction of thickness of the electrically conductive layer, the metal porous body has a porosity from 50 to 85% and a pore diameter from 150 μm to 500 μm the electrically conductive layer has a porosity from 30 to 50% and a pore diameter from 10 μm to 100 μm, and the "porosity" is calculated according to the expression below: Porosity = 1 − weight of porous body ÷ volume of porous body × density of material. a metal porous body as a sheet, the metal porous body including an electrically conductive layer on a surface, the electrically conductive layer containing electrically conductive particles and a resin, the resin being corrosion-resistant and water-repellent, the electrically conductive particles being fixed to the resin, the electrically conductive layer being porous, characterized in that the metal porous body functions as a gas flow path which allows a gas to flow in a planar direction of the electrode layer, the planar direction is a direction orthogonal to a direction of thickness of the electrically conductive layer, the metal porous body has a porosity from 50 to 85% and a pore diameter from 150 μm to 500 μm the electrically conductive layer has a porosity from 30 to 50% and a pore diameter from 10 μm to 100 μm, and the "porosity" is calculated according to the expression below: Porosity = 1 − weight of porous body ÷ volume of porous body × density of material.
A combustion liner for a combustion section of a gas turbine engine, the combustion section including a transition piece the liner comprising: an outer side, an inner side, an upstream end and a downstream end, the outer side being configured to face away from a combustion reaction, the inner side being configured to face the combustion reaction; a cooling air channel, at least a portion of the cooling air channel being located in a vicinity of the downstream end; and cooling holes formed through the inner side of the liner, the cooling holes being in fluid communication with the cooling air channel such that cooling air provided to the cooling air channel is directed through the cooling holes and to the inner side of the liner such that at least a portion of the inner side of the liner receives cooling air despite a corresponding portion located on the outer side of the liner being obstructed from directly receiving cooling air by the transition piece; further comprising a seal for positioning between the downstream end of the liner and the transition piece, characterised by further comprising a baffle wall attached to the outer side of the liner, the baffle wall having an aperture formed therein, the cooling air channel being located between the baffle wall and the outer side of the liner such that cooling air directed toward the baffle wall is provided to the cooling air channel via the aperture of the baffle wall. an outer side, an inner side, an upstream end and a downstream end, the outer side being configured to face away from a combustion reaction, the inner side being configured to face the combustion reaction; a cooling air channel, at least a portion of the cooling air channel being located in a vicinity of the downstream end; and cooling holes formed through the inner side of the liner, the cooling holes being in fluid communication with the cooling air channel such that cooling air provided to the cooling air channel is directed through the cooling holes and to the inner side of the liner such that at least a portion of the inner side of the liner receives cooling air despite a corresponding portion located on the outer side of the liner being obstructed from directly receiving cooling air by the transition piece; further comprising a seal for positioning between the downstream end of the liner and the transition piece, characterised by further comprising a baffle wall attached to the outer side of the liner, the baffle wall having an aperture formed therein, the cooling air channel being located between the baffle wall and the outer side of the liner such that cooling air directed toward the baffle wall is provided to the cooling air channel via the aperture of the baffle wall.
A process for the direct oxidation of propane to acrylic acid, the process comprising the step of contacting under oxidation conditions propane and oxygen with a propane oxidation catalyst, the oxidation catalyst packed in a tubular reactor such that the effective L/D ratio of the reactor is from 20 to 40 and the oxidation conditions comprising a reactor set point temperature and a peak temperature with a ΔT between the reactor set point and peak temperatures of less than 20°C, wherein the reactor set point temperature is the target temperature for the oxidation reaction and wherein the propane oxidation catalyst is a Mo/V/Te/Nb mixed metal oxide.
An optical modulation circuit, comprising: an input terminal to receive an optical input source (OS in) including a plurality of optical channels or wavelengths and having a first channel spacing; a first channel de-interleaver configured to separate the optical input source (OS in) into first and second optical streams (211, 212), the first and second optical streams (211, 212) having a second channel spacing that is greater than the first channel spacing; a second channel de-interleaver (220) configured to separate the first optical stream into first and second separated optical streams (221, 212), the first and second separated optical streams (221, 212) having a third channel spacing that is greater than the second channel spacing; a first micro-ring modulation, MRM, (230) array configured to modulate a first set of data streams onto optical channels of the first separated optical stream to generate a first modulated optical stream; a second MRM array (230) configured to modulate a second set of data streams onto optical channels of the second separated optical stream to generate a second modulated optical stream; and a first optical interleaver (240) configured to generate a first optical output stream (OS out1) based on the first and second modulated optical streams (231, 232). an input terminal to receive an optical input source (OS in) including a plurality of optical channels or wavelengths and having a first channel spacing; a first channel de-interleaver configured to separate the optical input source (OS in) into first and second optical streams (211, 212), the first and second optical streams (211, 212) having a second channel spacing that is greater than the first channel spacing; a second channel de-interleaver (220) configured to separate the first optical stream into first and second separated optical streams (221, 212), the first and second separated optical streams (221, 212) having a third channel spacing that is greater than the second channel spacing; a first micro-ring modulation, MRM, (230) array configured to modulate a first set of data streams onto optical channels of the first separated optical stream to generate a first modulated optical stream; a second MRM array (230) configured to modulate a second set of data streams onto optical channels of the second separated optical stream to generate a second modulated optical stream; and a first optical interleaver (240) configured to generate a first optical output stream (OS out1) based on the first and second modulated optical streams (231, 232).
A method for manufacturing an agricultural-machine tire in which a vulcanizing mold is used for vulcanization molding to manufacture a tire including a tread portion provided with a land portion, the vulcanizing mold comprising: a tire molding portion in which a casing member constituting a tire body is disposed, and which is configured to define an outer surface shape of the tire; an extrusion preparing portion in which an unvulcanized rubber member for forming a tread portion can be disposed; and a rubber inflow path communicating between the tire molding portion and the extrusion preparing portion, wherein the vulcanization molding includes: loading the casing member in the tire molding portion and loading the unvulcanized rubber member in the extrusion preparing portion; subsequently, extruding the unvulcanized rubber member to a tread molding portion (21c, 21d) through the rubber inflow path, the tread molding portion (21c, 21d) being formed in the tire molding portion and configured to define an outer surface shape of the land portion; and subsequently, vulcanizing the extruded unvulcanized rubber member and the casing member together, wherein the vulcanizing mold further comprises a plurality of pressing members in the tire circumferential direction, each of the pressing members being disposed movably toward the extrusion preparing portion, and wherein the pressing members are each moved relative to the unvulcanized rubber member in the extrusion preparing portion to extrude the unvulcanized rubber member, characterized in that only a part of the pressing members are moved toward the unvulcanized rubber member, then the rest of the pressing members are moved, in order. a tire molding portion in which a casing member constituting a tire body is disposed, and which is configured to define an outer surface shape of the tire; an extrusion preparing portion in which an unvulcanized rubber member for forming a tread portion can be disposed; and a rubber inflow path communicating between the tire molding portion and the extrusion preparing portion, loading the casing member in the tire molding portion and loading the unvulcanized rubber member in the extrusion preparing portion; subsequently, extruding the unvulcanized rubber member to a tread molding portion (21c, 21d) through the rubber inflow path, the tread molding portion (21c, 21d) being formed in the tire molding portion and configured to define an outer surface shape of the land portion; and subsequently, vulcanizing the extruded unvulcanized rubber member and the casing member together,
Charging adapter (200, 300, 400) for a charging station, comprising: - at least one first adapter port (202, 302) corresponding to a charging port of the charging station, - at least one second adapter port (204, 304) corresponding to a household port (330, 430), - wherein the charging adapter (200, 300, 400) comprises at least one housing (214,314), - wherein the charging adapter (200, 300, 400) comprises at least one electronic switching device (210, 310) configured to allow a current flow between the first adapter port (202, 302) and the second adapter port (204, 304) during a power exchange step, - wherein the charging adapter (200, 300, 400) comprises at least one first communication module (212, 312) coupled to the electronic switching device (210,310), - wherein the first communication module (212, 312) is configured to control the electronic switch (210, 310) depending on a receivable switching information, such that a current flow is enabled, - characterized in that the housing (214, 314) is configured to lock a coupling between the second adapter port (204, 304) and a household port (330, 430) at least during the power exchange step, and wherein at least the electronic switching device (210, 310) is integrated in the housing (214, 314), - the housing (214, 314) comprises a first half shell connected to a further half shell via a swivel joint, and - the first half shell and the further half shell are configured to cause a locking of the coupling between the second adapter port (204, 304) and the household port (330, 430) by enclosing the coupling between the second adapter port (204, 304) and the household port (330, 430) in a closed state. - at least one first adapter port (202, 302) corresponding to a charging port of the charging station, - at least one second adapter port (204, 304) corresponding to a household port (330, 430), - wherein the charging adapter (200, 300, 400) comprises at least one housing (214,314), - wherein the charging adapter (200, 300, 400) comprises at least one electronic switching device (210, 310) configured to allow a current flow between the first adapter port (202, 302) and the second adapter port (204, 304) during a power exchange step, - wherein the charging adapter (200, 300, 400) comprises at least one first communication module (212, 312) coupled to the electronic switching device (210,310), - wherein the first communication module (212, 312) is configured to control the electronic switch (210, 310) depending on a receivable switching information, such that a current flow is enabled, - characterized in that - the housing (214, 314) comprises a first half shell connected to a further half shell via a swivel joint, and - the first half shell and the further half shell are configured to cause a locking of the coupling between the second adapter port (204, 304) and the household port (330, 430) by enclosing the coupling between the second adapter port (204, 304) and the household port (330, 430) in a closed state.
A method for editing a three-dimensional, 3D, mesh composed of faces formed from vertices connected by edges and that is stored in one or more files, comprising: placing, by a process of a software application executing on one or more computing systems, a lock for a client (120, 160) on the 3D mesh in the one or more files, to prevent conflicting edits; receiving, by the process from the client (120, 160), a request for data of a region of the 3D mesh; tagging at least a boundary of the region of the 3D mesh as read-only, the boundary composed of external faces, and returning the requested data and tags to the client (120, 160); editing the returned data, the edit being allowed or disallowed based on satisfying one or more conditions, the one or more conditions including that the edit does not change tagged data; receiving a request from the client (120, 160) to commit the edit; and merging the committed edit with another edit to the 3D mesh in the one or more files. placing, by a process of a software application executing on one or more computing systems, a lock for a client (120, 160) on the 3D mesh in the one or more files, to prevent conflicting edits; receiving, by the process from the client (120, 160), a request for data of a region of the 3D mesh; tagging at least a boundary of the region of the 3D mesh as read-only, the boundary composed of external faces, and returning the requested data and tags to the client (120, 160); editing the returned data, the edit being allowed or disallowed based on satisfying one or more conditions, the one or more conditions including that the edit does not change tagged data; receiving a request from the client (120, 160) to commit the edit; and merging the committed edit with another edit to the 3D mesh in the one or more files.
An animal training system comprising: a transmitter device that transmits an activation signal, the activation signal indicating a selected one of a plurality of intensities within a discrete range of available intensities to be delivered to an animal, the discrete range of available intensities being selectable by a user from a plurality of discrete ranges of intensities such that the plurality of intensities within a selected discrete range of intensities are available to be delivered to the animal, each discrete range of intensities having an upper limit and a lower limit such that each of the plurality of intensities of a selected discrete range is suitable to be delivered to the animal based on particular sensitivities of the animal to the stimulus to be delivered to the animal; and a stimulus delivery device adapted to be carried by the animal, said stimulus delivery device being configured to receive the activation signal and to deliver to the animal a stimulus having the selected one of the plurality of intensities. a transmitter device that transmits an activation signal, the activation signal indicating a selected one of a plurality of intensities within a discrete range of available intensities to be delivered to an animal, the discrete range of available intensities being selectable by a user from a plurality of discrete ranges of intensities such that the plurality of intensities within a selected discrete range of intensities are available to be delivered to the animal, each discrete range of intensities having an upper limit and a lower limit such that each of the plurality of intensities of a selected discrete range is suitable to be delivered to the animal based on particular sensitivities of the animal to the stimulus to be delivered to the animal; and a stimulus delivery device adapted to be carried by the animal, said stimulus delivery device being configured to receive the activation signal and to deliver to the animal a stimulus having the selected one of the plurality of intensities.
A method for fixing a construction element to a substrate by means of at least one fixing device in the form a threaded fixing-plug with a shaft portion insertable through a fixing hole of the construction element, at one end of which are arranged a tip region tapering away from the shaft portion, and, in the tip region and in the shaft portion, an external threading for screwing into the substrate, wherein the shaft of a screw is screwed partially into a receiving region of the threaded fixing-plug facing towards it at the end of the shaft portion facing away from the tip region, characterised in that the construction element is placed in the desired position on the substrate, that the threaded fixing-plug is introduced together with the screw screwed partially into the receiving region through the fixing hole of the construction element and that the threaded fixing-plug is screwed into the substrate in a self-tapping manner by screwing the screw into the receiving region and transferring the torque from the screw to the threaded fixing-plug, so that the construction element abuts the substrate and the screw abuts the construction element.