mhurhangee/ep-ind-claims huggingface dataset:
An inverter comprising an inverter bridge (1, 15), which is connected on the input side between two DC busbars (8, 9) and on the output side to an AC output, - wherein the two DC busbars (8, 9) extend, overlapping one another, in mutually parallel planes, - wherein the inverter bridge (1, 15) has a subcircuit between the AC output and each DC busbar (8, 9), - wherein semiconductor modules (7, 7', 20, 20'), which form the two subcircuits, are arranged next to one another, - wherein the semiconductor modules (7, 7', 20, 20') are connected to the two DC busbars (8, 9) and the AC output via connections (11 to 13), and - wherein a connection element (10', 10", 17, 17'), which leads to the AC output, connects the semiconductor modules (7, 7', 20, 20') of the two subcircuits to one another in a region overlapped by the DC busbars (8, 9), characterized - in that each subcircuit provided between the AC output and one of the DC busbars (8, 9) has a plurality of semiconductor switches, and - in that the connection element (10', 10", 17, 17'), which leads to the AC output, begins in the region overlapped by the DC busbars (8, 9) on that side of the DC busbars (8, 9) which faces the semiconductor modules (7, 7', 20, 20'), connects the semiconductor modules (7, 7', 20, 20') of the two subcircuits to one another there, and emerges beneath the DC busbars (8, 9). - wherein the two DC busbars (8, 9) extend, overlapping one another, in mutually parallel planes, - wherein the inverter bridge (1, 15) has a subcircuit between the AC output and each DC busbar (8, 9), - wherein semiconductor modules (7, 7', 20, 20'), which form the two subcircuits, are arranged next to one another, - wherein the semiconductor modules (7, 7', 20, 20') are connected to the two DC busbars (8, 9) and the AC output via connections (11 to 13), and - wherein a connection element (10', 10", 17, 17'), which leads to the AC output, connects the semiconductor modules (7, 7', 20, 20') of the two subcircuits to one another in a region overlapped by the DC busbars (8, 9), characterized - in that each subcircuit provided between the AC output and one of the DC busbars (8, 9) has a plurality of semiconductor switches, and - in that the connection element (10', 10", 17, 17'), which leads to the AC output, begins in the region overlapped by the DC busbars (8, 9) on that side of the DC busbars (8, 9) which faces the semiconductor modules (7, 7', 20, 20'), connects the semiconductor modules (7, 7', 20, 20') of the two subcircuits to one another there, and emerges beneath the DC busbars (8, 9).
A computer-implemented method for determining a representative elementary area or volume for a rock sample, the method comprising: • acquiring two-dimensional, 2D, or three-dimensional, 3D, digital images of a rock sample; • iteratively analyzing property measurements collected throughout the digital images using different subsample sizes, the iterative analysis comprising: 1) for a subsample size, analyzing a property distribution by representing the property distribution of property measurements as a set of data points and grouping the set of data points into clusters by computing a parameterized function representing a log-likelihood that the clusters are the best representation of the set of data points; and 2) based on the analysis results, identifying a property distribution convergence as a function of subsample size, the method then further comprising: • selecting a smallest subsample size associated with the property distribution convergence as a representative elementary area or volume for the rock sample. • acquiring two-dimensional, 2D, or three-dimensional, 3D, digital images of a rock sample; • iteratively analyzing property measurements collected throughout the digital images using different subsample sizes, the iterative analysis comprising: 1) for a subsample size, analyzing a property distribution by representing the property distribution of property measurements as a set of data points and grouping the set of data points into clusters by computing a parameterized function representing a log-likelihood that the clusters are the best representation of the set of data points; and 2) based on the analysis results, identifying a property distribution convergence as a function of subsample size, the method then further comprising: • selecting a smallest subsample size associated with the property distribution convergence as a representative elementary area or volume for the rock sample. 1) for a subsample size, analyzing a property distribution by representing the property distribution of property measurements as a set of data points and grouping the set of data points into clusters by computing a parameterized function representing a log-likelihood that the clusters are the best representation of the set of data points; and 2) based on the analysis results, identifying a property distribution convergence as a function of subsample size, the method then further comprising: • selecting a smallest subsample size associated with the property distribution convergence as a representative elementary area or volume for the rock sample. • selecting a smallest subsample size associated with the property distribution convergence as a representative elementary area or volume for the rock sample.
A support housing, characterized by: a housing body defining an accommodating space and having at least one opening spatially communicated with said accommodating space; and at least one housing cover including a cover plate connected to said housing body, characterized in that the cover plate is operable to close and open said at least one opening, said cover plate being adapted to support at least one solar power panel, and a plurality of retaining mechanisms connected to said cover plate and slidable in a first direction relative to said cover plate, said retaining mechanisms being spaced apart from one another in the first direction, any two adjacent ones of said retaining mechanisms being movable toward and away from each other to adjust a distance therebetween so that the solar power panel is clamped therebetween. a housing body defining an accommodating space and having at least one opening spatially communicated with said accommodating space; and at least one housing cover including a cover plate connected to said housing body, characterized in that the cover plate is operable to close and open said at least one opening, said cover plate being adapted to support at least one solar power panel, and a plurality of retaining mechanisms connected to said cover plate and slidable in a first direction relative to said cover plate, said retaining mechanisms being spaced apart from one another in the first direction, any two adjacent ones of said retaining mechanisms being movable toward and away from each other to adjust a distance therebetween so that the solar power panel is clamped therebetween. a cover plate connected to said housing body, characterized in that the cover plate is operable to close and open said at least one opening, said cover plate being adapted to support at least one solar power panel, and a plurality of retaining mechanisms connected to said cover plate and slidable in a first direction relative to said cover plate, said retaining mechanisms being spaced apart from one another in the first direction, any two adjacent ones of said retaining mechanisms being movable toward and away from each other to adjust a distance therebetween so that the solar power panel is clamped therebetween.
Method for producing an optoelectronic semiconductor component comprising the following steps: - providing a carrier, - arranging at least one optoelectronic semiconductor chip at a top side of the carrier, - shaping a shaped body around the at least one optoelectronic semiconductor chip wherein the shaped body covers all side areas of the at least one optoelectronic semiconductor chip, and wherein the surface facing away from the carrier at the top side and the surface facing the carrier at the underside of the at least one semiconductor chip remains free of the shaped body, - removing the carrier, wherein - the shaped body comprises a matrix material and light-reflecting particles are introduced into the matrix material, such that the shaped body appears white - the method steps are carried out in the specified order, - the at least one optoelectronic semiconductor chip is covered from the shaped body only up to a specific height at its side areas, and parts of the at least one semiconductor chip protrude from the shaped body. - providing a carrier, - arranging at least one optoelectronic semiconductor chip at a top side of the carrier, - shaping a shaped body around the at least one optoelectronic semiconductor chip wherein the shaped body covers all side areas of the at least one optoelectronic semiconductor chip, and wherein the surface facing away from the carrier at the top side and the surface facing the carrier at the underside of the at least one semiconductor chip remains free of the shaped body, - removing the carrier, wherein - the shaped body comprises a matrix material and light-reflecting particles are introduced into the matrix material, such that the shaped body appears white - the method steps are carried out in the specified order, - the at least one optoelectronic semiconductor chip is covered from the shaped body only up to a specific height at its side areas, and parts of the at least one semiconductor chip protrude from the shaped body.
A sprocket guard assembly comprising: a sprocket having sprocket radial spokes (22a, 22b), and having teeth on an outer perimeter, the teeth disposed in a first plane; each sprocket radial spoke (22a, 22b) communicating with a corresponding first cylindrical surface of the sprocket; a circular guard member, having circular guard member radial spokes (11a, 11b), and each circular guard member radial spoke (11a, 11b) communicating with a corresponding second cylindrical surface of the circular guard member; a collar having an outer cylindrical surface; and a fastener engaging the collar; the first cylindrical surface and the second cylindrical surface engaging the outer cylindrical surface, all coplanar in a second plane; characterized in that: the first plane is parallel to and offset from the second plane. a sprocket having sprocket radial spokes (22a, 22b), and having teeth on an outer perimeter, the teeth disposed in a first plane; each sprocket radial spoke (22a, 22b) communicating with a corresponding first cylindrical surface of the sprocket; a circular guard member, having circular guard member radial spokes (11a, 11b), and each circular guard member radial spoke (11a, 11b) communicating with a corresponding second cylindrical surface of the circular guard member; a collar having an outer cylindrical surface; and a fastener engaging the collar; the first cylindrical surface and the second cylindrical surface engaging the outer cylindrical surface, all coplanar in a second plane; characterized in that: the first plane is parallel to and offset from the second plane.
A method for producing a shoe upper using a flat knitting machine including at least a pair of a front and a back needle bed and a yarn feeder for feeding a knitting yarn; the method comprising the processes of: process α of knitting an inner side knitted fabric portion to become an inner side portion of the shoe upper and an outer side knitted fabric portion to become an outer side portion of the shoe upper with the inner side knitted fabric portion and the outer side knitted fabric portion forming one tubular knitted fabric and with foot insertion opening corresponding portions (110, 190) of the knitted fabric portions connected; process β of tucking the inner side knitted fabric portion in an interior of the outer side knitted fabric portion to form a shoe upper having a double structure; and process γ of fitting the shoe upper having the double structure to a last and carrying out a thermal process; wherein at least one of the inner side knitted fabric portion and the outer side knitted fabric portion is knitted using a fusible knitting yarn including a heat fusible yarn in the process α to adhere the outer side knitted fabric portion and the inner side knitted fabric portion with the heat fusible yarn melted during the thermal process in the process γ and to form the shoe upper having the double structure into a shape corresponding to the last, characterized in that in process α the inner side knitted fabric portion and the outer side knitted fabric portion forming one tubular knitted fabric are lined up on a left and a right position on the needle beds. process α of knitting an inner side knitted fabric portion to become an inner side portion of the shoe upper and an outer side knitted fabric portion to become an outer side portion of the shoe upper with the inner side knitted fabric portion and the outer side knitted fabric portion forming one tubular knitted fabric and with foot insertion opening corresponding portions (110, 190) of the knitted fabric portions connected; process β of tucking the inner side knitted fabric portion in an interior of the outer side knitted fabric portion to form a shoe upper having a double structure; and process γ of fitting the shoe upper having the double structure to a last and carrying out a thermal process; wherein at least one of the inner side knitted fabric portion and the outer side knitted fabric portion is knitted using a fusible knitting yarn including a heat fusible yarn in the process α to adhere the outer side knitted fabric portion and the inner side knitted fabric portion with the heat fusible yarn melted during the thermal process in the process γ and to form the shoe upper having the double structure into a shape corresponding to the last, characterized in that in process α the inner side knitted fabric portion and the outer side knitted fabric portion forming one tubular knitted fabric are lined up on a left and a right position on the needle beds.
An apparatus for transmitting or receiving data using millimeter wave mmWave, the apparatus comprising: a request command generation unit which is adapted to generate a request command to secure network resources required to transmit or receive data before actually transmitting or receiving the data over a network; wherein the request command comprises an association request command for requesting permission to participate in the network, and wherein the association request command further comprises a single carrier, SC, field which specifies whether a single carrier transmission method is supported, and a multi-carrier, MC, field which specifies whether a multi-carrier transmission method is supported; and a communication unit which is adapted to transmit the request command. a request command generation unit which is adapted to generate a request command to secure network resources required to transmit or receive data before actually transmitting or receiving the data over a network; wherein the request command comprises an association request command for requesting permission to participate in the network, and wherein the association request command further comprises a single carrier, SC, field which specifies whether a single carrier transmission method is supported, and a multi-carrier, MC, field which specifies whether a multi-carrier transmission method is supported; and a communication unit which is adapted to transmit the request command.
A steam turbine power plant having a post-combustion carbon capture plant which uses steam from the power plant as a heat source for regeneration of absorbent and returns condensate from the post-combustion carbon capture plant to the steam turbine power plant comprising a feed water storage and recirculation system, wherein said system comprises: a feed water storage tank; a deaerator integral to or fluidly in series with the feed water storage tank; a steam extraction conduit to convey water/ steam to the feed water storage tank and deaerator after extraction from a turbine of a steam turbine power plant; a feed water supply conduit to supply feed water from the feed water storage tank to a boiler of a steam turbine power plant; a low pressure condensate conduit comprising at least a PCC condensate conduit to return condensate from an associated post-combustion carbon capture plant to a location upstream of the deaerator, together with the condensate returning through the low pressure feed water heaters from the condenser; characterised in that: a flow restrictor is provided in the steam extraction conduit between the turbine and the feed water storage tank and deaerator; and additional sources of low pressure condensate are supplied as a mixture with condensate from the carbon capture plant via a common low pressure condensate conduit to a return point upstream of the deaerator. a feed water storage tank; a deaerator integral to or fluidly in series with the feed water storage tank; a steam extraction conduit to convey water/ steam to the feed water storage tank and deaerator after extraction from a turbine of a steam turbine power plant; a feed water supply conduit to supply feed water from the feed water storage tank to a boiler of a steam turbine power plant; a low pressure condensate conduit comprising at least a PCC condensate conduit to return condensate from an associated post-combustion carbon capture plant to a location upstream of the deaerator, together with the condensate returning through the low pressure feed water heaters from the condenser; characterised in that: a flow restrictor is provided in the steam extraction conduit between the turbine and the feed water storage tank and deaerator; and additional sources of low pressure condensate are supplied as a mixture with condensate from the carbon capture plant via a common low pressure condensate conduit to a return point upstream of the deaerator. a flow restrictor is provided in the steam extraction conduit between the turbine and the feed water storage tank and deaerator; and additional sources of low pressure condensate are supplied as a mixture with condensate from the carbon capture plant via a common low pressure condensate conduit to a return point upstream of the deaerator.
A device having a display on which a game is played by a user, comprising: means for identifying a current device configuration for the device, wherein identifying the current device configuration comprises receiving information configured to identify at least one accessory added to the device (30, 32), the received information provided by the accessory manufacturer and comprising a combination of an accessory code configured to identify the at least one accessory (30, 32) and a device code configured to uniquely identify the device and/or a user, the combination being a number obtained by a calculation involving the accessory code and the device code, and wherein the device comprises means for using the device code to recover the accessory code from the combination to identify the at least one accessory (30, 32) by applying the corresponding reverse of said calculation; means for using a data structure to determine a current game configuration associated with the current device configuration, wherein the data structure associates a plurality of device configurations with respective game configurations, the game configurations specifying one or more parameters of the game; and means for controlling the game by setting parameters in the game as specified by the current game configuration. means for identifying a current device configuration for the device, wherein identifying the current device configuration comprises receiving information configured to identify at least one accessory added to the device (30, 32), the received information provided by the accessory manufacturer and comprising a combination of an accessory code configured to identify the at least one accessory (30, 32) and a device code configured to uniquely identify the device and/or a user, the combination being a number obtained by a calculation involving the accessory code and the device code, and wherein the device comprises means for using the device code to recover the accessory code from the combination to identify the at least one accessory (30, 32) by applying the corresponding reverse of said calculation; means for using a data structure to determine a current game configuration associated with the current device configuration, wherein the data structure associates a plurality of device configurations with respective game configurations, the game configurations specifying one or more parameters of the game; and means for controlling the game by setting parameters in the game as specified by the current game configuration.
Method for producing a normally closed non-return valve for microfluidic components composed of a polymer layer system, comprising the steps of: - providing a first polymer layer, - at least partially connecting a polymer film to the first polymer layer in a connection region, - at least partially plastically deforming a deformation region, adjacent to the connection region, of the polymer film, - forming a through hole in the deformation region, - forming a sealing element in the deformation region around the through hole, - connecting a second polymer layer to the polymer film, wherein a valve chamber having a predetermined valve chamber height (Δk) is formed between the deformation region and the second polymer layer, and wherein, by at least partial elastic deformation of the deformation region, the sealing element is pressed onto the second polymer layer and consequently blocks a fluidic connection between the valve chamber and the through hole. - providing a first polymer layer, - at least partially connecting a polymer film to the first polymer layer in a connection region, - at least partially plastically deforming a deformation region, adjacent to the connection region, of the polymer film, - forming a through hole in the deformation region, - forming a sealing element in the deformation region around the through hole, - connecting a second polymer layer to the polymer film, wherein a valve chamber having a predetermined valve chamber height (Δk) is formed between the deformation region and the second polymer layer, and wherein, by at least partial elastic deformation of the deformation region, the sealing element is pressed onto the second polymer layer and consequently blocks a fluidic connection between the valve chamber and the through hole.
A compound selected from the group consisting of; 6- tert -Butyl-8-fluoro-2-(2-hydroxymethyl-3-{1-methyl-5-[5-(4-methyl-piper-azin-1-yl)-pyridin-2-ylamino]-6-oxo-1,6-dihydro-pyridin-3-yl}-phenyl)-2H-phthalazin-1-one, 6- tert -Butyl-2-(3-{5-[5-(4-ethyl-piperazin-1-yl)-pyridin-2-ylamino]-1-methyl-6-oxo-1,6-dihydro-pyridin-3-yl}-2-hydroxymethyl-phenyl)-8-fluoro-2H-phthalazin-1-one, 6- tert -Butyl-8-fluoro-2-(2-hydroxymethyl-3-{1-methyl-5-[5-(morpholine-4-carbonyl)-pyridin-2-ylamino]-6-oxo-1,6-dihydro-pyridin-3-yl}-phenyl)-2H-phthalazin-1-one, 4-(6-{5-[3-(6- tert -Butyl-8-fluoro-1-oxo-1 H -phthalazin-2-yl)-2-hydroxymethylphenyl]-1-methyl-2-oxo-1,2-dihydro-pyridin-3-ylamino}-pyridin-3-yl)-piperazine-1-carboxylic acid tert -butyl ester, 6- tert -Butyl-8-fluoro-2-[2-hydroxymethyl-3-(5-{5-[(2-methoxy-ethylamino)-methyl]-pyridin-2-ylamino}-1-methyl-6-oxo-1,6-dihydro-pyridin-3-yl)-phenyl]-2 H -phthalazin-1-one, 6- tert -Butyl-2-{3-[5-(5-ethylaminomethyl-pyridin-2-ylamino)-1-methyl-6-oxo-1,6-dihydro-pyridin-3-yl]-2-hydroxymethyl-phenyl}-8-fluoro-2 H -phthalazin-1-one, and 6- tert -Butyl-2-(3-{5-[5-(1-ethylamino-1-methyl-ethyl)-pyridin-2-ylamino]-1-methyl-6-oxo-1,6-dihydro-pyridin-3-yl}-2-hydroxymethyl-phenyl)-8-fluoro-2H-phthalazin-1-one, or a pharmaceutically acceptable salt thereof.