mhurhangee/ep-ind-claims huggingface dataset:
A computing system, comprising: an initial segmentation component configured to receive data entry inputs of a string of characters that includes at least one separator character and generate an initial segmentation having segments with corresponding segment values, based on the at least one separator character in the string by segmenting the string into an initial segmentation of segments; a lookup component configured to validate the segment values and identify the corresponding segments as valid or invalid based on the validation; a concatenation component configured to, for an invalid segment, iteratively concatenate remaining segments and separators from the initial segmentation to obtain a concatenated segment value, and provide the concatenated segment value to the lookup component for validation, until either the concatenated segment value is identified as valid or all of the remaining segments in the initial segmentation have been concatenated, wherein the lookup component is further configured to remove valid segments and valid concatenated segment values from the initial segmentation to leave the remaining segments in the initial segmentation; a backtracking component configured to obtain the concatenated segment value, when the concatenated segment value is identified as invalid and when the remaining segments have all been concatenated to the concatenated segment value, and to identify only the first segment in the concatenated segment value as invalid and remove only the first segment in the concatenated segment value from the initial segmentation. an initial segmentation component configured to receive data entry inputs of a string of characters that includes at least one separator character and generate an initial segmentation having segments with corresponding segment values, based on the at least one separator character in the string by segmenting the string into an initial segmentation of segments; a lookup component configured to validate the segment values and identify the corresponding segments as valid or invalid based on the validation; a concatenation component configured to, for an invalid segment, iteratively concatenate remaining segments and separators from the initial segmentation to obtain a concatenated segment value, and provide the concatenated segment value to the lookup component for validation, until either the concatenated segment value is identified as valid or all of the remaining segments in the initial segmentation have been concatenated, wherein the lookup component is further configured to remove valid segments and valid concatenated segment values from the initial segmentation to leave the remaining segments in the initial segmentation; a backtracking component configured to obtain the concatenated segment value, when the concatenated segment value is identified as invalid and when the remaining segments have all been concatenated to the concatenated segment value, and to identify only the first segment in the concatenated segment value as invalid and remove only the first segment in the concatenated segment value from the initial segmentation.
A hyaluronic acid decomposition inhibiting agent, which comprises i) an anti-sense nucleic acid or an siRNA against a KIAA1199 gene, or ii) an antibody specific to a protein encoded by the KIAA1199 gene, for use in a method of treating osteoarthritis or rheumatoid arthritis. i) an anti-sense nucleic acid or an siRNA against a KIAA1199 gene, or ii) an antibody specific to a protein encoded by the KIAA1199 gene,
A welding crane for welding of objects, which welding crane comprises: an arm including at least a first and a second segment (4, 5, 6) which are arranged with their respective length axes essentially parallelly and which are telescopically movable along their length axes in relation to each other so that at least a second segment of said segments at least partly slides into at least a first segment of said segments, a stand, and a welding head arranged in a distal end of an outermost segment of said segments (4, 5, 6) of the arm, and wherein an innermost segment of said segments (4, 5, 6) of the arm is suspended in the stand, and that at least one linear guide, which comprises at least one rail (15, 16; 18, 19) and at least one sled (20, 21, 22, 23) which is arranged to be slided along the at least one rail (18, 19), is arranged on at least a first segment of said segments (4, 5, 6) and that a co-operating part of said at least one linear guide is arranged on at least a second segment of said segments (4, 5, 6), wherein the at least one linear guide is adapted to allow said telescopic movement, characterized in that a rack is arranged on a first segment of said segments in combination with at least one linear guide, and wherein a cogwheel driven by a motor is arranged on a second segment of said segments, which second segment by driving the motor and engagement of the cogwheel in the rack is telescopically movable along a length axis in relation to the first segment. an arm including at least a first and a second segment (4, 5, 6) which are arranged with their respective length axes essentially parallelly and which are telescopically movable along their length axes in relation to each other so that at least a second segment of said segments at least partly slides into at least a first segment of said segments, a stand, and a welding head arranged in a distal end of an outermost segment of said segments (4, 5, 6) of the arm, and wherein an innermost segment of said segments (4, 5, 6) of the arm is suspended in the stand, and that at least one linear guide, which comprises at least one rail (15, 16; 18, 19) and at least one sled (20, 21, 22, 23) which is arranged to be slided along the at least one rail (18, 19), is arranged on at least a first segment of said segments (4, 5, 6) and that a co-operating part of said at least one linear guide is arranged on at least a second segment of said segments (4, 5, 6), wherein the at least one linear guide is adapted to allow said telescopic movement, characterized in that a rack is arranged on a first segment of said segments in combination with at least one linear guide, and wherein a cogwheel driven by a motor is arranged on a second segment of said segments, which second segment by driving the motor and engagement of the cogwheel in the rack is telescopically movable along a length axis in relation to the first segment.
A method for fractionating specific cells present in blood or biological fluid, the method comprising fractionating the blood or biological fluid by centrifugation to collect the specific cells in the blood or biological fluid, the centrifugation being carried out using a container having a low protein adsorbing layer at least partially formed on an inner surface thereof, and wherein the low protein adsorbing layer is formed of a copolymer of 2-(meth)acryloyloxyethyl phosphorylcholine and butyl methacrylate. fractionating the blood or biological fluid by centrifugation to collect the specific cells in the blood or biological fluid, the centrifugation being carried out using a container having a low protein adsorbing layer at least partially formed on an inner surface thereof, and wherein the low protein adsorbing layer is formed of a copolymer of 2-(meth)acryloyloxyethyl phosphorylcholine and butyl methacrylate.
A method of delay spread compensation, suitable for use in a communication device having a plurality of receiver antennas, the method comprising: receiving (310, 410) a plurality, N RX, of signals, RX1, RX2, each via a respective antenna, wherein each signal comprises a signal component corresponding to a transmitted signal, and wherein each received signal experiences a respective channel impulse response having a corresponding delay spread, each of the plurality, N RX, of signals, RX1, RX2, being composed of a complex in-phase/quadrature sample, y n 0,... y n N RX − 1, for each time index, n, of said signal; determining (320, 420) estimates of each of the channel impulse responses; calculating (340, 440) a post-coding matrix, M, based on the estimates of the channel impulse responses, wherein the step of calculating (340, 440) the post-coding matrix, M, comprises performing singular value decomposition on a matrix, H 2 = H 12 H 22, comprising the value and timing components of the channel impulse response estimates, H 12, H 22, by using the following formula: M = U H M, wherein H 2 = USV H; and post-coding (350, 450) the plurality of received signals using the post-coding matrix, M, to produce at least a first delay spread compensated signal, RX1', RX2', Y n, by using the formula: Y ̅ n = M ⋅ Y n, where Y n = y n 0 ⋮ y n N RX − 1 is a vector comprising the complex in-phase/quadrature samples for each of the plurality, N RX, of signals, RX1, RX2, for time index n. receiving (310, 410) a plurality, N RX, of signals, RX1, RX2, each via a respective antenna, wherein each signal comprises a signal component corresponding to a transmitted signal, and wherein each received signal experiences a respective channel impulse response having a corresponding delay spread, each of the plurality, N RX, of signals, RX1, RX2, being composed of a complex in-phase/quadrature sample, y n 0,... y n N RX − 1, for each time index, n, of said signal; determining (320, 420) estimates of each of the channel impulse responses; calculating (340, 440) a post-coding matrix, M, based on the estimates of the channel impulse responses, wherein the step of calculating (340, 440) the post-coding matrix, M, comprises performing singular value decomposition on a matrix, H 2 = H 12 H 22, comprising the value and timing components of the channel impulse response estimates, H 12, H 22, by using the following formula: M = U H M, wherein H 2 = USV H; and post-coding (350, 450) the plurality of received signals using the post-coding matrix, M, to produce at least a first delay spread compensated signal, RX1', RX2', Y n, by using the formula: Y ̅ n = M ⋅ Y n, where Y n = y n 0 ⋮ y n N RX − 1 is a vector comprising the complex in-phase/quadrature samples for each of the plurality, N RX, of signals, RX1, RX2, for time index n.
Method for producing a positive electrode for a solid-state lithium microbattery comprising the following successive steps: a) supplying of a substrate, typically made of ceramic, glass or silicon, the substrate being locally covered with a metal layer, b) depositing of a cathodic layer made of a positive electrode material, for example a mixed lithium oxide, the cathodic layer having a thickness typically greater than 1μm, a first portion of the cathodic layer covering the substrate and a second portion of the cathodic layer covering the metal layer, c) carrying out of a heat treatment at a temperature greater than or equal to 400°C, on the cathodic layer, in such a way as to crystallise the second portion of the cathodic layer in order to form a positive electrode, and in such a way as to delaminate the first portion of the cathodic layer. a) supplying of a substrate, typically made of ceramic, glass or silicon, the substrate being locally covered with a metal layer, b) depositing of a cathodic layer made of a positive electrode material, for example a mixed lithium oxide, the cathodic layer having a thickness typically greater than 1μm, a first portion of the cathodic layer covering the substrate and a second portion of the cathodic layer covering the metal layer, c) carrying out of a heat treatment at a temperature greater than or equal to 400°C, on the cathodic layer, in such a way as to crystallise the second portion of the cathodic layer in order to form a positive electrode, and in such a way as to delaminate the first portion of the cathodic layer.
A liquid cooling module for cooling a silicon carbide electronic component, comprising: a housing supporting the silicon carbide electronic component, the housing having a cavity containing a liquid metal within a liquid flow channel thermally coupled to the silicon carbide electronic component, with the liquid flow channel defining a closed cooling loop; a cold plate supporting the housing and having a cooling channel containing a liquid coolant and thermally coupled to the liquid flow channel via the housing; a pump configured to pump the liquid coolant through the cooling channel; a channel impeller located in the cooling channel in the cold plate for circulating the liquid coolant through the cooling channel; a housing impeller positioned in the cavity for circulating the liquid metal through the cooling loop; and a shaft extending through the housing and cold plate and coupling the housing impeller to the channel impeller such that rotation of the channel impeller drives rotation of the housing impeller. a housing supporting the silicon carbide electronic component, the housing having a cavity containing a liquid metal within a liquid flow channel thermally coupled to the silicon carbide electronic component, with the liquid flow channel defining a closed cooling loop; a cold plate supporting the housing and having a cooling channel containing a liquid coolant and thermally coupled to the liquid flow channel via the housing; a pump configured to pump the liquid coolant through the cooling channel; a channel impeller located in the cooling channel in the cold plate for circulating the liquid coolant through the cooling channel; a housing impeller positioned in the cavity for circulating the liquid metal through the cooling loop; and a shaft extending through the housing and cold plate and coupling the housing impeller to the channel impeller such that rotation of the channel impeller drives rotation of the housing impeller.
A plant health diagnostic method of diagnosing a health state of a plant in accordance with chlorophyll fluorescence emitted from chlorophyll of a plant body, the method comprising: measuring as an image the chlorophyll fluorescence intensity, and based on the image, constructing an induction curve that is a time course curve of the chlorophyll fluorescence intensity; obtaining a first minimum point after a maximum point having largest chlorophyll fluorescence intensity and a first maximum point after the minimum point on an induction curve that is a time course curve of the chlorophyll fluorescence intensity; defining chlorophyll fluorescence intensity values at the minimum point and the first maximum point after the minimum point as S and M, respectively; characterised in that the method comprises: obtaining a value M/S from the values S and M; and evaluating an initial state of photosynthetic functional disorder of the plant body with use of the value M/S and a value M/S of a healthy site of a plant body or of a healthy plant individual body as a reference value. measuring as an image the chlorophyll fluorescence intensity, and based on the image, constructing an induction curve that is a time course curve of the chlorophyll fluorescence intensity; obtaining a first minimum point after a maximum point having largest chlorophyll fluorescence intensity and a first maximum point after the minimum point on an induction curve that is a time course curve of the chlorophyll fluorescence intensity; defining chlorophyll fluorescence intensity values at the minimum point and the first maximum point after the minimum point as S and M, respectively; characterised in that the method comprises: obtaining a value M/S from the values S and M; and evaluating an initial state of photosynthetic functional disorder of the plant body with use of the value M/S and a value M/S of a healthy site of a plant body or of a healthy plant individual body as a reference value. obtaining a value M/S from the values S and M; and evaluating an initial state of photosynthetic functional disorder of the plant body with use of the value M/S and a value M/S of a healthy site of a plant body or of a healthy plant individual body as a reference value.
A machine for preparing a beverage from at least one ingredient comprising: - an ingredient processing module, in particular a module that comprises a first part and a second part movable relative to the first part from a position for housing therein said ingredient to a transfer position for inserting said ingredient into the processing module and/or for evacuation thereof from the processing module; - an ingredient passage, in particular an upright passage, having a mouth for inserting an ingredient from outside such machine into the ingredient processing module; and - a cover that is movable between a position covering the mouth of the ingredient passage and a position uncovering the mouth, the cover delimiting at least one fluid-escape opening (10a,10b,10b") through which vapour and/or steam can escape from the passage when the cover is in the covering position characterised in that the cover is translationally slidable, optionally manually slidable, from the covering position to the uncovering position and/or vice versa. - an ingredient processing module, in particular a module that comprises a first part and a second part movable relative to the first part from a position for housing therein said ingredient to a transfer position for inserting said ingredient into the processing module and/or for evacuation thereof from the processing module; - an ingredient passage, in particular an upright passage, having a mouth for inserting an ingredient from outside such machine into the ingredient processing module; and - a cover that is movable between a position covering the mouth of the ingredient passage and a position uncovering the mouth,
A method of fabricating a component of a gas turbine engine, the method comprising: forming one or more grooves in an outer surface of a substrate having at least one interior space, wherein each of the one or more grooves is defined by a base and a plurality of sidewalls, each sidewall extending continuously from the base to an uppermost surface of the substrate and each of the one or more grooves extends at least partially along the outer surface of the substrate; forming one or more access holes through the base of a respective one of the one or more grooves to connect the respective groove in fluid communication with the respective hollow interior space; disposing a sacrificial filler within the one or more grooves the sacrificial filler being in contact with the base and the plurality of sidewalls of each of the one or more grooves; disposing a permanent filler on the uppermost surface of the sacrificial filler the permanent filler being only in contact with the uppermost surface of the sacrificial filler and the plurality of sidewalls of the one or more grooves and not in contact with the base of each of the one or more grooves; disposing a coating over at least a portion of the substrate and over the permanent filler; and removing the sacrificial filler from the one or more grooves, to define one or more channels for cooling the component. forming one or more grooves in an outer surface of a substrate having at least one interior space, wherein each of the one or more grooves is defined by a base and a plurality of sidewalls, each sidewall extending continuously from the base to an uppermost surface of the substrate and each of the one or more grooves extends at least partially along the outer surface of the substrate; forming one or more access holes through the base of a respective one of the one or more grooves to connect the respective groove in fluid communication with the respective hollow interior space; disposing a sacrificial filler within the one or more grooves the sacrificial filler being in contact with the base and the plurality of sidewalls of each of the one or more grooves; disposing a permanent filler on the uppermost surface of the sacrificial filler the permanent filler being only in contact with the uppermost surface of the sacrificial filler and the plurality of sidewalls of the one or more grooves and not in contact with the base of each of the one or more grooves; disposing a coating over at least a portion of the substrate and over the permanent filler; and removing the sacrificial filler from the one or more grooves, to define one or more channels for cooling the component.
A method of welding at least one foil in a packaging process using a welding assembly comprising welding means, said welding means comprising a welding beam, at least one welding bar (107, 109) and a welding support, said method comprising the steps of - directing said foil into said welding assembly, - holding said foil in at least one holding point (124, 125) of said welding assembly, - welding said foil in at least one welding point (122, 123) of said welding assembly, and - clamping said foil in said at least one welding point (122, 123) offset from said at least one holding point (124, 125) of said foil, and where said method further comprises the step of subsequently aligning the at least one welding point with said at least one holding point, whereby a part of said foil is accumulated between said at least one holding point and said at least one welding point prior to welding said foil in said at least one welding point, characterized in, that said method further comprises the step of - cutting the foil after accumulating said foil by moving cutting means vertically up and down independently of the welding support. - directing said foil into said welding assembly, - holding said foil in at least one holding point (124, 125) of said welding assembly, - welding said foil in at least one welding point (122, 123) of said welding assembly, and - clamping said foil in said at least one welding point (122, 123) offset from said at least one holding point (124, 125) of said foil, and where said method further comprises the step of subsequently aligning the at least one welding point with said at least one holding point, whereby a part of said foil is accumulated between said at least one holding point and said at least one welding point prior to welding said foil in said at least one welding point, - cutting the foil after accumulating said foil by moving cutting means vertically up and down independently of the welding support.
A method for analyzing hemoglobin S by cation-exchange high-performance liquid chromatography, the method being characterized by utilizing an eluent that contains an azide or a cyanide at a concentration of 0.1 to 50 mmol/L and has a pH of 6.80 to 7.50 for detecting one elution peak of eluted hemoglobin S in cation-exchange high-performance liquid chromatography.