mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, comprising: receiving a plurality of first data from a first server; wherein each first data of the plurality of first data includes a first unique hostname and data that identifies a particular Local Domain Name Service server; receiving a plurality of second data from a second server that is not the first server; wherein each second data of the plurality of second data includes a second unique hostname and data that identifies a particular client; wherein, for each first data of the plurality of first data, the first unique hostname included in the first data was provided in a request from a client to the particular Local Domain Name Service server identified in the first data; wherein, for each second data of the plurality of second data, the second unique hostname included in the second data was provided in a request from the client identified in the second data to a particular server; and aggregating clients by the particular Local Domain Name Service servers they are associated with including, for each second data of the plurality of second data, where the unique hostname of the second data matches the unique hostname of a first data of the plurality of first data, creating and storing mapping data associating the particular client identified in the second data with the particular Local Domain Name Service server identified in the first data of the plurality of first data. receiving a plurality of first data from a first server; wherein each first data of the plurality of first data includes a first unique hostname and data that identifies a particular Local Domain Name Service server; receiving a plurality of second data from a second server that is not the first server; wherein each second data of the plurality of second data includes a second unique hostname and data that identifies a particular client; wherein, for each first data of the plurality of first data, the first unique hostname included in the first data was provided in a request from a client to the particular Local Domain Name Service server identified in the first data; wherein, for each second data of the plurality of second data, the second unique hostname included in the second data was provided in a request from the client identified in the second data to a particular server; and aggregating clients by the particular Local Domain Name Service servers they are associated with including, for each second data of the plurality of second data, where the unique hostname of the second data matches the unique hostname of a first data of the plurality of first data, creating and storing mapping data associating the particular client identified in the second data with the particular Local Domain Name Service server identified in the first data of the plurality of first data.
An iris recognition system comprising: a determination means for, based on an image including an eye of a recognition subject, determining whether or not a colored contact lens is worn; and a matching means for, when it is determined by the determination means that the colored contact lens is worn, performing matching a feature amount of an iris of the recognition subject extracted from a region of the iris excluding a predetermined range including an outer circumference of the iris out of the region of the iris included in the image against a feature amount of an iris of a previously registered person, for authenticating the recognition subject, wherein the predetermined range is a ring including the outer circumference end of the iris and having a width of 60 percent or more from the outer circumference to an inner circumference of the iris. a determination means for, based on an image including an eye of a recognition subject, determining whether or not a colored contact lens is worn; and a matching means for, when it is determined by the determination means that the colored contact lens is worn, performing matching a feature amount of an iris of the recognition subject extracted from a region of the iris excluding a predetermined range including an outer circumference of the iris out of the region of the iris included in the image against a feature amount of an iris of a previously registered person, for authenticating the recognition subject, wherein the predetermined range is a ring including the outer circumference end of the iris and having a width of 60 percent or more from the outer circumference to an inner circumference of the iris.
A high frequency energy generator system (1, 35) comprising: a plurality of high frequency energy generator heads (3-8, 38, 92-97), each head including a respective magnetron (39, 62); a common drive unit (2, 36) for producing power for the plurality of magnetrons and including a plurality of step-up transformers (22-27, 58, 86-91); and a connector arrangement simultaneously connecting each of the plurality of heads to the common drive unit for supplying power to the magnetrons, at least one of the heads being located remote from the common drive unit (2, 36).
A method for inferring values of indexes of a block of indexes used for encoding a coding unit according to a palette coding mode, said indexes belonging to a palette comprising a set of indexes associated to pixel values, the indexes of the block of indexes being encoded according to a raster scan order of encoding, characterized in that, if a current index associated with a current mode of prediction indicating a new index value is to be signalled as the current index, immediately follows a preceding index in the raster scan order associated with a last used mode of prediction, the current mode of prediction being signalled separately from the last used mode of prediction, the value of the current index is inferred from a list of index values not including the value of the index that would result if the last used mode of prediction associated with the preceding index were to have been applied for a run of successive indexes including the current index, the value not included being the value of the preceding index if the last used mode of prediction was a mode indicating a same index value is to be used for each index in a run of one or more successive indexes and being the value associated with the index immediately above the current index if the last used mode of prediction indicated that indexes in a run of one or more successive indexes each have an index value associated with an index immediately above each successive index in the block of indexes.
A material, comprising: a highly branched glucan; a polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group covalently linked to the highly branched glucan, wherein the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group is selected from the group consisting of hydroxyethyl, hydroxypropyl, polyethylene glycol, polypropylene glycol, polyethylene oxide, polypropylene oxide, and their combinations; and a hydrophobic or amphiphilic group covalently linked to the highly branched glucan either directly or through the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group, wherein the hydrophobic or amphiphilic group is selected from the group consisting of acetate, propionate, butyrate, octenyl succinate, and their combinations. a highly branched glucan; a polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group covalently linked to the highly branched glucan, wherein the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group is selected from the group consisting of hydroxyethyl, hydroxypropyl, polyethylene glycol, polypropylene glycol, polyethylene oxide, polypropylene oxide, and their combinations; and a hydrophobic or amphiphilic group covalently linked to the highly branched glucan either directly or through the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group, wherein the hydrophobic or amphiphilic group is selected from the group consisting of acetate, propionate, butyrate, octenyl succinate, and their combinations.
Method for producing a graded metal-ceramic composite coating on a metallic cardiovascular implant, characterized in that the composite coating is applied via a hydrometallurgical method from an aqueous dispersion comprising dissolved metal salt or a dissolved metal compound and dispersed ceramic particles.
Coated glass pane with a high performance solar control coating comprising - in sequence from the glass surface - at least the following visibly transparent layers: - a lower anti-reflection layer, - a lower barrier layer, - an Ag-based functional layer, - an upper barrier layer, - an upper anti-reflection layer, - wherein at least one of the anti-reflection layers comprises an (oxi)nitride of Al and/or Si. characterized in that - at least one of the lower and upper barrier layers comprises WN x (x < 1), the nitrogen content x in the barrier layer(s) being x ≥ 0.1. - a lower anti-reflection layer, - a lower barrier layer, - an Ag-based functional layer, - an upper barrier layer, - an upper anti-reflection layer, - wherein at least one of the anti-reflection layers comprises an (oxi)nitride of Al and/or Si. - at least one of the lower and upper barrier layers comprises WN x (x < 1), the nitrogen content x in the barrier layer(s) being x ≥ 0.1.
Device for controlling gaseous exchanges between the inside and outside of a container for solid or liquid food products, in which the device comprises a main body applicable to the container and having a first opening, a second opening and a capillary duct made in the thickness of the main body and extending between the first and the second opening, the first opening being intended to be operatively interposed between the inside of the container and the capillary duct and the second opening being intended to be operatively interposed between the capillary duct and the outside of the container.
A polyamide resin composition, comprising: (a) a polyamide composed mainly of a polyamide backbone composed of diamine units composed mainly of 1,5-pentanediamine and dicarboxylic acid units; and (b) a compound with a molecular weight of 1,000 or less having a sterically hindered N atom which is N,N' -bis(formyl)- N,N' -bis(2,2,6,6-tetramethyl-4-piperidyl)-1,6-hexanediamine or 4-amino-2,2,6,6-tetramethylpiperidine. (a) a polyamide composed mainly of a polyamide backbone composed of diamine units composed mainly of 1,5-pentanediamine and dicarboxylic acid units; and (b) a compound with a molecular weight of 1,000 or less having a sterically hindered N atom which is N,N' -bis(formyl)- N,N' -bis(2,2,6,6-tetramethyl-4-piperidyl)-1,6-hexanediamine or 4-amino-2,2,6,6-tetramethylpiperidine.
A method for controlling phase separation in a decanter of an acetic acid production process, said process comprising: (i) reacting methanol and carbon monoxide in the presence of a carbonylation catalyst, a catalyst stabilizer, methyl iodide, water and methyl acetate to produce an acetic acid stream comprising the catalyst, the catalyst stabilizer, methyl iodide, methyl acetate, water, acetic acid, alkanes, and aldehydes; (ii) flashing at least a portion of the acetic acid stream to produce a vapor stream comprising acetic acid, water, methyl acetate, methyl iodide and acetaldehyde, and a liquid stream comprising the catalyst and the catalyst stabilizer; (iii) separating the vapor stream by distillation into an acetic acid product stream comprising acetic acid and water, and an overhead stream comprising methyl iodide, water, methyl acetate, acetic acid, and alkanes; and (iv) condensing the overhead stream in a decanter to produce a light, aqueous phase comprising water, acetic acid, and methyl acetate, and a heavy, organic phase comprising methyl iodide, methyl acetate, and alkanes; said method comprising: (a) measuring the methyl acetate concentration X (wt%) of a reactor mixture of the acetic acid production process; (b) calculating the density Z (g/ml) of a decanter heavy, organic phase according to the following equation: Z = − 0.082 X − 0.023 Y + 2.036 wherein Y is the concentration (wt%) of alkanes in the decanter (c) adjusting the conditions in the reactor or in the decanter to control the phase separation in the decanter in response to the calculated density Z to have Z ranging from 1.3 to 2.0 g/ml. (i) reacting methanol and carbon monoxide in the presence of a carbonylation catalyst, a catalyst stabilizer, methyl iodide, water and methyl acetate to produce an acetic acid stream comprising the catalyst, the catalyst stabilizer, methyl iodide, methyl acetate, water, acetic acid, alkanes, and aldehydes; (ii) flashing at least a portion of the acetic acid stream to produce a vapor stream comprising acetic acid, water, methyl acetate, methyl iodide and acetaldehyde, and a liquid stream comprising the catalyst and the catalyst stabilizer; (iii) separating the vapor stream by distillation into an acetic acid product stream comprising acetic acid and water, and an overhead stream comprising methyl iodide, water, methyl acetate, acetic acid, and alkanes; and (iv) condensing the overhead stream in a decanter to produce a light, aqueous phase comprising water, acetic acid, and methyl acetate, and a heavy, organic phase comprising methyl iodide, methyl acetate, and alkanes; (a) measuring the methyl acetate concentration X (wt%) of a reactor mixture of the acetic acid production process; (b) calculating the density Z (g/ml) of a decanter heavy, organic phase according to the following equation: Z = − 0.082 X − 0.023 Y + 2.036 wherein Y is the concentration (wt%) of alkanes in the decanter (c) adjusting the conditions in the reactor or in the decanter to control the phase separation in the decanter in response to the calculated density Z to have Z ranging from 1.3 to 2.0 g/ml.
A power source comprising: a dielectric liquid, held within a vessel; characterised by a radioisotope material, dissolved as an ionic salt (104-1, 104-2) within the dielectric liquid thereby forming an ionic salt solution; and a thermal-to-electric power conversion system configured to receive thermal heat generated from the decay of the radioisotope material and to generate electrical power. a dielectric liquid, held within a vessel; characterised by a radioisotope material, dissolved as an ionic salt (104-1, 104-2) within the dielectric liquid thereby forming an ionic salt solution; and a thermal-to-electric power conversion system configured to receive thermal heat generated from the decay of the radioisotope material and to generate electrical power.
A method for identifying biological particles of interest comprising: (a) bringing a first phase in contact with a second phase immiscible with the first phase to generate a plurality of droplets, wherein the plurality of droplets comprises (i) a first subset of droplets each including a single biological particle, and (ii) a second subset of droplets each either having more than one biological particle or not having any biological particle, wherein the biological particle is a cell, a derivative of a cell, or a constituent of a cell; wherein each of the plurality of droplets comprises field-attractable particles; (b) directing the plurality of droplets along a first channel towards an intersection of the first channel with at least a second channel and a third channel; and (c) subjecting the plurality of droplets to an electric or magnetic field to separate a portion of the first subset of the plurality of droplets from a portion of the second subset of the plurality of droplets, wherein upon separation, the portion of the first subset of the plurality of droplets flows along the second channel and the portion of the second subset of the plurality of droplets flows along the third channel. (a) bringing a first phase in contact with a second phase immiscible with the first phase to generate a plurality of droplets, wherein the plurality of droplets comprises (i) a first subset of droplets each including a single biological particle, and (ii) a second subset of droplets each either having more than one biological particle or not having any biological particle, wherein the biological particle is a cell, a derivative of a cell, or a constituent of a cell; wherein each of the plurality of droplets comprises field-attractable particles; (b) directing the plurality of droplets along a first channel towards an intersection of the first channel with at least a second channel and a third channel; and (c) subjecting the plurality of droplets to an electric or magnetic field to separate a portion of the first subset of the plurality of droplets from a portion of the second subset of the plurality of droplets, wherein upon separation, the portion of the first subset of the plurality of droplets flows along the second channel and the portion of the second subset of the plurality of droplets flows along the third channel.
A method performed by a mobile device for selecting or excluding an access point for use in wirelessly connecting to a network, the method comprising: collecting historical connection data for a first access point, wherein the historical connection data identifies a plurality of previous wireless connections to the network using the first access point and identifies a corresponding duration of each previous wireless connection; detecting that the first access point is available for a current wireless connection to the network; calculating an expected connection duration for the first access point using the historical connection data; determining whether to select or exclude the first access point as a candidate for the current wireless connection based on the expected connection duration calculated for the first access point, wherein the first access point is excluded as a candidate for the current wireless connection when the expected connection duration falls below a threshold duration; and resetting the historical connection data for the excluded first access point upon satisfying a time criteria in order to consider said first access point as a candidate for use by the mobile device for a future wireless connection to the network. collecting historical connection data for a first access point, wherein the historical connection data identifies a plurality of previous wireless connections to the network using the first access point and identifies a corresponding duration of each previous wireless connection; detecting that the first access point is available for a current wireless connection to the network; calculating an expected connection duration for the first access point using the historical connection data; determining whether to select or exclude the first access point as a candidate for the current wireless connection based on the expected connection duration calculated for the first access point, wherein the first access point is excluded as a candidate for the current wireless connection when the expected connection duration falls below a threshold duration; and resetting the historical connection data for the excluded first access point upon satisfying a time criteria in order to consider said first access point as a candidate for use by the mobile device for a future wireless connection to the network.
A quantum dot light emitting diode, comprising: first and second electrodes (110, 140) facing each other; a quantum dot emitting material layer between the first and second electrodes (110, 140); and a semiconducting member in the quantum dot emitting layer, characterized in that the semiconducting member has a shape including a major axis and a minor axis, wherein the major axis extends between a first end and a second end of the semiconducting member, wherein the semiconductor member provides a hole transporting path in the quantum dot emitting material layer, wherein the aspect ratio of the shape is 2 or greater. first and second electrodes (110, 140) facing each other; a quantum dot emitting material layer between the first and second electrodes (110, 140); and a semiconducting member in the quantum dot emitting layer, characterized in that the semiconducting member has a shape including a major axis and a minor axis, wherein the major axis extends between a first end and a second end of the semiconducting member, wherein the semiconductor member provides a hole transporting path in the quantum dot emitting material layer, wherein the aspect ratio of the shape is 2 or greater.
A device to control a camera application, the device comprising: two or more ambient light sensors arranged at respective surface locations of the device, each of the two or more ambient light sensors configured to measure light intensity of ambient light at the respective surface location; and a processor, functioning as a gesture identifier, configured to determine a command to the camera application based on information resulting from the light intensity of ambient light measured at each of the respective surface locations by the two or more ambient light sensors, wherein the processor is arranged to receive frames of data, wherein each frame of data includes a light intensity measurement measured for every ambient light sensor at a given time instant, and compare the light intensity measurements in the frames of data or comparisons of light intensity measurements in two or more different frames with measurements in a gesture template to identify an object movement as a known gesture in the gesture template; the processor further configured to find the known gesture among a set of gestures in a gesture library associated with the application, and to output a corresponding action output stemming from the object movement, the action output of the processor acting as a command for adjustment of the camera application. two or more ambient light sensors arranged at respective surface locations of the device, each of the two or more ambient light sensors configured to measure light intensity of ambient light at the respective surface location; and a processor, functioning as a gesture identifier, configured to determine a command to the camera application based on information resulting from the light intensity of ambient light measured at each of the respective surface locations by the two or more ambient light sensors, wherein the processor is arranged to receive frames of data, wherein each frame of data includes a light intensity measurement measured for every ambient light sensor at a given time instant, and compare the light intensity measurements in the frames of data or comparisons of light intensity measurements in two or more different frames with measurements in a gesture template to identify an object movement as a known gesture in the gesture template; the processor further configured to find the known gesture among a set of gestures in a gesture library associated with the application, and to output a corresponding action output stemming from the object movement, the action output of the processor acting as a command for adjustment of the camera application.
A method for obtaining wort by clarifying mash using a lauter tun, the lauter tun comprising a lauter tun bottom and a false bottom arranged at a distance above the lauter tun bottom, collection openings having collection pipes attached thereto being provided in the lauter tun bottom, the wort being able to be discharged via said collection pipes after being lautered from the lauter tun, having the following method steps: a) obtaining a pre-clarified mash fraction (15, 19) not containing any coarse solid particles; b) filling at least the collection pipes and/or the free space between the false bottom and the lauter tun bottom with mash from the pre-clarified mash fraction (15, 19) as a false bottom seal; c) filling the lauter tun with mash; d) commencing clarification in order to obtain wort by filtering the mash at the spent grains bed in the lauter tun. a) obtaining a pre-clarified mash fraction (15, 19) not containing any coarse solid particles; b) filling at least the collection pipes and/or the free space between the false bottom and the lauter tun bottom with mash from the pre-clarified mash fraction (15, 19) as a false bottom seal; c) filling the lauter tun with mash; d) commencing clarification in order to obtain wort by filtering the mash at the spent grains bed in the lauter tun.