mhurhangee/ep-ind-claims huggingface dataset:
A method of outputting review content (105a-c; 1310-1330; 1410-1430; 1510-1530; 1610-1630) by a device to a user, the method comprising: obtaining (210, 810, 1210) attribute information (D,I) of review content that is retrieved by the device; obtaining information regarding the user's memory (e), indicating a level of the user's ability of memorizing content from any one of the following sources: external data that stores bio information such as user's brain waves, an application from which the information in inferred, information of a number of times that the user has repeatedly referred to the content; characterized by obtaining reference information including a reference number of times (c) and a reference time (to) when the review content is selected, wherein the reference number of times (c) refers to the number of times that the review content has been referred to by the user and wherein the reference time (to) refers to when a user input for the review content is detected; estimating (220, 830, 1220) a parameter indicative of a probability that the user memorizes the review content at a preset time based on the attribute information (D,I), the reference information (c, to) and the information regarding the user's memory (e); comparing (230, 830, 1230) the estimated parameter and a threshold value; and changing an appearance of the review content in response to the comparison of the estimated parameter being determined as equal to or less than the threshold value. obtaining (210, 810, 1210) attribute information (D,I) of review content that is retrieved by the device; obtaining information regarding the user's memory (e), indicating a level of the user's ability of memorizing content from any one of the following sources: external data that stores bio information such as user's brain waves, an application from which the information in inferred, information of a number of times that the user has repeatedly referred to the content; characterized by obtaining reference information including a reference number of times (c) and a reference time (to) when the review content is selected, wherein the reference number of times (c) refers to the number of times that the review content has been referred to by the user and wherein the reference time (to) refers to when a user input for the review content is detected; estimating (220, 830, 1220) a parameter indicative of a probability that the user memorizes the review content at a preset time based on the attribute information (D,I), the reference information (c, to) and the information regarding the user's memory (e); comparing (230, 830, 1230) the estimated parameter and a threshold value; and changing an appearance of the review content in response to the comparison of the estimated parameter being determined as equal to or less than the threshold value.
A method for generating a target vehicle speed of a driving-assisted host vehicle, the method involving generating the target vehicle speed of the host vehicle in accordance with obstacles that hinder travel of the host vehicle, wherein the method includes: generating a target travel route of the host vehicle; acquiring position information pertaining to the obstacles on a travel path of the host vehicle, and position information pertaining to the obstacles that are outside of the travel path of the host vehicle; and for each of the obstacles, computing a lateral deviation between the target travel route and the obstacle, the method being characterized by for each of the obstacles, computing an add-on amount for a frontward distance in accordance with the lateral deviation computed for the obstacle (S206, S207, S208, S209), and computing a virtual distance by adding the add-on amount to the frontward distance, the frontward distance being an actual distance between the obstacle and the host vehicle; selecting the shortest of all the virtual distances that were computed as a virtual shortest distance; and generating the target vehicle speed based on the virtual shortest distance. generating a target travel route of the host vehicle; acquiring position information pertaining to the obstacles on a travel path of the host vehicle, and position information pertaining to the obstacles that are outside of the travel path of the host vehicle; and for each of the obstacles, computing a lateral deviation between the target travel route and the obstacle, the method being characterized by for each of the obstacles, computing an add-on amount for a frontward distance in accordance with the lateral deviation computed for the obstacle (S206, S207, S208, S209), and computing a virtual distance by adding the add-on amount to the frontward distance, the frontward distance being an actual distance between the obstacle and the host vehicle; selecting the shortest of all the virtual distances that were computed as a virtual shortest distance; and generating the target vehicle speed based on the virtual shortest distance.
A dosage form comprising: melt-extruded particulates comprising a drug which is an opioid agonist; and a matrix; wherein said melt-extruded particulates are present as a discontinuous phase in said matrix; said matrix comprises a continuous phase comprising a gel-forming agent; and said particulates further comprise a copolymer of acrylic acid alkyl esters and methacrylic acid alkyl esters or mixtures thereof; and wherein said dosage form comprises 30-55 % wt of said melt-extruded particulates and 30-70 % wt of said matrix, based on the total weight of the dosage form. melt-extruded particulates comprising a drug which is an opioid agonist; and a matrix; wherein said melt-extruded particulates are present as a discontinuous phase in said matrix; said matrix comprises a continuous phase comprising a gel-forming agent; and said particulates further comprise a copolymer of acrylic acid alkyl esters and methacrylic acid alkyl esters or mixtures thereof; and wherein said dosage form comprises 30-55 % wt of said melt-extruded particulates and 30-70 % wt of said matrix, based on the total weight of the dosage form.
A method for wireless communication comprising: transmitting a control signal and a data signal in a hybrid automatic repeat request, HARQ, process to a user equipment, UE, in a subframe of a wireless channel; re-transmitting the data signal or the control signal to the UE prior to a UE response time of the HARQ process, wherein transmitting the control signal and the data signal and re-transmitting the data signal or the control signal are performed in subsequent or non-subsequent subframes of the wireless channel based at least in part on estimated receive power at the UE and processing capabilities of the UE. transmitting a control signal and a data signal in a hybrid automatic repeat request, HARQ, process to a user equipment, UE, in a subframe of a wireless channel; re-transmitting the data signal or the control signal to the UE prior to a UE response time of the HARQ process, wherein transmitting the control signal and the data signal and re-transmitting the data signal or the control signal are performed in subsequent or non-subsequent subframes of the wireless channel based at least in part on estimated receive power at the UE and processing capabilities of the UE.
A system for harvesting energy from a weld cable, comprising: - an energy harvesting device positioned proximate to the weld cable and configured to inductively draw electrical energy from the weld cable; - a rectifier electrically coupled to the energy harvesting device and configured to convert the electrical energy harvested from the weld cable into a direct electrical current; and - a voltage regulator electrically coupled to the rectifier, wherein the voltage regulator is configured to receive the direct electrical current from the rectifier and to convert the direct electrical current received from the rectifier to a desired voltage, and - an energy storage element electrically coupled to the voltage regulator, wherein the energy storage element is configured to receive and to store energy received from the voltage regulator; characterized by an energy optimization circuitry electrically coupled to the energy harvesting device and configured to receive the electrical energy from the energy harvesting device, wherein the energy optimization circuitry regulates the flow of the electrical energy received from the energy harvesting device between a welding accessory and the energy storage element. - an energy harvesting device positioned proximate to the weld cable and configured to inductively draw electrical energy from the weld cable; - a rectifier electrically coupled to the energy harvesting device and configured to convert the electrical energy harvested from the weld cable into a direct electrical current; and - a voltage regulator electrically coupled to the rectifier, wherein the voltage regulator is configured to receive the direct electrical current from the rectifier and to convert the direct electrical current received from the rectifier to a desired voltage, and - an energy storage element electrically coupled to the voltage regulator, wherein the energy storage element is configured to receive and to store energy received from the voltage regulator;
Steering mechanism, the steering mechanism being intended for use in transport equipment, such as a truck or a trailer for a truck, and the steering mechanism being provided with at least one steering knuckle (4, 5) on both sides of the body of the transport equipment, a hub piece (6, 7) being fastened by articulation to the steering knuckle (4, 5), and at least one wheel (8, 9) of the transport equipment being fastened to the hub pieces in the steering knuckles, wherein the steering knuckles (4, 5) are fastened by articulation to the body of the transport equipment, and that the hub pieces (6, 7) fastened by articulation to the steering knuckles are pivotable with respect to the steering knuckle to which they are fastened, and that the hub pieces are pivotable by means of actuators (10, 11) connected to them, and further that the steering knuckles are pivotable to a desired angle by actuators (12, 13) arranged in them so that for steering the transport equipment, the steering mechanism being characterised by the fact that when either of the steering knuckles (4, 5) pivots about the respective articulation (14, 15) arranged in the body, the hub piece in the pivoting steering knuckle simultaneously remains unpivoted with respect to the steering knuckle to which it is fastened by articulation, wherein simultaneously the other steering knuckle remains unpivoted in its articulation arranged in the body, and the hub piece therein is thus pivoted with respect to the steering knuckle to which it is fastened by articulation.
A method for manufacturing doped adhesive tape comprising: producing a paper slurry for manufacturing adhesive tape; forming a continuous paper sheet using the paper slurry; applying an adhesive sizing to the continuous paper sheet; applying a dopant facilitating the detection of the doped adhesive tape by backscatter x-ray inspection, wherein the dopant comprises iodine, wherein the dopant applied is added to the paper slurry or to the adhesive sizing; and forming a roll of adhesive tape with the adhesive applied thereto. producing a paper slurry for manufacturing adhesive tape; forming a continuous paper sheet using the paper slurry; applying an adhesive sizing to the continuous paper sheet; applying a dopant facilitating the detection of the doped adhesive tape by backscatter x-ray inspection, wherein the dopant comprises iodine, wherein the dopant applied is added to the paper slurry or to the adhesive sizing; and forming a roll of adhesive tape with the adhesive applied thereto.
A method of forming a film of graphene, the method comprising: placing a substrate selected from copper substrates, nickel substrates, platinum substrates, iron substrates, aluminum substrates, cobalt substrates, ruthenium substrates, magnesium oxide substrates, alloys thereof; silicon substrates, silicon carbide substrates, and combinations thereof in a processing chamber at a reduced pressure less than 66.7 Pa (500 mTorr), wherein the processing chamber includes at least one atmospheric gas; performing at room temperature a surface treatment process on at least a portion of the substrate, when during an exposure to Radio Frequency plasma the substrate surface is cleaned and/or treated to remove native oxides; providing a carbon containing material in the processing chamber; exposing the substrate to the carbon containing material; and converting, by a graphene film growth, a portion of the carbon containing material to a film of graphene on the substrate, wherein the carbon containing material comprises at least one of methane, ethane, propane or butane. placing a substrate selected from copper substrates, nickel substrates, platinum substrates, iron substrates, aluminum substrates, cobalt substrates, ruthenium substrates, magnesium oxide substrates, alloys thereof; silicon substrates, silicon carbide substrates, and combinations thereof in a processing chamber at a reduced pressure less than 66.7 Pa (500 mTorr), wherein the processing chamber includes at least one atmospheric gas; performing at room temperature a surface treatment process on at least a portion of the substrate, when during an exposure to Radio Frequency plasma the substrate surface is cleaned and/or treated to remove native oxides; providing a carbon containing material in the processing chamber; exposing the substrate to the carbon containing material; and converting, by a graphene film growth, a portion of the carbon containing material to a film of graphene on the substrate, wherein the carbon containing material comprises at least one of methane, ethane, propane or butane.
An oral dosage form comprising: a. a therapeutically effective amount of diphenhydramine or a pharmaceutically acceptable salt thereof; b. a buffering agent sufficient to achieve a pH of from 7.0 to 8.0 as determined by the pH Test Method; characterized in that the oral dosage form further comprises c. a permeability enhancer selected from the group consisting of sodium caprate, cetylpyridinium chloride and combinations thereof; wherein the diphenhydramine is completely dissolved within 2 minutes as determined by the Dissolution Method. a. a therapeutically effective amount of diphenhydramine or a pharmaceutically acceptable salt thereof; b. a buffering agent sufficient to achieve a pH of from 7.0 to 8.0 as determined by the pH Test Method; characterized in that the oral dosage form further comprises c. a permeability enhancer selected from the group consisting of sodium caprate, cetylpyridinium chloride and combinations thereof;
A method for producing an alcoholic beverage, comprising: providing a metal-supported zeolite in which a metal component is supported on a zeolite, wherein the metal component is silver and the zeolite is selected from a beta-type and a Y-type; providing an alcoholic beverage containing at least one of dimethyl sulfide, dimethyl disulfide, dimethyl trisulfide and pyridine, wherein the alcoholic beverage is a distilled alcoholic beverage, wherein the concentration of sulfur compounds in the alcoholic beverage is 100 ppm by volume or less; passing the alcoholic beverage through the metal-supported zeolite to remove the at least one of dimethyl sulfide, dimethyl disulfide, dimethyl trisulfide and pyridine from the alcoholic beverage; wherein in the step of passing the alcoholic beverage through the metal-supported zeolite, a liquid-hourly space velocity, LHSV, of the alcoholic beverage passing though is 1 h-1 to 30 h-1 and the temperature range is from -20 to 100° C, and wherein the LHSV is measured as defined in the description under Evaluation Test 2: passing process. providing a metal-supported zeolite in which a metal component is supported on a zeolite, wherein the metal component is silver and the zeolite is selected from a beta-type and a Y-type; providing an alcoholic beverage containing at least one of dimethyl sulfide, dimethyl disulfide, dimethyl trisulfide and pyridine, wherein the alcoholic beverage is a distilled alcoholic beverage, wherein the concentration of sulfur compounds in the alcoholic beverage is 100 ppm by volume or less; passing the alcoholic beverage through the metal-supported zeolite to remove the at least one of dimethyl sulfide, dimethyl disulfide, dimethyl trisulfide and pyridine from the alcoholic beverage; wherein in the step of passing the alcoholic beverage through the metal-supported zeolite, a liquid-hourly space velocity, LHSV, of the alcoholic beverage passing though is 1 h-1 to 30 h-1 and the temperature range is from -20 to 100° C, and wherein the LHSV is measured as defined in the description under Evaluation Test 2: passing process.
An inflammation management system, the system comprising: a controller; a cerebrospinal fluid management module in communication with the controller; wherein the controller is configured to: monitor measurements of one or more physiological parameters of a patient; compare a value related to the monitored measurements of the one or more physiological parameters to a threshold value, wherein the value related to the monitored measurements of the one or more physiological parameters is an indexed value and the indexed value is based on a value of a mass effect index; and control the cerebrospinal fluid management module based on the comparison of the value related to the monitored measurements of the one or more physiological parameters to the threshold value. a controller; a cerebrospinal fluid management module in communication with the controller; wherein the controller is configured to: monitor measurements of one or more physiological parameters of a patient; compare a value related to the monitored measurements of the one or more physiological parameters to a threshold value, wherein the value related to the monitored measurements of the one or more physiological parameters is an indexed value and the indexed value is based on a value of a mass effect index; and control the cerebrospinal fluid management module based on the comparison of the value related to the monitored measurements of the one or more physiological parameters to the threshold value. monitor measurements of one or more physiological parameters of a patient; compare a value related to the monitored measurements of the one or more physiological parameters to a threshold value, wherein the value related to the monitored measurements of the one or more physiological parameters is an indexed value and the indexed value is based on a value of a mass effect index; and control the cerebrospinal fluid management module based on the comparison of the value related to the monitored measurements of the one or more physiological parameters to the threshold value.
A method of video decoding, comprising: deriving an initial motion vector MV of a current block; determining, in a process of decoder-side motion vector refinement DMVR, cost values for the initial MV and each of MV candidates, wherein the DMVR uses bilateral matching to refine motion vectors of blocks coded in bi-prediction merge mode, wherein the cost values are sums of absolute differences SADs and wherein a SAD for a respective MV is calculated between reference blocks for the respective MV; obtaining an updated cost value for the initial MV by decreasing a cost value for the initial MV, wherein decreasing the cost value for the initial MV comprises decreasing the cost value for the initial MV by a first value that is determined as 1/4 of the cost value for the initial MV; and deriving a refined MV using the updated cost value for the initial MV and the cost values for the MV candidates. deriving an initial motion vector MV of a current block; determining, in a process of decoder-side motion vector refinement DMVR, cost values for the initial MV and each of MV candidates, wherein the DMVR uses bilateral matching to refine motion vectors of blocks coded in bi-prediction merge mode, wherein the cost values are sums of absolute differences SADs and wherein a SAD for a respective MV is calculated between reference blocks for the respective MV; obtaining an updated cost value for the initial MV by decreasing a cost value for the initial MV, wherein decreasing the cost value for the initial MV comprises decreasing the cost value for the initial MV by a first value that is determined as 1/4 of the cost value for the initial MV; and deriving a refined MV using the updated cost value for the initial MV and the cost values for the MV candidates.
A heat radiating member composed of a diamond composite material, wherein the diamond composite material comprises: a coated diamond particle including a diamond particle and a carbide layer covering a surface of the diamond particle and including an element of group 4 of the periodic table; and silver or a silver alloy binding such coated diamond particles together, wherein the diamond composite material has an oxygen content of 0.1 mass% or less, wherein the oxygen content was measured with a test piece separately produced, specifically, for each sample, a measuring material allowing five or more measuring test pieces of 3 mm x 3 mm x 5 mm to be obtained therefrom was produced similarly as each sample was produced and the measuring material was subjected to wire electric discharge machining and thus had cut out thereof a plurality of measuring test pieces of 3 mm x 3 mm x 5 mm which were in turn washed with acid to remove a wire component, after having been washed with acid, each sample's measuring test pieces' oxygen concentration was measured using an oxygen and nitrogen analysis device. a coated diamond particle including a diamond particle and a carbide layer covering a surface of the diamond particle and including an element of group 4 of the periodic table; and silver or a silver alloy binding such coated diamond particles together, wherein the diamond composite material has an oxygen content of 0.1 mass% or less, wherein the oxygen content was measured with a test piece separately produced, specifically, for each sample, a measuring material allowing five or more measuring test pieces of 3 mm x 3 mm x 5 mm to be obtained therefrom was produced similarly as each sample was produced and the measuring material was subjected to wire electric discharge machining and thus had cut out thereof a plurality of measuring test pieces of 3 mm x 3 mm x 5 mm which were in turn washed with acid to remove a wire component, after having been washed with acid, each sample's measuring test pieces' oxygen concentration was measured using an oxygen and nitrogen analysis device.