mhurhangee/ep-ind-claims huggingface dataset:
A method for interpreting petrophysical measurement data, comprising: measuring at least one physical property of formations using a petrophysical measuring instrument in a wellbore; in a computer, arranging measurements of the at least one physical property of formations made by the petrophysical measuring instrument into a matrix representing the measurements and selecting a number of unobserved factors for factor analysis; in the computer, performing factorization of the matrix into the number of unobserved factors; in the computer, performing rotation of results of the factorization; in the computer, determining whether factor loadings for each of the unobserved factors has achieved a simple structure; the method being characterised in that: in the computer, when it is determined that each of the unobserved factors cannot be associated with a corresponding physical parameter of the formations, performing the following operations until each of the unobserved factors has achieved the simple structure such that each of the unobserved factors is associated with the corresponding physical parameter of the formations: adding one to the number of factors; and repeating the performing factorization of the matrix, repeating the performing rotation of the results of the factorization, and repeating the determining whether factor loadings for each of the unobserved factors has achieved the simple structure. measuring at least one physical property of formations using a petrophysical measuring instrument in a wellbore; in a computer, arranging measurements of the at least one physical property of formations made by the petrophysical measuring instrument into a matrix representing the measurements and selecting a number of unobserved factors for factor analysis; in the computer, performing factorization of the matrix into the number of unobserved factors; in the computer, performing rotation of results of the factorization; in the computer, determining whether factor loadings for each of the unobserved factors has achieved a simple structure; the method being characterised in that: in the computer, when it is determined that each of the unobserved factors cannot be associated with a corresponding physical parameter of the formations, performing the following operations until each of the unobserved factors has achieved the simple structure such that each of the unobserved factors is associated with the corresponding physical parameter of the formations: adding one to the number of factors; and repeating the performing factorization of the matrix, repeating the performing rotation of the results of the factorization, and repeating the determining whether factor loadings for each of the unobserved factors has achieved the simple structure. adding one to the number of factors; and repeating the performing factorization of the matrix, repeating the performing rotation of the results of the factorization, and repeating the determining whether factor loadings for each of the unobserved factors has achieved the simple structure.
Method for producing polycrystalline, zirconia-reinforced alumina (Al 2 O 3) grains, in particular abrasive grains (9, 12), having at least the following steps: - melting a solid starting mixture to form a eutectic melt consisting of alumina and zirconia, - applying the eutectic melt as a thin layer material (6, 12) having a layer thickness (d), the thin layer material (6, 12) being quenched (104, 107), - removing the thin layer material (6, 12) as grains or for forming grains having the layer thickness (d), wherein the grains (9, 12) have a polycrystalline form and have an alumina matrix with zirconia precipitations (22, 22a), characterised in that the grains (9, 12) are formed without amorphous glass phases, the solid starting mixture is inductively melted, at least one part of the zirconia precipitations is segregated in the nanoscale range and the solid starting material is charged into an existing, inductively heated melt, wherein the starting material is a solid starting mixture which contains alumina (Al 2 O 3) or alumina compounds and zirconia (ZrO 2) or zirconia compounds or the precursors thereof respectively, the solid starting mixture is charged into a crucible, an induction heating device is arranged outside the crucible so that an induction furnace is formed, and wherein the eutectic melt consisting of alumina and zirconia is received in the crucible and is electrically conducting and is heated by the induction heating device, wherein the starting material charged into the melt is consequently completely inductively heated and increases the melt. - melting a solid starting mixture to form a eutectic melt consisting of alumina and zirconia, - applying the eutectic melt as a thin layer material (6, 12) having a layer thickness (d), the thin layer material (6, 12) being quenched (104, 107), - removing the thin layer material (6, 12) as grains or for forming grains having the layer thickness (d), wherein the grains (9, 12) have a polycrystalline form and have an alumina matrix with zirconia precipitations (22, 22a), characterised in that
A method of servicing cooling systems in vehicles, said servicing comprising suction, cleaning and subsequent adding of coolant to the air conditioning system, said coolant comprising inflammable coolants, characterized in that the areas (6, 12, 14, 23, 42, 59) in which there is a risk of leakage of inflammable agents, such as the area around the engine of the vehicle (1, 52) as well as the service equipment (9, 21, 53) necessary for the servicing are ventilated, so that the air in theses areas is sucked out and discharged (8, 61) from the areas.
A method for power management in a tire pressure monitoring system for indicating when air pressure in a tire is below a predetermined amount, comprising: sensing the air pressure with a pressure sensor; sensing air temperature with a temperature sensor; and determining whether the air pressure is increasing or decreasing with respect to time; wherein the method is characterized by: determining whether a ratio of the air pressure and the air temperature is increasing, decreasing or remaining constant with respect to time; inferring that the tire is moving without directly sensing acceleration or movement of the tire when the air pressure is increasing with respect to time and the ratio of the air pressure and the air temperature remains substantially constant with respect to time; and performing the sensing of air pressure and sensing of air temperature at measurement intervals which are longer in time than when the tire is in motion, to save power in the tire pressure monitoring system when the tire is not in motion. sensing the air pressure with a pressure sensor; sensing air temperature with a temperature sensor; and determining whether the air pressure is increasing or decreasing with respect to time; wherein the method is characterized by: determining whether a ratio of the air pressure and the air temperature is increasing, decreasing or remaining constant with respect to time; inferring that the tire is moving without directly sensing acceleration or movement of the tire when the air pressure is increasing with respect to time and the ratio of the air pressure and the air temperature remains substantially constant with respect to time; and performing the sensing of air pressure and sensing of air temperature at measurement intervals which are longer in time than when the tire is in motion, to save power in the tire pressure monitoring system when the tire is not in motion. determining whether a ratio of the air pressure and the air temperature is increasing, decreasing or remaining constant with respect to time; inferring that the tire is moving without directly sensing acceleration or movement of the tire when the air pressure is increasing with respect to time and the ratio of the air pressure and the air temperature remains substantially constant with respect to time; and performing the sensing of air pressure and sensing of air temperature at measurement intervals which are longer in time than when the tire is in motion, to save power in the tire pressure monitoring system when the tire is not in motion.
A support material for use in an additive manufacturing system to print a support structure for a three-dimensional part printed from a part material that includes polyetherimide, the support material comprising: a base resin comprising one or more polyarylethersulfone, wherein the base resin is substantially miscible with the part material and has a glass transition temperature within 10°C of a glass transition temperature of the part material; and a dispersed resin comprising one or more second thermoplastic polymers selected from polyarylethersulfones, polyetherimides, blends of polyphenyleneoxides and polystyrenes, and miscible mixtures thereof, wherein the dispersed resin is immiscible with the base resin such that the support material has an island in a sea configuration and wherein the base resin constitutes from 85 to 95% by weight of the base resin and the dispersed resin; wherein the base resin and the dispersed resin each have a thermal stability such that less than 10% by weight of either of the base resin or the dispersed resin thermally degrades when the support material is exposed to 350°C for a 5-minute duration; and, wherein the support material is provided as a powder or as a filament. a base resin comprising one or more polyarylethersulfone, wherein the base resin is substantially miscible with the part material and has a glass transition temperature within 10°C of a glass transition temperature of the part material; and a dispersed resin comprising one or more second thermoplastic polymers selected from polyarylethersulfones, polyetherimides, blends of polyphenyleneoxides and polystyrenes, and miscible mixtures thereof, wherein the dispersed resin is immiscible with the base resin such that the support material has an island in a sea configuration and wherein the base resin constitutes from 85 to 95% by weight of the base resin and the dispersed resin; wherein the base resin and the dispersed resin each have a thermal stability such that less than 10% by weight of either of the base resin or the dispersed resin thermally degrades when the support material is exposed to 350°C for a 5-minute duration; and, wherein the support material is provided as a powder or as a filament.
An organic light emitting diode (OLED) comprising: an organic light-emitting part including a first electrode, an organic material layer having a light-emitting layer and a second electrode; an encapsulating layer included on the entire top surface of the organic light-emitting part, the encapsulating layer having a structure in which a water barrier film and a glass cap are stacked or a structure in which a water barrier film and a metal foil are stacked; and a buffer layer located between the second electrode and the encapsulating layer, wherein the water barrier film has a thickness of 5 to 50 μm characterized in that the buffer layer is formed of an organic material which includes a material of Formula 1: wherein in Formula 1, R 1 to R 6 are independently selected from the group consisting of hydrogen, a halogen atom, nitrile (-CN), nitro (-NO 2), sulfonyl (-SO 2 R), sulfoxide (-SOR), sulfonamide (-SO 2 NR), sulfonate (-SO 3 R), trifluoromethyl (-CF 3), ester (- COOR), amide (-CONHR or -CONRR'), substituted or unsubstituted linear or branched C 1 -C 12 alkoxy, substituted or unsubstituted linear or branched C 1 -C 12 alkyl, a substituted or unsubstituted aromatic or non-aromatic hetero ring, substituted or unsubstituted aryl, substituted or unsubstituted mono- or di-arylamine, and substituted or unsubstituted aralkylamine, and R and R' are independently selected from the group consisting of a substituted or unsubstituted C 1 -C 60 alkyl, a substituted or unsubstituted aryl and a substituted or unsubstituted 5-7-membered hetero ring. an organic light-emitting part including a first electrode, an organic material layer having a light-emitting layer and a second electrode; an encapsulating layer included on the entire top surface of the organic light-emitting part, the encapsulating layer having a structure in which a water barrier film and a glass cap are stacked or a structure in which a water barrier film and a metal foil are stacked; and a buffer layer located between the second electrode and the encapsulating layer, wherein the water barrier film has a thickness of 5 to 50 μm characterized in that the buffer layer is formed of an organic material which includes a material of Formula 1:
A method for operating a polymerization reactor comprising the acts of: circulating a monomer and a catalyst in a reactor; polymerizing the monomer on the catalyst to form a plurality of polymer particles in the reactor; analyzing a set of reactor operations data comprising the power consumption data of a pump circulating the monomer and catalyst acquired over time to identify periodic components within the reactor operations data; evaluating the periodic components to detect one or more predictive indicators within the periodic components, wherein the one or more predictive indicators are indicative of a reactor foul in the reactor and wherein the one or more predictive indicators comprise a crossover of two traces (60,62) representing periodic components of the power consumption of the pump circulating the monomer and catalyst; and adjusting one or more reactor conditions of the reactor in response to detection of the one or more predictive indicators. circulating a monomer and a catalyst in a reactor; polymerizing the monomer on the catalyst to form a plurality of polymer particles in the reactor; analyzing a set of reactor operations data comprising the power consumption data of a pump circulating the monomer and catalyst acquired over time to identify periodic components within the reactor operations data; evaluating the periodic components to detect one or more predictive indicators within the periodic components, wherein the one or more predictive indicators are indicative of a reactor foul in the reactor and wherein the one or more predictive indicators comprise a crossover of two traces (60,62) representing periodic components of the power consumption of the pump circulating the monomer and catalyst; and adjusting one or more reactor conditions of the reactor in response to detection of the one or more predictive indicators.
A light emitting module comprising: a circuit board having a cavity and comprising a circuit pattern at a region which does not have the cavity; an insulation substrate disposed in the cavity while being formed, at an upper portion thereof, with at least one pad; and at least one light emitting device disposed on the pad, wherein a joining structure is disposed between a bottom surface of the cavity and a bottom surface of the insulation substrate, characterized that the joining structure comprises at least one cavity recess portion formed to be recessed from the bottom surface of the cavity and at least one insulation substrate protrusion portion formed to protrude from the bottom surface of the insulation substrate. a circuit board having a cavity and comprising a circuit pattern at a region which does not have the cavity; an insulation substrate disposed in the cavity while being formed, at an upper portion thereof, with at least one pad; and at least one light emitting device disposed on the pad, wherein a joining structure is disposed between a bottom surface of the cavity and a bottom surface of the insulation substrate, characterized that the joining structure comprises at least one cavity recess portion formed to be recessed from the bottom surface of the cavity and at least one insulation substrate protrusion portion formed to protrude from the bottom surface of the insulation substrate.
A system comprising an oral appliance sized and configured to be worn in an oral cavity of an individual and a sensor carried by the oral appliance, characterized in that the system comprises: a position sensing component that is integrated in the oral appliance, wherein the oral appliance is a therapeutic oral appliance that fits over the upper and lower teeth of the individual and is sized and configured to hold the tongue and/or push the lower jaw forward, and wherein the sensor is a gravity sensor sized and configured to provide a position dependent output indicative of the relative sleep position of the individual, a monitoring component communicating with the gravity sensor to receive the position dependent output, the monitoring component including a processing element that compares the position dependent output with one or more benchmark conditions that correlate to a desired sleep position, the processing element generating an alarm output when the individual is not in a desired sleep position, and a corrective action component communicating with the monitoring component including a corrective action element that, in response to the alarm output, generates an audible sound and/or tactile vibration to influence or alter the individual's sleep position to return the individual to a sleep position that correlates to a desired sleep position. a position sensing component that is integrated in the oral appliance, wherein the oral appliance is a therapeutic oral appliance that fits over the upper and lower teeth of the individual and is sized and configured to hold the tongue and/or push the lower jaw forward, and wherein the sensor is a gravity sensor sized and configured to provide a position dependent output indicative of the relative sleep position of the individual, a monitoring component communicating with the gravity sensor to receive the position dependent output, the monitoring component including a processing element that compares the position dependent output with one or more benchmark conditions that correlate to a desired sleep position, the processing element generating an alarm output when the individual is not in a desired sleep position, and a corrective action component communicating with the monitoring component including a corrective action element that, in response to the alarm output, generates an audible sound and/or tactile vibration to influence or alter the individual's sleep position to return the individual to a sleep position that correlates to a desired sleep position.
A hearing aid, comprising: an input unit configured to receive a sound input; a storage configured to store an audible advertisement; a generator configured to generate a sound signal based on the sound input and the audible advertisement, said generator being configured to operate in a first mode for performing a main function of a hearing aid and in a second mode specifically adapted for playing an audible advertisement, wherein, in said first mode, the generator generates a sound signal in which the sound input is amplified, said amplification preferably comprising selectively amplifying, from a frequency spectrum included in the sound input, at least a portion of a frequency band to be transmitted to a user, and, in said second mode, the generator controlling a ratio of loudness of a sound signal generated on the basis of the sound input to loudness of the audible advertisement to generate said sound signal; and an output unit configured to output the sound signal; wherein the hearing aid is configured to collect environment information, including sound environment information extracted by the generator from the sound input, and wherein the generator is configured to determine, based on the environment information including the sound environment information, at least one of an operating mode for playing the audible advertisement, a playback version of the audible advertisement, and a playback pattern of the audible advertisement, wherein the generator is configured to convert the operation of the generator from the first mode to the second mode each time a predetermined timing cycle occurs or in response to a user input. an input unit configured to receive a sound input; a storage configured to store an audible advertisement; a generator configured to generate a sound signal based on the sound input and the audible advertisement, said generator being configured to operate in a first mode for performing a main function of a hearing aid and in a second mode specifically adapted for playing an audible advertisement, wherein, in said first mode, the generator generates a sound signal in which the sound input is amplified, said amplification preferably comprising selectively amplifying, from a frequency spectrum included in the sound input, at least a portion of a frequency band to be transmitted to a user, and, in said second mode, the generator controlling a ratio of loudness of a sound signal generated on the basis of the sound input to loudness of the audible advertisement to generate said sound signal; and an output unit configured to output the sound signal;
An inspecting device for inspecting a semiconductor device or a photo device as an inspecting target, the device comprising: a light source for emitting pulsed light; a scan part for obliquely irradiating an inspecting target with said pulsed light, while changing an optical path of said pulsed light, to scan said inspecting target with said pulsed light; a detection part for detecting an electromagnetic wave emitted non-coaxially with said pulsed light from said inspecting target in accordance with the illumination with said pulsed light; and an image generation part for generating an image indicating electric field intensity distribution of said inspecting target based on an electric field intensity of an electromagnetic wave detected by said detection part, characterized in that said image generation part is adapted to obtain fluctuations of data acquisition interval due to fluctuations in incidence angle of said pulsed light on said inspecting target and to specify a position on said image which corresponds to an acquisition point of an electromagnetic wave intensity based on said fluctuations of data acquisition interval. a light source for emitting pulsed light; a scan part for obliquely irradiating an inspecting target with said pulsed light, while changing an optical path of said pulsed light, to scan said inspecting target with said pulsed light; a detection part for detecting an electromagnetic wave emitted non-coaxially with said pulsed light from said inspecting target in accordance with the illumination with said pulsed light; and an image generation part for generating an image indicating electric field intensity distribution of said inspecting target based on an electric field intensity of an electromagnetic wave detected by said detection part, characterized in that said image generation part is adapted to obtain fluctuations of data acquisition interval due to fluctuations in incidence angle of said pulsed light on said inspecting target and to specify a position on said image which corresponds to an acquisition point of an electromagnetic wave intensity based on said fluctuations of data acquisition interval.