mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication device comprising: an internal device (120; 220; 520) configured to support a near field communication, NFC, operation; and an NFC integrated circuit (110; 210; 510) connected to a battery (140; 240) and to a power management integrated circuit, PMIC, (PMIC) (150; 250; 550), the NFC integrated circuit (110; 210; 300; 400; 510) including a power supply path control circuit (112; 212; 310; 410; 512) configured to, cut off a first power supply path for a first supply voltage from the PMIC (150; 250; 550) to the internal device (120; 220; 520) when the NFC integrated circuit (110; 210; 300; 400; 510) is in an on state, form a second power supply path from the battery (140; 240) to the internal device (120; 220; 520) when internal data communication between the NFC integrated circuit (110; 210; 300; 400; 510) and the internal device (120; 220; 520) is requested, form the first power supply path and cut off the second power supply path before the NFC integrated circuit (110; 210; 300; 400; 510) changes from the on state to an off-state or an idle state, detect a voltage of a terminal of the PMIC (150; 250; 550), and determine whether the first supply voltage is provided from the PMIC (150; 250; 550), and maintain the second power supply path when the power supply path control circuit (112; 212; 310; 410; 512) detects the first supply voltage. an internal device (120; 220; 520) configured to support a near field communication, NFC, operation; and an NFC integrated circuit (110; 210; 510) connected to a battery (140; 240) and to a power management integrated circuit, PMIC, (PMIC) (150; 250; 550), the NFC integrated circuit (110; 210; 300; 400; 510) including a power supply path control circuit (112; 212; 310; 410; 512) configured to, cut off a first power supply path for a first supply voltage from the PMIC (150; 250; 550) to the internal device (120; 220; 520) when the NFC integrated circuit (110; 210; 300; 400; 510) is in an on state, form a second power supply path from the battery (140; 240) to the internal device (120; 220; 520) when internal data communication between the NFC integrated circuit (110; 210; 300; 400; 510) and the internal device (120; 220; 520) is requested, form the first power supply path and cut off the second power supply path before the NFC integrated circuit (110; 210; 300; 400; 510) changes from the on state to an off-state or an idle state, detect a voltage of a terminal of the PMIC (150; 250; 550), and determine whether the first supply voltage is provided from the PMIC (150; 250; 550), and maintain the second power supply path when the power supply path control circuit (112; 212; 310; 410; 512) detects the first supply voltage.
A method of inhibiting the accumulation of scale on a surface in contact with a liquid medium, the method comprising the steps of: providing a solution distribution system comprising one or more of: piping, spray nozzles, emitter tubes, and any combination thereof having a length which defines more than one discrete region, each discrete region capable of having different surface temperatures, positioning at least one temperature sensor such that it is constructed and arranged to measure or predict the maximum surface temperature across all discrete regions within the solution distribution system, applying a scale control reagent to a specific location in the solution distribution system when the measured or predicted surface temperature at that location exceeds a threshold required to initiate inverse solubility scale formation, at a reagent dosage required to prevent scale formation. providing a solution distribution system comprising one or more of: piping, spray nozzles, emitter tubes, and any combination thereof having a length which defines more than one discrete region, each discrete region capable of having different surface temperatures, positioning at least one temperature sensor such that it is constructed and arranged to measure or predict the maximum surface temperature across all discrete regions within the solution distribution system, applying a scale control reagent to a specific location in the solution distribution system when the measured or predicted surface temperature at that location exceeds a threshold required to initiate inverse solubility scale formation, at a reagent dosage required to prevent scale formation.
A system for decoding a symbol using images of the symbol, the system comprising: an imaging device adapted to acquire a first image and a second image, the first image including a first symbol data region, and the second image including a second symbol data region; and a processor operatively coupled to the imaging device, the processor being adapted to execute a data stitching algorithm, wherein the data stitching algorithm converts the first symbol data region into a first binary matrix (102, 104) and the second symbol data region into a second binary matrix (106, 108), the data stitching algorithm accumulating the first binary matrix (102, 104) with the second binary matrix (106, 108) to generate an accumulative binary matrix (107, 109), the accumulative binary matrix (107, 109) being a decodable representation of the symbol characterized in that the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol, the data stitching algorithm correlating the synthetic model of the symbol with at least one of the first image and the second image. an imaging device adapted to acquire a first image and a second image, the first image including a first symbol data region, and the second image including a second symbol data region; and a processor operatively coupled to the imaging device, the processor being adapted to execute a data stitching algorithm, wherein the data stitching algorithm converts the first symbol data region into a first binary matrix (102, 104) and the second symbol data region into a second binary matrix (106, 108), the data stitching algorithm accumulating the first binary matrix (102, 104) with the second binary matrix (106, 108) to generate an accumulative binary matrix (107, 109), the accumulative binary matrix (107, 109) being a decodable representation of the symbol characterized in that the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol, the data stitching algorithm correlating the synthetic model of the symbol with at least one of the first image and the second image.
A method to be installed on and implemented by a computing device of detecting meal events pertaining to operation of an insulin infusion device associated with a patient for developing and supporting diagnostic and therapeutic parameters, the method comprising: obtaining, by the computing device via a network, one or more glucose measurements associated with the patient; determining, by the computing device, one or more glucose measurement statistics for an analysis interval based on the one or more glucose measurements; determining, by the computing device, a meal probability for the analysis interval based on meal bolus data associated with the patient; wherein stepwise logistic regression is utilized by the computing device to determine which of the glucose measurement statistics among the one or more glucose measurement statistics are predictive of a meal; obtaining, by the computing device, meal detection model associated with the patient; identifying (610, 612), by the computing device, a meal based on the one or more glucose measurement statistics and the meal probability using the meal detection model; and providing, by the computing device, an indication of the meal event associated with the analysis interval; obtaining, by the computing device via a network, one or more glucose measurements associated with the patient; determining, by the computing device, one or more glucose measurement statistics for an analysis interval based on the one or more glucose measurements; determining, by the computing device, a meal probability for the analysis interval based on meal bolus data associated with the patient; wherein stepwise logistic regression is utilized by the computing device to determine which of the glucose measurement statistics among the one or more glucose measurement statistics are predictive of a meal; obtaining, by the computing device, meal detection model associated with the patient; identifying (610, 612), by the computing device, a meal based on the one or more glucose measurement statistics and the meal probability using the meal detection model; and providing, by the computing device, an indication of the meal event associated with the analysis interval;
Mounted vane ring for a turbomachine, comprising a plurality of rotatable guide vanes which are mounted radially outwards in the radial direction in relation to a central axis of the mounted vane ring, and comprising an inner race for radially inwardly stabilizing the guide vanes, characterized in that the guide vanes each have an inner platform plate, by means of the lateral face of which said platform plates are slidingly guided into a seat in the inner race, a pin extending in each case from the platform plate radially inwards in relation to a central axis, which pin has a minimum length which is greater than a minimum depth (t) of the seat, and which is arranged contactlessly in a pin bore without relative axial offset between the inner race and the guide vanes, which pin bore passes through a base portion of the particular seat.
A tensioning system for an article of footwear, comprising: a reel member comprising: a shaft including a central axis running from a first end to a second end; and at least one flange, including a first face opposite a second face, extending radially outward from the shaft; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; wherein: the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face; the tensioning system further comprises a lace including a first end, a second end, and a middle portion, wherein a first segment of the middle portion extends through the aperture; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace. a reel member comprising: a shaft including a central axis running from a first end to a second end; and at least one flange, including a first face opposite a second face, extending radially outward from the shaft; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; a shaft including a central axis running from a first end to a second end; and at least one flange, including a first face opposite a second face, extending radially outward from the shaft; wherein the at least one flange includes an aperture extending through the flange from the first face to the second face aligned with the central axis; wherein: the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face; the tensioning system further comprises a lace including a first end, a second end, and a middle portion, wherein a first segment of the middle portion extends through the aperture; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace. the reel member is configured to rotate about the central axis; the shaft runs parallel to the central axis and through a center of the at least one flange from the first face to the second face; the tensioning system further comprises a lace including a first end, a second end, and a middle portion, wherein a first segment of the middle portion extends through the aperture; and rotating the reel member winds a second segment of the middle portion of the lace onto the shaft adjacent the first face and a third segment of the middle portion of the lace onto the shaft adjacent the second face inducing tension on the lace.
A method for wireless building automation control, the method comprising: (a) wirelessly transmitting from a sensor within a room of a building an alarm signal; (b) receiving the alarm signal directly from the sensor at an actuator associated with the room; (c) operating the actuator in response to the alarm signal; (d) wirelessly propagating the alarm signal outside the room and within the building; wherein (d) comprises routing the alarm signal from the room to another room; and (e) responding (62, 64) to the alarm signal differently in the other room; wherein (e) comprises automatically operating another actuator in the other room in response to the alarm signal. (a) wirelessly transmitting from a sensor within a room of a building an alarm signal; (b) receiving the alarm signal directly from the sensor at an actuator associated with the room; (c) operating the actuator in response to the alarm signal; (d) wirelessly propagating the alarm signal outside the room and within the building; wherein (d) comprises routing the alarm signal from the room to another room; and (e) responding (62, 64) to the alarm signal differently in the other room; wherein (e) comprises automatically operating another actuator in the other room in response to the alarm signal.
A battery monitoring device comprising: a control unit disposed outside a battery stack including a plurality of battery cells; a plurality of electric elements that are respectively connected in parallel to the battery cells; Characterized by a plurality of main analog-digital converters (211, 212) that are respectively connected to the battery cells via the electric elements, and respectively detect voltages of the battery cells; and a plurality of sub analog-digital converters (221, 222) that are respectively connected to the battery cells without using the electric elements, and respectively detect the voltages of the battery cells, wherein: the control unit is configured to determine whether there is a failure in each of the electric elements based on a first voltage detection value detected by the corresponding main analog-digital converter (211, 212), and a second voltage detection value detected by the corresponding sub analog-digital converter (221, 222); and the control unit is configured to limit a control range of a degree of charge as compared to the control range of the degree of charge used during a normal control, when the control unit determines that there is a leak failure in at least one of the electric elements. a control unit disposed outside a battery stack including a plurality of battery cells; a plurality of electric elements that are respectively connected in parallel to the battery cells; a plurality of main analog-digital converters (211, 212) that are respectively connected to the battery cells via the electric elements, and respectively detect voltages of the battery cells; and a plurality of sub analog-digital converters (221, 222) that are respectively connected to the battery cells without using the electric elements, and respectively detect the voltages of the battery cells, the control unit is configured to determine whether there is a failure in each of the electric elements based on a first voltage detection value detected by the corresponding main analog-digital converter (211, 212), and a second voltage detection value detected by the corresponding sub analog-digital converter (221, 222); and the control unit is configured to limit a control range of a degree of charge as compared to the control range of the degree of charge used during a normal control, when the control unit determines that there is a leak failure in at least one of the electric elements.
Straightening machine for the straightening of sections, with a plurality of straightening rollers which are arranged to be offset oppositely on either side of a straightening line and which form a straightening path, wherein the straightening rollers are arranged on vertically extending straightening shafts and at least in part are arranged horizontally and/or axially adjustable with respect to a section guided on the straightening path, characterised in that at least some of the straightening shafts are respectively configured to be individually hydraulically adjustable horizontally and/or axially.
A system for upgrading a methane containing gas mixture comprising: an absorption column for absorbing CO 2 and H 2 S and a small amount of CH 4 from the gas mixture (1, 2) into water; a flash column for liberating at least a portion of the gases absorbed in the absorption column from the water, and a desorption column for removing dissolved gases from the water by (air) stripping, wherein at least a portion of the desorbed water is returned to the absorption column, characterized in that an UV irradiation water treatment system is integrated between the flash column and the desorption column, said UV irradiation water treatment system comprising a housing encasing one or more ultraviolet lamps which are surrounded by a protective tube, wherein the outer side of said protective tube(s) surrounding the one or more ultraviolet lamps is covered with a net body and photo-catalyst attached on said net body and said housing having a water inlet and a water outlet, wherein said absorption column, said flash column, said UV irradiation water treatment system and said desorption column are in fluid connection. an absorption column for absorbing CO 2 and H 2 S and a small amount of CH 4 from the gas mixture (1, 2) into water; a flash column for liberating at least a portion of the gases absorbed in the absorption column from the water, and a desorption column for removing dissolved gases from the water by (air) stripping, wherein at least a portion of the desorbed water is returned to the absorption column, characterized in that an UV irradiation water treatment system is integrated between the flash column and the desorption column, said UV irradiation water treatment system comprising a housing encasing one or more ultraviolet lamps which are surrounded by a protective tube, wherein the outer side of said protective tube(s) surrounding the one or more ultraviolet lamps is covered with a net body and photo-catalyst attached on said net body and said housing having a water inlet and a water outlet, wherein said absorption column, said flash column, said UV irradiation water treatment system and said desorption column are in fluid connection.
A method for evaluating renal status in a sepsis patient, comprising: performing one or more assays configured to detect hyaluronic acid in a urine sample obtained from the sepsis patient to provide an assay result; and correlating the assay result to the renal status of the sepsis patient, wherein either: (i) the sepsis patient is in RIFLE stage 0 or R, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE I or RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient; or (ii) the sepsis patient is in RIFLE stage I, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient. performing one or more assays configured to detect hyaluronic acid in a urine sample obtained from the sepsis patient to provide an assay result; and correlating the assay result to the renal status of the sepsis patient, wherein either: (i) the sepsis patient is in RIFLE stage 0 or R, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE I or RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient; or (ii) the sepsis patient is in RIFLE stage I, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient. (i) the sepsis patient is in RIFLE stage 0 or R, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE I or RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient; or (ii) the sepsis patient is in RIFLE stage I, and said correlating step comprises assigning a likelihood that the patient will develop a RIFLE F acute kidney injury within 72 hours of the time the sample is obtained from the patient.
A surface-treated steel sheet comprising: a tin-plated steel sheet obtained by tin-plating a steel sheet; a phosphate compound layer containing tin phosphate formed on the tin-plated steel sheet; and an aluminum-oxygen compound layer formed on the phosphate compound layer, a main constituent of the aluminum-oxygen compound layer being an aluminum-oxygen compound, wherein the aluminum-oxygen compound layer contains a phosphate compound, characterized in that the ratio P/Al of the amount of phosphorus, in mol/m 2, to the amount of aluminum, in mol/m 2, in the aluminum-oxygen compound layer is 0.09 to 0.35 the amount of phosphorus and the amount of aluminum being measured using an X-ray fluorescence spectrometer. a tin-plated steel sheet obtained by tin-plating a steel sheet; a phosphate compound layer containing tin phosphate formed on the tin-plated steel sheet; and an aluminum-oxygen compound layer formed on the phosphate compound layer, a main constituent of the aluminum-oxygen compound layer being an aluminum-oxygen compound, wherein the aluminum-oxygen compound layer contains a phosphate compound, characterized in that the ratio P/Al of the amount of phosphorus, in mol/m 2, to the amount of aluminum, in mol/m 2, in the aluminum-oxygen compound layer is 0.09 to 0.35 the amount of phosphorus and the amount of aluminum being measured using an X-ray fluorescence spectrometer.