mhurhangee/patent-ind-claim-en huggingface dataset:
An energy saving method in a combined system of a bioethanol producing device and a solid oxide fuel cell, in a combined system containing a mash column that distills a fermented liquid formed in a fermenting vessel of a bioethanol producing device to distill off a water-containing ethanol vapor from an overhead thereof, a reforming device that forms a reformed gas from the water-containing ethanol vapor, and a solid oxide fuel cell that is operated with the reformed gas as a fuel, the method comprising refluxing a reflux gas as a part of an anode off-gas of the solid oxide fuel cell to a water-containing ethanol vapor line from the mash column to the reforming device at a reflux ratio, which is defined as follows reflux ratio = flow rate of reflux gas flow rate of anode off gas − flow rate of reflux gas , of from 1 to 2, so as to control an ethanol concentration of the water-containing ethanol vapor, which is to be supplied to the reforming device, to a range of from 25 to 35% by weight, with water contained in the anode off-gas of the solid oxide fuel cell.
A tile-based rendering method comprising: performing binning of a current frame; generating a first identification code of binning information of a tile to be rendered in the current frame and a second identification code of property information of a tile to be rendered in the current frame; comparing the first identification code of the tile to be rendered to a first identification code of a previous tile, wherein a location of the previous tile in a previous frame is the same as a location of the tile to be rendered in the current frame; skipping comparing the second identification codes and rendering the current frame by performing pixel processing of the tile to be rendered in response to the first identification code of the tile to be rendered not being identical to the first identification code of the previous tile; comparing the second identification code of the tile to be rendered to second identification codes of the previous tile in response to the first identification code of the tile to be rendered being identical to the first identification code of the previous tile; rendering the current frame by re-using an image of the previous tile stored in a frame buffer in response to the second identification code of the tile to be rendered being identical to the second identification code of the previous tile, or rendering the current frame by performing pixel processing of the tile to be rendered in response to the second identification code of the tile to be rendered not being identical to the second identification code of the previous tile. performing binning of a current frame; generating a first identification code of binning information of a tile to be rendered in the current frame and a second identification code of property information of a tile to be rendered in the current frame; comparing the first identification code of the tile to be rendered to a first identification code of a previous tile, wherein a location of the previous tile in a previous frame is the same as a location of the tile to be rendered in the current frame; skipping comparing the second identification codes and rendering the current frame by performing pixel processing of the tile to be rendered in response to the first identification code of the tile to be rendered not being identical to the first identification code of the previous tile; comparing the second identification code of the tile to be rendered to second identification codes of the previous tile in response to the first identification code of the tile to be rendered being identical to the first identification code of the previous tile; rendering the current frame by re-using an image of the previous tile stored in a frame buffer in response to the second identification code of the tile to be rendered being identical to the second identification code of the previous tile, or rendering the current frame by performing pixel processing of the tile to be rendered in response to the second identification code of the tile to be rendered not being identical to the second identification code of the previous tile.
Milling head including two milling tools (1, la, lb), wherein the milling tools (1, la, 1b) for the machining processing of workpieces include in each case one rotational axis (A) and at least one cutter carrier having at least one cutting edge , wherein on the milling tools (1, la, 1b) is provided in each case at least one vane element with a curvature (B) and the vane element during the rotation of the respective milling tool (1, la, 1b) about its rotational axis (A) generates an airflow for the removal of abraded shavings and the milling tools are disposed parallel to one another, characterised in that the milling tools (1, la, 1b) of the milling head are designed as front-facing cutters, which have cutters on their end faces facing towards the profile to be processed, wherein the milling tools (1, la, 1b) are connected axially and distanced from the rotational axis (A) in a twist-resistant manner with one another by means of a connecting disc.
A method of manufacturing an electronic device , wherein the method comprises: interconnecting, in particular laminating, a stack of a plurality of electrically insulating layer structures and a plurality of electrically conductive layer structures ; at least partially accommodating a microelectromechanical system and a chip , being configured for cooperating with the microelectromechanical system , on and/or in the interconnected, in particular laminated, stack ; arranging the microelectromechanical system and the chip above one another so that, in a viewing direction perpendicular to a main surface of the interconnected, in particular laminated, stack , the microelectromechanical system and the chip have at least partially overlapping contours in a lateral direction, forming a cavity in a surface portion of the interconnected, in particular laminated, stack ; and accommodating at least part of the microelectromechanical system in the cavity , the method being characterized by the fact that the cavity is formed by: forming a hollow space in an interior of the interconnected, in particular laminated, stack , and removing a portion of the interconnected, in particular laminated, stack above the hollow space . interconnecting, in particular laminating, a stack of a plurality of electrically insulating layer structures and a plurality of electrically conductive layer structures ; at least partially accommodating a microelectromechanical system and a chip , being configured for cooperating with the microelectromechanical system , on and/or in the interconnected, in particular laminated, stack ; arranging the microelectromechanical system and the chip above one another so that, in a viewing direction perpendicular to a main surface of the interconnected, in particular laminated, stack , the microelectromechanical system and the chip have at least partially overlapping contours in a lateral direction, forming a cavity in a surface portion of the interconnected, in particular laminated, stack ; and accommodating at least part of the microelectromechanical system in the cavity , forming a hollow space in an interior of the interconnected, in particular laminated, stack , and removing a portion of the interconnected, in particular laminated, stack above the hollow space .
A power module apparatus , comprising: a) a base plate defining a topology pattern; b) a power substrate positioned above the base plate ; c) at least two power contacts , each of the at least two power contacts electrically connected to the power substrate ; d) at least two parallel shared current path power devices mounted on the power substrate and electrically connected to the at least two power contacts , e) a gate and source board mounted above the power substrate , the gate and source board including a first interconnection channel and a second interconnection channel ; f) gate drive connectors electrically connected to the gate and source board ; g) a housing secured to the power substrate , the gate drive connectors and the at least two power contacts extending through the housing , the housing defining fastener apertures ; h) fasteners positioned in the fastener apertures ; and characterized in that the at least two power contacts each have a bend in the form of an "L" shape at a base and the base is soldered to the power substrate , and the at least two "L" shape power contacts being mounted to the power substrate and extending from the power substrate through the housing and further being bent over the fastener apertures into a "C" shape to retain the fasteners in the fastener apertures . a) a base plate defining a topology pattern; b) a power substrate positioned above the base plate ; c) at least two power contacts , each of the at least two power contacts electrically connected to the power substrate ; d) at least two parallel shared current path power devices mounted on the power substrate and electrically connected to the at least two power contacts , e) a gate and source board mounted above the power substrate , the gate and source board including a first interconnection channel and a second interconnection channel ; f) gate drive connectors electrically connected to the gate and source board ; g) a housing secured to the power substrate , the gate drive connectors and the at least two power contacts extending through the housing , the housing defining fastener apertures ; h) fasteners positioned in the fastener apertures ; and
A computer-implemented method of determining a tumor mutational burden (TMB) value in a tumor sample, the method comprising: obtaining variant calling data for the tumor sample; identifying, in the variant calling data and in view of at least one population database, a list of germline variants for the tumor sample along each chromosome, wherein each of the germline variants of the list of germline variants includes a population minor allele frequency (pMAF) above a threshold relative to the at least one population database; identifying, in the variant calling data, a list of candidate somatic variants, wherein the list of candidate somatic variants are the remaining variants in the variant calling data that have not been identified in the list of germline variants; filtering out likely germline variants from the list of candidate somatic variants to retain only likely somatic variants, filtering out the likely germline variants further comprising the steps of: estimating, via a Hidden Markov Model (HMM) along each chromosome, a probability of each candidate somatic variant i being a germline variant ("Pgermline(i)"); and determining, based on the Pgermline(i), whether a candidate somatic variant i is germline or somatic, to retain only the likely somatic variants in the list of candidate somatic variants; determining the tumor mutational burden (TMB) value for the tumor sample based on a count of the retained likely somatic variants over all chromosomes. obtaining variant calling data for the tumor sample; identifying, in the variant calling data and in view of at least one population database, a list of germline variants for the tumor sample along each chromosome, wherein each of the germline variants of the list of germline variants includes a population minor allele frequency (pMAF) above a threshold relative to the at least one population database; identifying, in the variant calling data, a list of candidate somatic variants, wherein the list of candidate somatic variants are the remaining variants in the variant calling data that have not been identified in the list of germline variants; filtering out likely germline variants from the list of candidate somatic variants to retain only likely somatic variants, filtering out the likely germline variants further comprising the steps of: estimating, via a Hidden Markov Model (HMM) along each chromosome, a probability of each candidate somatic variant i being a germline variant ("Pgermline(i)"); and determining, based on the Pgermline(i), whether a candidate somatic variant i is germline or somatic, to retain only the likely somatic variants in the list of candidate somatic variants; estimating, via a Hidden Markov Model (HMM) along each chromosome, a probability of each candidate somatic variant i being a germline variant ("Pgermline(i)"); and determining, based on the Pgermline(i), whether a candidate somatic variant i is germline or somatic, to retain only the likely somatic variants in the list of candidate somatic variants; determining the tumor mutational burden (TMB) value for the tumor sample based on a count of the retained likely somatic variants over all chromosomes.
Method for producing a fiber composite structure designed as an accumulator or a capacitor, comprising the steps - arranging electrically conductive fibers to form an electrode and a counter-electrode of the accumulator or capacitor, - doping a resin with an electrolyte material , - impregnating the fibers with the doped resin , and - curing the resin into a resin matrix , characterized in - that the resin is doped with an electrolyte material which tends to form spherical inclusions in the resin , and - that , during curing, an electric voltage is applied to the electrode and the counter-electrode such that the electrolyte material forms non-spherical inclusions in the resin matrix which are oriented in a preferential direction. - arranging electrically conductive fibers to form an electrode and a counter-electrode of the accumulator or capacitor, - doping a resin with an electrolyte material , - impregnating the fibers with the doped resin , and - curing the resin into a resin matrix , - that the resin is doped with an electrolyte material which tends to form spherical inclusions in the resin , and - that , during curing, an electric voltage is applied to the electrode and the counter-electrode such that the electrolyte material forms non-spherical inclusions in the resin matrix which are oriented in a preferential direction.
An outer blade for a hair cutting device , the outer blade being configured to be mounted to an end of a main body of the hair cutting device , the outer blade comprising: bars arranged at predetermined intervals, each of the bars having a shape of a rectangular stick; and an agent holding part being a surrounded recess that is recessed from a first face to a second face of each of the bars , the first face being a side that is configured to come into contact with a skin surface, and the second face being an inner-blade-side that is configured to be closer to an inner blade of the hair cutting device ; characterized in that each of the bars has a cranked shape and includes two or more bends, and the agent holding part is disposed between the bends that are adjacent to each other. bars arranged at predetermined intervals, each of the bars having a shape of a rectangular stick; and an agent holding part being a surrounded recess that is recessed from a first face to a second face of each of the bars , the first face being a side that is configured to come into contact with a skin surface, and the second face being an inner-blade-side that is configured to be closer to an inner blade of the hair cutting device ; characterized in that each of the bars has a cranked shape and includes two or more bends, and the agent holding part is disposed between the bends that are adjacent to each other.
A gaze prediction system for processing a collection of input facial images of a user to generate a system output that predicts a gaze position of the user, the gaze prediction system comprising one or more processors configured to implement: an image collection system configured to obtain a collection of input facial images of the user, wherein the collection of input facial images of the user comprises a query image of the user, one or more calibration images of the user, and a respective calibration label that labels a known gaze position of the user for each of the one or more calibration images of the user; and a neural network comprising one or more neural network layers, characterized in that the neural network is configured to, at run time and after the neural network has been trained: receive the collection of input facial images of the user; and process the received collection of input facial images of the user using the one or more neural network layers to generate a neural network output that characterizes a gaze position of the user in the query image. an image collection system configured to obtain a collection of input facial images of the user, wherein the collection of input facial images of the user comprises a query image of the user, one or more calibration images of the user, and a respective calibration label that labels a known gaze position of the user for each of the one or more calibration images of the user; and a neural network comprising one or more neural network layers, characterized in that the neural network is configured to, at run time and after the neural network has been trained: receive the collection of input facial images of the user; and process the received collection of input facial images of the user using the one or more neural network layers to generate a neural network output that characterizes a gaze position of the user in the query image. receive the collection of input facial images of the user; and process the received collection of input facial images of the user using the one or more neural network layers to generate a neural network output that characterizes a gaze position of the user in the query image.
Method for fabricating a timepiece component partly formed of aventurine, characterised by the following steps: A) Providing at least one piece of aventurine formed of a mass of coloured glass containing copper crystals scattered throughout the mass of coloured glass; B) After step A), grinding said at least one piece of aventurine to obtain a granular powder formed of grains of aventurine, most of which are of larger dimensions between 50 microns (50 μm) and 200 microns (200 μm); C) Making a support from a material having a higher melting temperature than that of said mass of coloured glass, this support having at least one surface intended to receive a decorative coating; D) After steps B) and C), depositing at least part of said granular powder on said support surface; E) After step D), introducing the support with the granular powder deposited on said surface into a furnace and melting this granular powder so as to obtain, after removing the assembly thus obtained from the furnace and allowing the assembly to cool, an enamel layer made of aventurine which covers said support surface and forms a decorative coating. A) Providing at least one piece of aventurine formed of a mass of coloured glass containing copper crystals scattered throughout the mass of coloured glass; B) After step A), grinding said at least one piece of aventurine to obtain a granular powder formed of grains of aventurine, most of which are of larger dimensions between 50 microns (50 μm) and 200 microns (200 μm); C) Making a support from a material having a higher melting temperature than that of said mass of coloured glass, this support having at least one surface intended to receive a decorative coating; D) After steps B) and C), depositing at least part of said granular powder on said support surface; E) After step D), introducing the support with the granular powder deposited on said surface into a furnace and melting this granular powder so as to obtain, after removing the assembly thus obtained from the furnace and allowing the assembly to cool, an enamel layer made of aventurine which covers said support surface and forms a decorative coating.
A breathing assistance apparatus , for use with delivery of respiratory gases to a patient , comprising: a patient interface, having a body section adapted to cover a nose, or nose and mouth, of said patient , a sealing interface , including an outer sealing member and an inner sealing member covered by the outer sealing member , said outer sealing member including a base adapted to attach to said body section in a sealing manner and a side wall or walls extending from the base, said outer sealing member having a substantially thin section in at least its nasal bridge region , said substantially thin section being substantially thinner than the rest of said outer sealing member , the rest of said outer sealing member including the side wall(s), and wherein said outer sealing member is adapted to seal around facial contours of said patient thereby providing a sealed fluid communication to a respiratory tract of said patient . a patient interface, having a body section adapted to cover a nose, or nose and mouth, of said patient , a sealing interface , including an outer sealing member and an inner sealing member covered by the outer sealing member , said outer sealing member including a base adapted to attach to said body section in a sealing manner and a side wall or walls extending from the base, said outer sealing member having a substantially thin section in at least its nasal bridge region , said substantially thin section being substantially thinner than the rest of said outer sealing member , the rest of said outer sealing member including the side wall(s), and wherein said outer sealing member is adapted to seal around facial contours of said patient thereby providing a sealed fluid communication to a respiratory tract of said patient .
A polymorph, wherein the polymorph is a polymorph of compound I or a pharmaceutically acceptable salt thereof or a solvate thereof, wherein the polymorph is polymorph I of the hydrochloride of compound I, wherein the polymorph I has 3 or more than 3 characteristic peaks in X-ray powder diffraction pattern selected from the group consisting of 5.426 ± 0.2°, 9.985 ± 0.2°, 13.424 ± 0.2°, 14.765 ± 0.2°, 25.148 ± 0.2° and 26.566 ± 0.2°.
A process for preparing a readily dispersible hydrocolloid composition, the process comprising (a) providing a dry blend of xanthan gum, carboxymethyl cellulose and maltodextrin in the form of a powder; (b) contacting the dry blend of step (a) with a solution of a calcium salt to provide a first agglomerate; (c) contacting the first agglomerate of step (b) with a solution of maltodextrin to provide a second agglomerate; and (d) recovering the second agglomerate. (a) providing a dry blend of xanthan gum, carboxymethyl cellulose and maltodextrin in the form of a powder; (b) contacting the dry blend of step (a) with a solution of a calcium salt to provide a first agglomerate; (c) contacting the first agglomerate of step (b) with a solution of maltodextrin to provide a second agglomerate; and (d) recovering the second agglomerate.