mhurhangee/patent-ind-claim-en huggingface dataset:
Verification process in a terminal, comprising: generating a verification template, wherein the verification template comprises an infrared template and a depth template, by: obtaining a face infrared image of a user face and storing the face infrared image into a trusted execution environment as the infrared template; controlling a laser projector to project laser light to the user face; obtaining a laser pattern modulated by the user face; and processing the laser pattern to obtain a face depth image and storing the face depth image into the trusted execution environment as the depth template, obtaining an infrared image of a scene before the terminal; comparing the infrared template with the obtained infrared image to determine whether a face image matched with the face infrared image exists in the infrared image of the scene before the terminal; after the verification of the infrared template is successful, obtaining a depth image of the scene before the terminal, and comparing the depth template with the obtained depth image to determine whether a face image matched with the face depth image in the depth template exists in the depth image of the scene before the terminal. obtaining a face infrared image of a user face and storing the face infrared image into a trusted execution environment as the infrared template; controlling a laser projector to project laser light to the user face; obtaining a laser pattern modulated by the user face; and processing the laser pattern to obtain a face depth image and storing the face depth image into the trusted execution environment as the depth template, obtaining an infrared image of a scene before the terminal; comparing the infrared template with the obtained infrared image to determine whether a face image matched with the face infrared image exists in the infrared image of the scene before the terminal; after the verification of the infrared template is successful, obtaining a depth image of the scene before the terminal, and comparing the depth template with the obtained depth image to determine whether a face image matched with the face depth image in the depth template exists in the depth image of the scene before the terminal.
A process for making a polysaccharide food casing comprising: (a) dissolving polysaccharide in a solvent composition to provide a solution of polysaccharide; (b) extruding the solution of polysaccharide into a coagulation bath to make a tube-shaped wet gel; (c) washing the tube-shaped wet gel with water; (d) optionally, plasticizing the tube-shaped wet gel with a plasticizer additive; and (e) removing the water from the tube-shaped wet gel to form a polysaccharide food casing, characterized in that the polysaccharide is poly alpha-1,3-glucan and the process does not use carbon disulfide. (a) dissolving polysaccharide in a solvent composition to provide a solution of polysaccharide; (b) extruding the solution of polysaccharide into a coagulation bath to make a tube-shaped wet gel; (c) washing the tube-shaped wet gel with water; (d) optionally, plasticizing the tube-shaped wet gel with a plasticizer additive; and (e) removing the water from the tube-shaped wet gel to form a polysaccharide food casing,
A beverage dispense apparatus , comprising: a receiving structure for locating and holding opposite ends of a beverage package (B); a dispense outlet , incorporating a piercing element configured for puncturing the beverage package (B) when held at opposite ends by the receiving structure ; and a gas delivery feature comprising a cannula configured for piercing a wall of the package and, in use, introducing a gas under pressure directly into a headspace of the beverage package (B) distant from an outlet end of the beverage package (B) and into contact with a beverage contained therein; at least one pump operable in a vacuum mode for pausing dispense; wherein the apparatus is configured for opening the outlet end of the package prior to introducing gas under pressure by the gas delivery feature . a receiving structure for locating and holding opposite ends of a beverage package (B); a dispense outlet , incorporating a piercing element configured for puncturing the beverage package (B) when held at opposite ends by the receiving structure ; and a gas delivery feature comprising a cannula configured for piercing a wall of the package and, in use, introducing a gas under pressure directly into a headspace of the beverage package (B) distant from an outlet end of the beverage package (B) and into contact with a beverage contained therein; at least one pump operable in a vacuum mode for pausing dispense; wherein the apparatus is configured for opening the outlet end of the package prior to introducing gas under pressure by the gas delivery feature .
An apparatus for positioning at least one electronic display and a keyboard relative to a work surface , the apparatus comprising: a base including a bottom surface for supporting the base upon the work surface ; and a support column extending upward from the base at an obtuse angle with respect to the work surface ; said apparatus being characterized in that the apparatus further comprises a mounting portion including a frame, an electronic display mount coupled to the frame, and a keyboard tray coupled to the frame, said mounting portion being movably coupled to the support column through a range of travel relative to the work surface , and the mounting portion being configured to simultaneously move the electronic display and the keyboard within the range of travel , when the electronic display is positioned on the electronic display mount and the keyboard is positioned on the keyboard tray. a base including a bottom surface for supporting the base upon the work surface ; and a support column extending upward from the base at an obtuse angle with respect to the work surface ; said apparatus being characterized in that the apparatus further comprises a mounting portion including a frame, an electronic display mount coupled to the frame, and a keyboard tray coupled to the frame, said mounting portion being movably coupled to the support column through a range of travel relative to the work surface , and the mounting portion being configured to simultaneously move the electronic display and the keyboard within the range of travel , when the electronic display is positioned on the electronic display mount and the keyboard is positioned on the keyboard tray.
A method of detecting occupancy in an area comprising: Obtaining , with a processor , an audio sample from an audio sensor ; determining, with the processor , feature functional values of a set of selected feature functionals of statistical operations from the audio sample, the determining of the feature functional values comprising: extracting audio low-level descriptive, LLD, features from the audio sample using a frame-level sliding window with no overlap; partitioning the extracted audio LLD features into segment features determined by feature frames aggregated over segments with a fixed length in time and a shift of one frame, wherein the segments overlap one another such that each segment is calculated shifted by one frame; and determining the feature functional values of the determined segment features; selecting audio LLD features that contain information most relevant of occupancy of the area from the determined feature functional values, based on a correlation or independence of the selected feature functionals of the statistical operations; and determining, with the processor , occupancy in the area using a classifier based on the determined feature functional values of a set of selected audio LLD features. Obtaining , with a processor , an audio sample from an audio sensor ; determining, with the processor , feature functional values of a set of selected feature functionals of statistical operations from the audio sample, the determining of the feature functional values comprising: extracting audio low-level descriptive, LLD, features from the audio sample using a frame-level sliding window with no overlap; partitioning the extracted audio LLD features into segment features determined by feature frames aggregated over segments with a fixed length in time and a shift of one frame, wherein the segments overlap one another such that each segment is calculated shifted by one frame; and determining the feature functional values of the determined segment features; extracting audio low-level descriptive, LLD, features from the audio sample using a frame-level sliding window with no overlap; partitioning the extracted audio LLD features into segment features determined by feature frames aggregated over segments with a fixed length in time and a shift of one frame, wherein the segments overlap one another such that each segment is calculated shifted by one frame; and determining the feature functional values of the determined segment features; selecting audio LLD features that contain information most relevant of occupancy of the area from the determined feature functional values, based on a correlation or independence of the selected feature functionals of the statistical operations; and determining, with the processor , occupancy in the area using a classifier based on the determined feature functional values of a set of selected audio LLD features.
A granular composite comprising keratin and hexagonal plate-shaped zinc oxide particles, wherein keratin is present on the surface of the hexagonal plate-shaped zinc oxide particles, and wherein keratin is at least one member selected from the group consisting of cationized hydrolyzed keratin from wool, silylated hydrolyzed keratin from wool, and hydrolyzed keratin from feather; and has a number average molecular weight of 500 to 2000. wherein keratin is present on the surface of the hexagonal plate-shaped zinc oxide particles, and wherein keratin is at least one member selected from the group consisting of cationized hydrolyzed keratin from wool, silylated hydrolyzed keratin from wool, and hydrolyzed keratin from feather; and has a number average molecular weight of 500 to 2000.
An exhaust gas system for a vehicle comprising an exhaust gas conduit , an exhaust gas sensor , and an arrangement adapted for removing soot from the exhaust gas sensor , characterized in that the arrangement comprises a fluid outlet arranged in the exhaust gas conduit , and that the fluid outlet is adapted to direct a fluid blast comprising a fluid being a mixture of air and a liquid on the exhaust gas sensor .
A system comprising: means for delivering ultrasonic energy to cardiac tissue; in response to delivering ultrasonic energy to the cardiac tissue, means for receiving, with a processing unit, a torso-surface potential signal from each of a plurality of electrodes distributed on a torso of a patient; for at least a subset of the plurality of electrodes, processing means for calculating, with the processing unit, a torso-surface activation time based on the signal sensed from the electrode; and means for presenting, by the processing unit, to a user, an indication of a degree of dyssynchrony of the torso-surface activation times via a display; wherein receiving the torso-surface potential signals and calculating the torso-surface activation times comprises receiving first torso-surface potential signals and calculating first torso-surface activation times a first time during intrinsic conduction of a heart of the patient and receiving second torso-surface potential signals and calculating second torso-surface activation times a second time during CRT pacing of the heart, and wherein presenting the indication of the degree of dyssynchrony comprises presenting an indication of a change in dyssynchrony from the intrinsic conduction to the CRT pacing of the heart. means for delivering ultrasonic energy to cardiac tissue; in response to delivering ultrasonic energy to the cardiac tissue, means for receiving, with a processing unit, a torso-surface potential signal from each of a plurality of electrodes distributed on a torso of a patient; for at least a subset of the plurality of electrodes, processing means for calculating, with the processing unit, a torso-surface activation time based on the signal sensed from the electrode; and means for presenting, by the processing unit, to a user, an indication of a degree of dyssynchrony of the torso-surface activation times via a display; wherein receiving the torso-surface potential signals and calculating the torso-surface activation times comprises receiving first torso-surface potential signals and calculating first torso-surface activation times a first time during intrinsic conduction of a heart of the patient and receiving second torso-surface potential signals and calculating second torso-surface activation times a second time during CRT pacing of the heart, and wherein presenting the indication of the degree of dyssynchrony comprises presenting an indication of a change in dyssynchrony from the intrinsic conduction to the CRT pacing of the heart.
An electronic device comprising: a display including a display flat portion and a display curved portion , the display including: an external protective layer , and a panel module layer disposed under the external protective layer; a frame on which the display is disposed, the frame including: a first portion including: a first surface which is curved and corresponds to the display curved portion, a second surface formed adjacent to the first surface and facing a part of the display, and a groove formed within the first surface; and a second portion extended from the first portion and supporting the display flat portion; and an adhesive tape which is disposed inside the groove between the frame and the display. a display including a display flat portion and a display curved portion , the display including: an external protective layer , and a panel module layer disposed under the external protective layer; an external protective layer , and a panel module layer disposed under the external protective layer; a frame on which the display is disposed, the frame including: a first portion including: a first surface which is curved and corresponds to the display curved portion, a second surface formed adjacent to the first surface and facing a part of the display, and a groove formed within the first surface; and a first surface which is curved and corresponds to the display curved portion, a second surface formed adjacent to the first surface and facing a part of the display, and a groove formed within the first surface; and a second portion extended from the first portion and supporting the display flat portion; and an adhesive tape which is disposed inside the groove between the frame and the display.
An exhaust system comprising a catalyst article and a close coupled catalyzed soot filter (CSF) or an SCR on filter (SCRF), wherein the catalyst article comprises an SCR catalyst and a NO x adsorber catalyst, wherein: (a) the SCR catalyst comprises a metal-containing molecular sieve where the metal is copper; (b) the NO x adsorber catalyst comprises a metal-containing molecular sieve, wherein the metal is selected from the group consisting of cerium, chromium, cobalt, copper, iron, lanthanum, manganese, molybdenum, nickel, niobium, palladium, tungsten, silver, vanadium, and zinc, and mixtures thereof, and where the CSF or SCRF is positioned downstream of the catalyst article. (a) the SCR catalyst comprises a metal-containing molecular sieve where the metal is copper; (b) the NO x adsorber catalyst comprises a metal-containing molecular sieve, wherein the metal is selected from the group consisting of cerium, chromium, cobalt, copper, iron, lanthanum, manganese, molybdenum, nickel, niobium, palladium, tungsten, silver, vanadium, and zinc, and mixtures thereof, and where the CSF or SCRF is positioned downstream of the catalyst article.
A method implemented by a first radio node for determining a rate at which units of data are received erroneously from one or more second radio nodes, the method comprising: inspecting data units received from the one or more second radio nodes for errors; making successive determinations of the rate at which data units are received erroneously from the one or more second radio nodes, wherein each determination must be made based on inspecting at least a minimum number of received data units for errors; adapting the minimum number of data units that must be inspected across determinations of different rates, such that determinations of different rates must be respectively made based on inspecting different minimum numbers of received data units for errors; determining the minimum number of received data units that must be inspected as a basis for making a determination that data units are received erroneously at a particular rate, as a function of at least a first parameter K, wherein determining said minimum number of received data units comprises calculating a second parameter as being the first parameter divided by said particular rate, and calculating the minimum number of received data units as being the smallest integer number not less than the second parameter; and performing radio operational tasks using one or more of error rate determinations, wherein said radio operational tasks include adapting one or more parameters that govern reception of data units by the first radio node and/or that govern transmission of data units by the second radio node. inspecting data units received from the one or more second radio nodes for errors; making successive determinations of the rate at which data units are received erroneously from the one or more second radio nodes, wherein each determination must be made based on inspecting at least a minimum number of received data units for errors; adapting the minimum number of data units that must be inspected across determinations of different rates, such that determinations of different rates must be respectively made based on inspecting different minimum numbers of received data units for errors; determining the minimum number of received data units that must be inspected as a basis for making a determination that data units are received erroneously at a particular rate, as a function of at least a first parameter K, wherein determining said minimum number of received data units comprises calculating a second parameter as being the first parameter divided by said particular rate, and calculating the minimum number of received data units as being the smallest integer number not less than the second parameter; and performing radio operational tasks using one or more of error rate determinations, wherein said radio operational tasks include adapting one or more parameters that govern reception of data units by the first radio node and/or that govern transmission of data units by the second radio node.
A service pit to be installed on a foundation and comprising a plurality of modules , which have a metal support frame, e.g. of steel, and have at least two longitudinal side walls and a bottom , where at least the side walls exhibiting an inner wall and an outer wall are arranged at a distance from each other, said side walls, bottom and foundation bounding a space , comprising a plurality of rib members being arranged transversally in the space to securely attach said inner and outer walls and bottom by means of said rib members , wherein the rib members extend essentially perpendicular to the plane of the side walls and the rib members extend substantially over the whole hollow space and have the form of an U, characterized in that said rib members are in the form of rib plates made of metal plate material having a thickness of 2-6 mm and a transversal width (T) spanning the major portion of the space between the inner and outer walls that is about 80 - 120 mm wherein the upper edges in the bottom part of said rib plates are provided at an obtuse angle (β) relative to vertical.
An isolated antibody or an epitope binding fragment thereof specific to the transient receptor potential melastatin 4 (TRPM4) protein, wherein the antibody specifically binds to a peptide sequence which lies between S5 and the P-loop of the TRPM4 protein and inhibits TRPM4 currents and wherein the antibody or epitope binding fragment thereof is raised using a TRPM4 peptide selected from the group comprising a peptide consisting of the amino acid sequence SEQ ID NO: 1, a peptide consisting of the amino acid sequence SEQ ID NO: 2 and a peptide consisting of the amino acid sequence SEQ ID NO: 3.
A seal ring comprising: a body having an inner surface , an outer surface , and a first side surface and a tab extending from the body and adapted to prevent rotation of the seal ring relative to a component receiving the tab , wherein the tab extends radially inward beyond the inner surface and axially beyond the first side surface , characterized in that the seal ring comprises: a relief portion adapted to accommodate a tab of an adjacent seal ring such that the first side surface of the seal ring directly contacts a second side surface of the adjacent seal ring, wherein the tab is disposed at a first circumferential position on the body , wherein the relief portion is disposed at second circumferential position on the body , and wherein the first and second circumferential positions are axially adjacent one another. a body having an inner surface , an outer surface , and a first side surface and a tab extending from the body and adapted to prevent rotation of the seal ring relative to a component receiving the tab , wherein the tab extends radially inward beyond the inner surface and axially beyond the first side surface , characterized in that the seal ring comprises: a relief portion adapted to accommodate a tab of an adjacent seal ring such that the first side surface of the seal ring directly contacts a second side surface of the adjacent seal ring, wherein the tab is disposed at a first circumferential position on the body , wherein the relief portion is disposed at second circumferential position on the body , and wherein the first and second circumferential positions are axially adjacent one another. a relief portion adapted to accommodate a tab of an adjacent seal ring such that the first side surface of the seal ring directly contacts a second side surface of the adjacent seal ring, wherein the tab is disposed at a first circumferential position on the body , wherein the relief portion is disposed at second circumferential position on the body , and wherein the first and second circumferential positions are axially adjacent one another.