mhurhangee/ep-ind-claims 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 method for performing wireless communication by a first device, the method comprising: receiving information related to an allocation of a first resource from a base station, based on mode 1 resource allocation; transmitting sidelink information to a second device through the first resource based on the information related to the allocation of the first resource; selecting a second resource for sidelink communication with the second device, based on mode 2 resource allocation, based on a latency budget related with transmission of the sidelink information being less than a sum of a delay time related to scheduling of the base station and a processing delay time related to transmission of the sidelink information; and transmitting the sidelink information to the second device through the selected second resource. receiving information related to an allocation of a first resource from a base station, based on mode 1 resource allocation; transmitting sidelink information to a second device through the first resource based on the information related to the allocation of the first resource; selecting a second resource for sidelink communication with the second device, based on mode 2 resource allocation, based on a latency budget related with transmission of the sidelink information being less than a sum of a delay time related to scheduling of the base station and a processing delay time related to transmission of the sidelink information; and transmitting the sidelink information to the second device through the selected second resource.
A furnishing structure modularly and unlimitedly composable in different and variable forms for different purposes, composed of a plurality of basic rectangular frame modules with radiused or chamfered corners, the four sides of which have uniform cross section and thickness and front and rear surfaces flat and parallel to each other and to the plane of the rectangular frame and at least two uniformly spaced holes on each side of the frame with parallel axes orthogonal to the plane of the frame modules; rectilinear spacing listels of cross section and thickness identical to the cross section and thickness of the four sides of said rectangular frame modules and having front and rear surfaces flat and parallel to each other and to said plane of the rectangular frame modules against which said front and rear surfaces of two frame modules abut when a listel is interposed between sides of two rectangular frame modules, said spacing listels having at least two holes with axes orthogonal to said front and rear surfaces of the listel and coordinately alignable with holes present along any side of the rectangular frame modules; fastening means of length corresponding to the product of the thickness of the frame modules and of the listels by the total number of frames and of any spacing listel interposed between frame modules to be fastened, introduced in aligned holes of two or more basic frame modules and of any spacing listel eventually interposed between two frame modules.
Visual test method comprising a step of arranging an optical lens in a slot of a support and the following steps according to which a control module: - displays one test symbol or a plurality of test symbols on a reading screen and on a selection screen and further displays one validation symbol at least on the selection screen; - receives a selection of one test symbol or of the validation symbol on the selection screen; the method characterized in that: - when (Q10, Q13) the control module receives a selection of one test symbol, the control module selects said test symbol by modifying at least one appearance characteristic of said test symbol in such a way that it changes from an initial appearance to a modified appearance which differentiates it from non-selected test symbols; - when (Q11, Q12) a first predetermined time has elapsed since the last selection of one test symbol or since the display of the test symbol or the plurality of test symbols, the control module modifies at least one appearance characteristic of the validation symbol; - the control module ends the visual test method as soon as a predetermined number of test symbols has been selected. - displays one test symbol or a plurality of test symbols on a reading screen and on a selection screen and further displays one validation symbol at least on the selection screen; - receives a selection of one test symbol or of the validation symbol on the selection screen; - when (Q10, Q13) the control module receives a selection of one test symbol, the control module selects said test symbol by modifying at least one appearance characteristic of said test symbol in such a way that it changes from an initial appearance to a modified appearance which differentiates it from non-selected test symbols; - when (Q11, Q12) a first predetermined time has elapsed since the last selection of one test symbol or since the display of the test symbol or the plurality of test symbols, the control module modifies at least one appearance characteristic of the validation symbol; - the control module ends the visual test method as soon as a predetermined number of test symbols has been selected.
A process to produce a laminate comprising: coating at least an outer surface of a dynamically vulcanized alloy film with an adhesive composition to produce the laminate, wherein the adhesive layer has a thickness of less than or equal to 10 microns, wherein the dynamically vulcanized alloy film comprises a thermoplastic elastomer composition containing a thermoplastic resin as a continuous phase, and a rubber composition dispersed therein, as a dispersed phase, and wherein the adhesive composition comprises a polyethyleneimine or a functionalized amino-functional polymer which is a condensation product of a reaction between an amino-functional polymer comprising reactive amine hydrogens with a functionalizing agent selected from the group consisting of a halo-functional monomer, a halo-functional oligomer, a carbonyl-functional monomer, a carbonyl-functional oligomer, an epoxy-functional monomer, an epoxy-functional oligomer, a poly-functional acrylic monomer, a poly-functional acrylic oligomer, a poly-functional methacrylic monomer, a poly-functional methacrylic oligomer, and combinations thereof. coating at least an outer surface of a dynamically vulcanized alloy film with an adhesive composition to produce the laminate, wherein the adhesive layer has a thickness of less than or equal to 10 microns, wherein the dynamically vulcanized alloy film comprises a thermoplastic elastomer composition containing a thermoplastic resin as a continuous phase, and a rubber composition dispersed therein, as a dispersed phase, and wherein the adhesive composition comprises a polyethyleneimine or a functionalized amino-functional polymer which is a condensation product of a reaction between an amino-functional polymer comprising reactive amine hydrogens with a functionalizing agent selected from the group consisting of a halo-functional monomer, a halo-functional oligomer, a carbonyl-functional monomer, a carbonyl-functional oligomer, an epoxy-functional monomer, an epoxy-functional oligomer, a poly-functional acrylic monomer, a poly-functional acrylic oligomer, a poly-functional methacrylic monomer, a poly-functional methacrylic oligomer, and combinations thereof.
A computerized method for performing a driver assistance function using a computerized system mounted on a moving vehicle, the computerized system including a processor and a camera, wherein under control of the processor the camera is configured for capturing in real time image frames of the environment in the field of view of the camera, the method comprising: assigning different camera parameters to different image frames by for a first portion of image frames, controlling a camera parameter based on ambient lighting conditions in the environment in the field of view of the camera; based on the camera parameter of the first portion of image frames, setting a camera parameter of a second portion of image frames; capturing the image frames; and transferring the image frames to the image processor for processing of the driver assistance function; wherein the driver assistance function includes detection and recognition of traffic signs; the camera parameters are gain and/or exposure time; and the exposure time of the second portion of image frames is shorter than the exposure time of the first portion of image frames. assigning different camera parameters to different image frames by for a first portion of image frames, controlling a camera parameter based on ambient lighting conditions in the environment in the field of view of the camera; based on the camera parameter of the first portion of image frames, setting a camera parameter of a second portion of image frames; capturing the image frames; and transferring the image frames to the image processor for processing of the driver assistance function; wherein the driver assistance function includes detection and recognition of traffic signs; the camera parameters are gain and/or exposure time; and the exposure time of the second portion of image frames is shorter than the exposure time of the first portion of image frames.
Signalling device for a vehicle suitable to be driven by a driver during a manual driving phase and comprising an assistance device suitable to drive it in a totally autonomous manner during an autonomous driving phase, signalling means (MSj) suitable to be installed on at least two lateral parts (PLk) of said vehicle and to generate a first light of a first chosen color, visible from outside said vehicle, in the event of receiving a first command, and control means capable of generating said first command for said signalling means (MSj) when said vehicle is in a phase of autonomous driving, characterized in that said control means are adapted to generate said first command when said driver is absent from said vehicle, and to generate a second command for said signalling means (MSj) when said vehicle is in a phase of autonomous driving and said driver is present in said vehicle, or to generate said first command when said driver is present in said vehicle, and to generate a second command for said signalling means (MSj) when said vehicle is in an autonomous driving phase and said driver is absent from said vehicle, and in that said signalling means (MSj) are adapted to generate a second light of a second chosen color, visible from outside said vehicle, in the event of reception of said second command.
A mutant glucose oxidase comprising an amino acid sequence in which the amino acid residue corresponding to isoleucine at position 489 or arginine at position 335 in the amino acid sequence of SEQ ID NO: 1 is substituted with an amino acid residue having a reactive functional group in the side chain, wherein said mutant glucose oxidase has an amino acid sequence with a sequence identity of not less than 90% to the amino acid sequence of any one of SEQ ID NOs: 1 to 8.
A method of gas detection comprising: emitting radiation of different wavelengths across the absorption spectrum of a gas towards a target area; and analysing the spectrum of returned laser light from the target area to identify the gas in the target area using the time correlation of the emitted radiation and the returning radiation; wherein the radiation is modulated using respective modulation codes for the different wavelengths and the modulation codes are modified by the insertion of a gap between each bit of the modulation code, the gap having a duration of at least n-1 bits where n is the number of different wavelengths. emitting radiation of different wavelengths across the absorption spectrum of a gas towards a target area; and analysing the spectrum of returned laser light from the target area to identify the gas in the target area using the time correlation of the emitted radiation and the returning radiation; wherein the radiation is modulated using respective modulation codes for the different wavelengths and the modulation codes are modified by the insertion of a gap between each bit of the modulation code, the gap having a duration of at least n-1 bits where n is the number of different wavelengths.
A passenger cabin emergency oxygen device for an aircraft, comprising: - at least one electrically driven activation device for activating the emergency oxygen device; - at least one energy storage device for storing electrical energy and supplying said electrical energy to the at least one activation device; - at least one controller adapted for receiving a signal to activate the emergency oxygen device, - a source of electrical energy, wherein said source of electrical energy and said energy storage device are coupled together for substantially constant energy transmission from the source of electrical energy to the energy storage device at a first energy level, wherein said activation device and said controller are coupled together for signal transemission from the controller to the activation device, wherein said activation device and said energy storage device are coupled together for energy transmission from the energy storage device to the activation device at a second energy level which is higher than the first energy level, wherein said activation device, said energy storage device and said controller build one single unit adapted to be inserted into a roof element of an aircraft cabin interior, wherein said controller is adapted to receive said signal via a signal-wire from a sender, characterized in that said source of electrical energy and said energy storage device are coupled together by means of said signal-wire for an energy transmission at said first energy level. - at least one electrically driven activation device for activating the emergency oxygen device; - at least one energy storage device for storing electrical energy and supplying said electrical energy to the at least one activation device; - at least one controller adapted for receiving a signal to activate the emergency oxygen device, - a source of electrical energy,
A method for a wireless communication device comprising: receiving one or more wireless signals at the wireless communication device; determining one or more attributes of an operating environment for the wireless communication device based at least in part on said one or more wireless signals; characterised by detecting, at the wireless communication device, one or more of a frequent calls mode of operation, a dual subscription mode of operation, and/or an emergency alert mode of operation based at least in part on said one or more determined attributes of the operating environment; and adjusting one or more quality of service, QoS, parameters of the wireless communication device at least in part in response to said detecting said one or more modes of operation. receiving one or more wireless signals at the wireless communication device; determining one or more attributes of an operating environment for the wireless communication device based at least in part on said one or more wireless signals; characterised by detecting, at the wireless communication device, one or more of a frequent calls mode of operation, a dual subscription mode of operation, and/or an emergency alert mode of operation based at least in part on said one or more determined attributes of the operating environment; and adjusting one or more quality of service, QoS, parameters of the wireless communication device at least in part in response to said detecting said one or more modes of operation.
Compositions comprise one or more sources of metal ions chosen from copper salts, tin salts, zinc salts, silver salts, nickel salts, lead salts, barium salts, manganese salts, iron salts and palladium salts, one or more acids and one or more compounds having formulae: wherein R 1, R 2 and R 3 are independently hydrogen, halide, nitro, hydroxyl, cyano, substituted or unsubstituted, linear, branched or cyclic hydrocarbyl, substituted or unsubstituted, linear or branched alkoxyl, carboxyl, ester, mercapto, alkylthio, thioester, amino, amide, boryl or silyl; R 2 and R 3 may be taken together with all of their atoms to form a five membered heterocyclic ring wherein the heterocyclic ring includes two nitrogen atoms as the hetero-atoms; and R 1 can have the following structure: wherein R 4 and R 5 are independently hydrogen, halide, nitro, hydroxyl, cyano, substituted or unsubstituted, linear, branched or cyclic hydrocarbyl, substituted or unsubstituted, linear or branched alkoxyl, carboxyl, ester, mercapto, alkylthio, thioester, amino, amide, boryl or silyl; R 4 and R 5 may be taken together with all of their atoms to form a five membered heterocyclic ring wherein the heterocyclic ring includes two nitrogen atoms as the hetero-atoms.
A pack comprising: a lid portion; a body portion; a collar portion (20C, 40, 50) located at least partially within the body portion and against which at least a portion of the lid abuts when closed; first, second and third panels (8A, 9A, 8B, 9B, 6A, 6B), wherein the first and second panels (8A, 9A, 8B, 9B) form at least part of a first wall (8, 9) of the pack and the third panel (6A, 6B) forms at least part of a second wall of the pack, and wherein the first, second and third panels (8A, 9A, 8B, 9B, 6A, 6B) have respective first, second and third edges (13A, 15A, 13B, 15B, 13C, 15C) and the first and second edges (13A, 15A, 13B, 15B) extend alongside and/or abut the third edge (13C, 15C); and, a sealing member (13, 15) extending between the first, second and third edges (13A, 15A, 13B, 15B, 13C, 15C) of the pack, wherein the body portion and lid portion provide an airtight seal until the lid portion is first opened. a lid portion; a body portion; a collar portion (20C, 40, 50) located at least partially within the body portion and against which at least a portion of the lid abuts when closed; first, second and third panels (8A, 9A, 8B, 9B, 6A, 6B), wherein the first and second panels (8A, 9A, 8B, 9B) form at least part of a first wall (8, 9) of the pack and the third panel (6A, 6B) forms at least part of a second wall of the pack, and wherein the first, second and third panels (8A, 9A, 8B, 9B, 6A, 6B) have respective first, second and third edges (13A, 15A, 13B, 15B, 13C, 15C) and the first and second edges (13A, 15A, 13B, 15B) extend alongside and/or abut the third edge (13C, 15C); and, a sealing member (13, 15) extending between the first, second and third edges (13A, 15A, 13B, 15B, 13C, 15C) of the pack, wherein the body portion and lid portion provide an airtight seal until the lid portion is first opened.
A method for manufacturing an elastic composite material with a textile surface, wherein a laminate is manufactured which comprises elastic top layers (2, 2') and a core from a nonwoven, and wherein, by subsequently tearing the core open, the laminate is separated into two strips (4, 4') which each comprise a top layer (2, 2') and an adhering layer from a nonwoven.
A dental cement comprising: a first agent including an organic peroxide and a (meth)acrylate; and a second agent including a thiourea derivative, an ascorbate, a vanadium compound, and a (meth)acrylate; wherein the first agent and the second agent each have a water content that is less than or equal to 1 mass%, wherein a content of the organic peroxide in the first agent is 0.01 mass% to 5 mass%, a content of the thiourea derivative in the second agent is 0.1 mass% to 0.5 mass%, a content of the ascorbate in the second agent is 0.1 mass% to 0.8 mass%, and a content of the vanadium compound in the second agent is 0.01 mass% to 0.03 mass%, and wherein the thiourea derivative is ethylene thiourea, diethyl thiourea, tetramethyl thiourea, N-acetylthiourea, N-benzoylthiourea, diphenyl thiourea, dicyclohexyl thiourea, or a combination of two or more of the above species. a first agent including an organic peroxide and a (meth)acrylate; and a second agent including a thiourea derivative, an ascorbate, a vanadium compound, and a (meth)acrylate; wherein the first agent and the second agent each have a water content that is less than or equal to 1 mass%, wherein a content of the organic peroxide in the first agent is 0.01 mass% to 5 mass%, a content of the thiourea derivative in the second agent is 0.1 mass% to 0.5 mass%, a content of the ascorbate in the second agent is 0.1 mass% to 0.8 mass%, and a content of the vanadium compound in the second agent is 0.01 mass% to 0.03 mass%, and wherein the thiourea derivative is ethylene thiourea, diethyl thiourea, tetramethyl thiourea, N-acetylthiourea, N-benzoylthiourea, diphenyl thiourea, dicyclohexyl thiourea, or a combination of two or more of the above species.