mhurhangee/patent-ind-claim-en huggingface dataset:
A transaction card , comprising: a first card component having a thickness of no more than 0.3 mm; a second card component having a thickness of no more than 0.3 mm; and an adhesive affixing the first card component and second card component together wherein the first card component comprises a first surface; and the second card component comprises a second surface and a wall defining a cavity, wherein the first card component is insertable into the cavity, the first surface forming a first exterior surface and the second surface forming a second exterior surface when the first card component is in the cavity; characterized in that : the first card component is formed of a metal, ceramic or a stone; and the second card component comprises a composite material that includes a combination of fibers combined with plastic or a combination of fibers combined with epoxy resin. a first card component having a thickness of no more than 0.3 mm; a second card component having a thickness of no more than 0.3 mm; and an adhesive affixing the first card component and second card component together wherein the first card component comprises a first surface; and the second card component comprises a second surface and a wall defining a cavity, wherein the first card component is insertable into the cavity, the first surface forming a first exterior surface and the second surface forming a second exterior surface when the first card component is in the cavity; characterized in that : the first card component is formed of a metal, ceramic or a stone; and the second card component comprises a composite material that includes a combination of fibers combined with plastic or a combination of fibers combined with epoxy resin. the first card component is formed of a metal, ceramic or a stone; and the second card component comprises a composite material that includes a combination of fibers combined with plastic or a combination of fibers combined with epoxy resin.
Method for starting an internal combustion engine by means of a compressed air starting system , in which in a first starting sequence an engagement of the starter is effected by means of compressed air, a decompression valve for relieving the cylinder working chamber is impinged in the opening direction and a turning-on of the internal combustion engine is initiated, in that the starter is applied with pulsed compressed air, and in which, in a second starting sequence, the decompression valve is impinged in the closing direction and the starter is applied with constant compressed air, wherein a compressed air path for engaging the starter is defined by a system controller via an engagement valve and a compressed air path for turning-on the starter in the first starting sequence and for rotating the starter in the second starting sequence is defined via a starting valve , characterised in that during the first starting sequence the starting valve is controlled as a function of a setpoint engine speed (nSL) via a PWM signal.
Aid device for installing and/or removing a guide ring segment , which is to be attached or mounted on a carrier , especially on a stator blade carrier of a gas turbine, in grooves which are formed on said carrier, and which has hooks , with a base body , on which provision is made for a locking unit for detachably fastening the base body on the guide ring segment , and with a holding device , which is detachably fastened or can be detachably fastened on the base body and on which a pulling means is detachably fastened or can be detachably fastened, wherein the holding device is designed for transmitting a pulling force to the base body which acts via the pulling means in an installation direction or extraction direction (X) of the guide ring segment , and wherein the locking unit is arranged on a front end face of the base body , as seen in the installation direction or extraction direction (X), and has two jaws which can move back and forth between an inner position and an outer position, characterized in that the jaws have recesses on their outer sides pointing away from each other in order to engage in an outer position with hooks which are formed on the guide ring segment .
An oil-in-water emulsified food composition comprising: • Water, • Vegetable oil, in an amount of from 65 to 80 wt%, based on the weight of the food composition. • Plant protein, • 0.2 to 2 wt% of bran of mustard seed, wherein the composition is free from egg-derived ingredients, and wherein the composition has a pH of from 2 to 5. • Water, • Vegetable oil, in an amount of from 65 to 80 wt%, based on the weight of the food composition. • Plant protein, • 0.2 to 2 wt% of bran of mustard seed,
A solid state light-emitting device comprising: a first electrode coupled to a first charge injecting layer ; a second electrode coupled to a second charge injecting layer ; and an emissive layer comprising an organometal halide perovskite material or a metal halide perovskite material, wherein the emissive layer is provided between the first and second charge injecting layers; wherein the bandgaps of the first and second charge injecting layers are larger than the bandgap of the emissive layer wherein said organometal halide perovskite material or metal halide perovskite material contains an AMX 3 unit cell, where A is a monovalent organic cation or a monovalent metal cation, M is a divalent cation and X is a halide anion, wherein one of the charge injecting layers (16, 30, 44; 20, 34, 50) forms a type-l heterojunction with the emissive layer a first electrode coupled to a first charge injecting layer ; a second electrode coupled to a second charge injecting layer ; and an emissive layer comprising an organometal halide perovskite material or a metal halide perovskite material, wherein the emissive layer is provided between the first and second charge injecting layers; wherein the bandgaps of the first and second charge injecting layers are larger than the bandgap of the emissive layer wherein said organometal halide perovskite material or metal halide perovskite material contains an AMX 3 unit cell, where A is a monovalent organic cation or a monovalent metal cation, M is a divalent cation and X is a halide anion, wherein one of the charge injecting layers (16, 30, 44; 20, 34, 50) forms a type-l heterojunction with the emissive layer
A dip molding composition comprising, at least: an elastomer that contains a (meth)acrylonitrile-derived structural unit, an unsaturated carboxylic acid-derived structural unit, and a butadiene-derived structural unit in a polymer main chain; an epoxy crosslinking agent; water; and a pH modifier, wherein the elastomer contains the (meth)acrylonitrile-derived structural unit in an amount of 20 to 40% by weight, the unsaturated carboxylic acid-derived structural unit in an amount of 1 to 10% by weight, and the butadiene-derived structural unit in an amount of 50 to 75% by weight, and the epoxy crosslinking agent comprises an epoxy crosslinking agent containing an epoxy compound having three or more epoxy groups in one molecule and has a dissolution rate in water of 10 to 70% as determined by the following measurement method: Method of measuring the dissolution rate in water: 25.0 g of the epoxy crosslinking agent is precisely weighed in a beaker, 225 g of water (25°C) is added thereto, and the resultant is vigorously stirred and mixed at room temperature (23°C ± 2°C) for 15 minutes, after which the resulting mixture is left to stand for 1 hour, and the volume (mL) of an oily matter precipitated on the bottom of the beaker is subsequently measured to calculate the dissolution rate in water using the following equation: Dissolution rate in water % = ( 25.0 − Volume of oily matter mL × Density of epoxy crosslinking agent g / mL / 25.0 × 100 ; and wherein the dip molding composition further comprises zinc oxide and/or an aluminum complex as a metal crosslinking agent(s). an elastomer that contains a (meth)acrylonitrile-derived structural unit, an unsaturated carboxylic acid-derived structural unit, and a butadiene-derived structural unit in a polymer main chain; an epoxy crosslinking agent; water; and a pH modifier, wherein the elastomer contains the (meth)acrylonitrile-derived structural unit in an amount of 20 to 40% by weight, the unsaturated carboxylic acid-derived structural unit in an amount of 1 to 10% by weight, and the butadiene-derived structural unit in an amount of 50 to 75% by weight, and the epoxy crosslinking agent comprises an epoxy crosslinking agent containing an epoxy compound having three or more epoxy groups in one molecule and has a dissolution rate in water of 10 to 70% as determined by the following measurement method: Method of measuring the dissolution rate in water: 25.0 g of the epoxy crosslinking agent is precisely weighed in a beaker, 225 g of water (25°C) is added thereto, and the resultant is vigorously stirred and mixed at room temperature (23°C ± 2°C) for 15 minutes, after which the resulting mixture is left to stand for 1 hour, and the volume (mL) of an oily matter precipitated on the bottom of the beaker is subsequently measured to calculate the dissolution rate in water using the following equation: Dissolution rate in water % = ( 25.0 − Volume of oily matter mL × Density of epoxy crosslinking agent g / mL / 25.0 × 100 ; and wherein the dip molding composition further comprises zinc oxide and/or an aluminum complex as a metal crosslinking agent(s).
An ophthalmic depot preparation, consisting of: a drug, benzyl benzoate and/or benzyl alcohol, polyethylene glycol and/or dimethylsulfoxide, and optionally at least one additive selected from antioxidants; wherein the volume ratio of benzyl benzoate and/or benzyl alcohol to polyethylene glycol and/or dimethylsulfoxide in the ophthalmic depot preparation is 75:25 to 25:75, and the total amount of benzyl benzoate and/or benzyl alcohol and polyethylene glycol and/or dimethylsulfoxide contained is 50%(w/w) or more. a drug, benzyl benzoate and/or benzyl alcohol, polyethylene glycol and/or dimethylsulfoxide, and optionally at least one additive selected from antioxidants; wherein the volume ratio of benzyl benzoate and/or benzyl alcohol to polyethylene glycol and/or dimethylsulfoxide in the ophthalmic depot preparation is 75:25 to 25:75, and the total amount of benzyl benzoate and/or benzyl alcohol and polyethylene glycol and/or dimethylsulfoxide contained is 50%(w/w) or more.
Residential gateway intended to be connected to a local area network , the residential gateway having a memory space intended to be made available to at least one device (111; 112) connected to the local area network, characterised in that , said memory space comprising at least one private memory space , the residential gateway comprises: - a table managing rights of access to said private memory space or spaces; - means for receiving commands for access to said memory space and administrator commands for updating said access rights management table; - means for updating said access rights management table, on receipt of an administrator command coming from a predetermined device implementing an administrator module, and for ignoring any administrator command coming from a device not implementing said administrator module; - means for ignoring any command for access to said private memory space or spaces, when said command is received from a device not identified in said access rights management table. - a table managing rights of access to said private memory space or spaces; - means for receiving commands for access to said memory space and administrator commands for updating said access rights management table; - means for updating said access rights management table, on receipt of an administrator command coming from a predetermined device implementing an administrator module, and for ignoring any administrator command coming from a device not implementing said administrator module; - means for ignoring any command for access to said private memory space or spaces, when said command is received from a device not identified in said access rights management table.
A channel access method, comprising: performing , by a network element, random backoff listen before talk, LBT, at a high unlicensed frequency band for channel preemption, and after the preemption succeeds, performing, signal transmission at the high unlicensed frequency band in a first transmission time interval, TTI, within a maximum channel occupancy time, MCOT; and performing , by the network element before another at least one TTI within the MCOT, nonrandom backoff LBT at the high unlicensed frequency band for channel preemption, wherein the high unlicensed frequency band is a frequency band above 6 GHz. performing , by a network element, random backoff listen before talk, LBT, at a high unlicensed frequency band for channel preemption, and after the preemption succeeds, performing, signal transmission at the high unlicensed frequency band in a first transmission time interval, TTI, within a maximum channel occupancy time, MCOT; and performing , by the network element before another at least one TTI within the MCOT, nonrandom backoff LBT at the high unlicensed frequency band for channel preemption, wherein the high unlicensed frequency band is a frequency band above 6 GHz.
An operating method of a user terminal in a wireless communication system supporting carrier aggregation, CA, the operating method comprising: receiving indication information regarding a phase tracking reference signal, PTRS, component carrier, CC, group from a base station ; receiving first through N-th PTRSs from the base station using N CCs included in the PTRS CC group, where N is a natural number of at least two; determining whether a phase noise characteristic of the user terminal is the same with respect to the N CCs based at least in part on the indication information; and performing cooperative phase noise compensation based on the first through N-th PTRSs when it is determined that the phase noise characteristic of the user terminal is the same, wherein the performing of the cooperative phase noise compensation includes: estimating common phase noise based on the first through N-th PTRSs; extracting common compensation information for compensating for the common phase noise; and compensating for a phase noise of a signal using the common compensation information, the signal being based on at least one of the N CCs. receiving indication information regarding a phase tracking reference signal, PTRS, component carrier, CC, group from a base station ; receiving first through N-th PTRSs from the base station using N CCs included in the PTRS CC group, where N is a natural number of at least two; determining whether a phase noise characteristic of the user terminal is the same with respect to the N CCs based at least in part on the indication information; and performing cooperative phase noise compensation based on the first through N-th PTRSs when it is determined that the phase noise characteristic of the user terminal is the same, wherein the performing of the cooperative phase noise compensation includes: estimating common phase noise based on the first through N-th PTRSs; extracting common compensation information for compensating for the common phase noise; and compensating for a phase noise of a signal using the common compensation information, the signal being based on at least one of the N CCs. estimating common phase noise based on the first through N-th PTRSs; extracting common compensation information for compensating for the common phase noise; and compensating for a phase noise of a signal using the common compensation information, the signal being based on at least one of the N CCs.
A method performed by a network node for enabling communication between the network node and a wireless device via a radio access node in a communication network , which network node supports a first set of functionalities out of a total set of functionalities in a core network of the communication network, which first set of functionalities belongs to a first network slice of the core network, and is separated from another set of functionalities out of the total set of functionalities in the core network by being different functionalities; the method comprising - initiating a transmission of an indication, during a connection setup for the wireless device , to the radio access node , which indication indicates the supported first set of functionalities. - initiating a transmission of an indication, during a connection setup for the wireless device , to the radio access node , which indication indicates the supported first set of functionalities.
An automatic parking method, comprising: identifying that a vehicle is located in a predetermined area , the predetermined area being defined by a plurality of limiting signs ; recording videos of surroundings around the vehicle in real time using video capture apparatuses mounted on two sides of the vehicle; locating a first limiting sign in the videos using a colour space; obtaining, by means of morphological detection, a real-time position of the vehicle from features of the first limiting sign; and guiding the vehicle to a target area according to the real-time position of the vehicle, wherein the step of obtaining, by means of morphological detection, the real-time position of the vehicle from the features of the first limiting sign comprises: determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area . identifying that a vehicle is located in a predetermined area , the predetermined area being defined by a plurality of limiting signs ; recording videos of surroundings around the vehicle in real time using video capture apparatuses mounted on two sides of the vehicle; locating a first limiting sign in the videos using a colour space; obtaining, by means of morphological detection, a real-time position of the vehicle from features of the first limiting sign; and guiding the vehicle to a target area according to the real-time position of the vehicle, wherein the step of obtaining, by means of morphological detection, the real-time position of the vehicle from the features of the first limiting sign comprises: determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area . determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area .
A computer-implemented method for remote photoplethysmography facilitating obtaining a final signal (42;50a-n;76) for analysis to characterize a periodic component thereof, the periodic component corresponding to a biological phenomenon in a living being, including: tracking a region of interest in a sequence of image frames representative of intensities of captured electromagnetic radiation, each corresponding to a respective different radiation frequency range over a series of points in time, the region of interest being selected to correspond to a part of the images representing exposed skin of the living being, obtaining input signals (18-20;55-57) from the tracked region of interest, deriving an output signal (31; 72) from at least one of the input signals (18-20;55-57) by applying a transformation (22,26,30;59,63,67,71) to the at least one of the input signals (18-20;55-57) such that any value of the output signal (31;72) is based on values from each respective input signal (18-20;55-57) at corresponding points in time, the final signal (42;50a-n;76) being derivable from the output signal (31;72); wherein the transformation includes analyzing the input signal and, for each input signal, calculating a time-varying factor based on values of the input signal over a part of the series of points in time and, at for each point in time in that part of the series of points in time, normalising the input signal by using the time-varying factor. tracking a region of interest in a sequence of image frames representative of intensities of captured electromagnetic radiation, each corresponding to a respective different radiation frequency range over a series of points in time, the region of interest being selected to correspond to a part of the images representing exposed skin of the living being, obtaining input signals (18-20;55-57) from the tracked region of interest, deriving an output signal (31; 72) from at least one of the input signals (18-20;55-57) by applying a transformation (22,26,30;59,63,67,71) to the at least one of the input signals (18-20;55-57) such that any value of the output signal (31;72) is based on values from each respective input signal (18-20;55-57) at corresponding points in time, the final signal (42;50a-n;76) being derivable from the output signal (31;72); wherein the transformation includes analyzing the input signal and, for each input signal, calculating a time-varying factor based on values of the input signal over a part of the series of points in time and, at for each point in time in that part of the series of points in time, normalising the input signal by using the time-varying factor.
Method of protecting a particulate filter in an exhaust line of an internal combustion engine , in particular of a motor vehicle, comprising a selective catalytic reduction system and an exhaust filter particles , characterized in that said method comprises: - a step of estimating a mass flow rate of soot burnt in said particle filter during regeneration of said particle filter , - a step of comparing said estimated mass flow of soot burnt with a predetermined mass flow threshold, and - in the case where said estimated mass flow of soot burnt becomes greater than said predetermined mass flow threshold, said method comprises a step for injecting pollution control liquid into said exhaust line upstream of said particulate filter . - a step of estimating a mass flow rate of soot burnt in said particle filter during regeneration of said particle filter , - a step of comparing said estimated mass flow of soot burnt with a predetermined mass flow threshold, and - in the case where said estimated mass flow of soot burnt becomes greater than said predetermined mass flow threshold, said method comprises a step for injecting pollution control liquid into said exhaust line upstream of said particulate filter .