mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical connector assembly for an airbag ignition device, comprising a connector with a connector body having a first housing part and a second housing part with a connecting portion , wherein the housing parts are movable relative to each other along a housing axis (A), wherein an elastic member holds the housing parts together, wherein the second housing part has on its surface a projection with a first sliding surface extending diagonally to the housing axis, the electrical connector assembly further comprising a counter connector with a connector receiving portion formed to receive and electrically and mechanically connect the connecting portion of the connector, having a collar which partially confines the connector receiving portion, wherein the collar has a second sliding surface arranged complementary to the first sliding surface, when the connectors are aligned with a plugging axis (X), while the connectors are being connected to each other, the sliding surfaces cooperate with each other, whereby a plugging force (Fs) is applied to the connector in the plugging direction (Y) and thereby the first sliding surface slides on the second sliding surface , wherein the second housing part is moved away from the first housing part against a restoring force (Fr) of the elastic element along the housing axis, the second sliding surface terminates at a recess in the collar, in fully assembled condition the projection is located in an end plane (E) with the recess so that the elastic element pulls the projection into the recess and locks the connector body with the counter connector.
A hydrocarbon cracker system comprising one or more reactor tubes with an inner surface having a plurality of indentations disposed thereon, wherein the indentations do not project into the interior of the reactor tube, wherein the indentations have a depth of 0.2 mm to 1.0 mm, wherein the indentations are distributed uniformly along the length of the inner surface of the reactor tube, wherein the indentations are circular, oval, star-shaped, triangle, square, octagon, hexagon in shape or combinations thereof, and wherein the one or more reactor tubes are made of a nickel-base metal alloy.
Motor vehicle facade module comprising a support part comprising: - a first part comprising an upper cross-member with a first reinforcement ; - a second part made of plastic material comprising: • lateral uprights ; and • at least two portions configured for the assembly with the first part , characterized in that at least one of said at least two portions comprises a second reinforcement , and in that - the upper cross-member comprises at each of its lateral ends a orifice which passes through at least the first reinforcement ; - the at least one portion comprising said second reinforcement comprises an orifice which passes through said second reinforcement , which is configured to cooperate with the orifice in the upper cross-member in order to receive a fastening means making it possible to assemble these two parts . - a first part comprising an upper cross-member with a first reinforcement ; - a second part made of plastic material comprising: • lateral uprights ; and • at least two portions configured for the assembly with the first part , characterized in that at least one of said at least two portions comprises a second reinforcement , and in that • lateral uprights ; and • at least two portions configured for the assembly with the first part , - the upper cross-member comprises at each of its lateral ends a orifice which passes through at least the first reinforcement ; - the at least one portion comprising said second reinforcement comprises an orifice which passes through said second reinforcement , which is configured to cooperate with the orifice in the upper cross-member in order to receive a fastening means making it possible to assemble these two parts .
A door drive, comprising an electric assembly , and wherein the electric assembly comprises: - an injection moulded part made from plastic material, and - a metallic stamped part , - wherein the injection moulded part is formed as a housing for the door drive and/or a power supply unit, wherein the injection moulded part is adapted for receiving a cover , which includes post elements , which correspond to cutting/terminal contacts of the stamped part for producing a cutting/terminal connection, wherein - the stamped part is positively connected to the injection moulded part , in that the stamped part is incorporated in the injection-moulded part , - and areas of the stamped part protrude from the injection-moulded part for the purpose of electrical contacting, and - wherein the protruding areas of the stamped part are formed as cutting/terminal contacts and as plug-in contacts . - an injection moulded part made from plastic material, and - a metallic stamped part , - wherein the injection moulded part is formed as a housing for the door drive and/or a power supply unit, wherein the injection moulded part is adapted for receiving a cover , which includes post elements , which correspond to cutting/terminal contacts of the stamped part for producing a cutting/terminal connection, wherein - the stamped part is positively connected to the injection moulded part , in that the stamped part is incorporated in the injection-moulded part , - and areas of the stamped part protrude from the injection-moulded part for the purpose of electrical contacting, and - wherein the protruding areas of the stamped part are formed as cutting/terminal contacts and as plug-in contacts .
An inhalable pharmaceutical composition, comprising a polyethylene glycol (PEG)-modified interleukin 2 and a glucocorticoid, and optionally a pharmaceutically acceptable carrier and/or excipient, wherein the PEG is modified at the N-terminus of IL-2.
KIT for indirect ELISA test based on crude Native Hapten for confirmatory diagnosis of bovine brucellosis in blood serum and individual milk (per animal) and bulk milk (tank), characterized by ten microplates coated with crude Native Hapten, each plate containing 96 wells (distributed in 12 strips of 8 wells each strip) of flat and clear bottom, with a surface treated specially for a high capacity of adhesion of the antigen, with a maximum capacity of 360 microliters per well, it includes five microplates of 96 wells, without treatment, to perform the predilution of samples; four bottles of sixty milliliters each with PBS-Tween 20 Washing Solution, 0.05%, at (10 X) concentration; one bottle of fourty milliliters of Sample Diluent Solution, based on CABI (carbonate bicarbonate) Buffer at (10 X) concentration; one bottle of fifty milliliters of Conjugate Diluent, based on CABI (carbonate bicarbonate) buffer at concentration (1 X); one 50 milliliter bottle of Substrate, which is ABTS (commercial product); one vial of one milliliter consisting of 25 microliters of Concentrated Conjugate, which is an Immunoglobulin G - anti Bovine, conjugated with horseradish peroxidase produced in goat (commercial product) which is prediluted in a preservative HRP Protector, which is a peroxidases stabilizer; one bottle of fifty milliliters of Stop Solution, which is sodium Duodecyl Sulfate (SDS) at 4% concentration, one freeze dried positive blood serum vial, one freeze dried negative blood serum vial, and one freeze dried positive milk serum vial and one freeze dried milk serum vial, all control vials contain one milliliter of freezed dried serum for reconstitution in one milliliter of distilled water.
An information indication method, comprising: determining , by a terminal device, time domain requirement information of data transmission, wherein the time domain requirement information comprises at least one of time adjustment information, jitter time information, time domain resource information, latest sending time information, and remaining duration of the data transmission, the time adjustment information is used to indicate allocation of a resource for the data transmission, the jitter time information is used to indicate a time range in which the data is generated, the time domain resource information is used to indicate a sending time of the data, and the latest sending time information and/or the remaining duration is used to indicate a latest sending time of the data; and sending , by the terminal device, the time domain requirement information to a network device; wherein the time domain requirement information comprises the time adjustment information; and the method further comprises: receiving, by the terminal device, an acknowledgment message sent by the network device; and transmitting, by the terminal device, the data by using the resource indicated by the time adjustment information. determining , by a terminal device, time domain requirement information of data transmission, wherein the time domain requirement information comprises at least one of time adjustment information, jitter time information, time domain resource information, latest sending time information, and remaining duration of the data transmission, the time adjustment information is used to indicate allocation of a resource for the data transmission, the jitter time information is used to indicate a time range in which the data is generated, the time domain resource information is used to indicate a sending time of the data, and the latest sending time information and/or the remaining duration is used to indicate a latest sending time of the data; and sending , by the terminal device, the time domain requirement information to a network device; wherein the time domain requirement information comprises the time adjustment information; and the method further comprises: receiving, by the terminal device, an acknowledgment message sent by the network device; and transmitting, by the terminal device, the data by using the resource indicated by the time adjustment information. receiving, by the terminal device, an acknowledgment message sent by the network device; and transmitting, by the terminal device, the data by using the resource indicated by the time adjustment information.
A control method for a smart power component, comprising: acquiring (S102) first fitting information and second fitting information, which is detected by the smart power component, between a smart power component and an external heat sink, characterized in that the first fitting information is fitting information around a fixed point of the smart power component, and the second fitting information is fitting information around a non-fixed point of the smart power component; determining (S104) whether the first fitting information satisfies a preset condition, and determining whether the second fitting information satisfies the preset condition; outputting (S106) first prompt information when the first fitting information does not satisfy the preset condition, wherein the first prompt information is used for prompting to adjust a fitting around the fixed point; and outputting (S108) second prompt information when the second fitting information does not satisfy the preset condition, wherein the second prompt information is used for prompting to adjust a fitting around the non-fixed point. acquiring (S102) first fitting information and second fitting information, which is detected by the smart power component, between a smart power component and an external heat sink, characterized in that the first fitting information is fitting information around a fixed point of the smart power component, and the second fitting information is fitting information around a non-fixed point of the smart power component; determining (S104) whether the first fitting information satisfies a preset condition, and determining whether the second fitting information satisfies the preset condition; outputting (S106) first prompt information when the first fitting information does not satisfy the preset condition, wherein the first prompt information is used for prompting to adjust a fitting around the fixed point; and outputting (S108) second prompt information when the second fitting information does not satisfy the preset condition, wherein the second prompt information is used for prompting to adjust a fitting around the non-fixed point.
A computer-implemented method of protecting a software program from attack during runtime, the method comprising: receiving, by an address server , one or more source tokens from any one of a plurality of software blocks during execution of the software program, wherein the plurality of software blocks are organized into a plurality of domains, wherein each domain comprises a diverse instance of the software program, and wherein each diverse instance of each software block is configured to implement the same function as other diverse instances of that software block having different structures; selecting, by the address server , a domain in the plurality of domains; identifying one or more destination tokens corresponding to the one or more received source tokens based at least in part on the selected domain and a table mapping each source token in the one or more tokens to a plurality of destination tokens, wherein the plurality of destination tokens correspond to the plurality of domains; and returning the one or more destination tokens to said any one of the plurality of software blocks. receiving, by an address server , one or more source tokens from any one of a plurality of software blocks during execution of the software program, wherein the plurality of software blocks are organized into a plurality of domains, wherein each domain comprises a diverse instance of the software program, and wherein each diverse instance of each software block is configured to implement the same function as other diverse instances of that software block having different structures; selecting, by the address server , a domain in the plurality of domains; identifying one or more destination tokens corresponding to the one or more received source tokens based at least in part on the selected domain and a table mapping each source token in the one or more tokens to a plurality of destination tokens, wherein the plurality of destination tokens correspond to the plurality of domains; and returning the one or more destination tokens to said any one of the plurality of software blocks.
A redirection method, wherein the method is applied to a narrowband internet of things network, and the method comprises: sending (S301), by a terminal device, a radio resource control, RRC, connection request message to a network device, wherein the RRC connection request message is used to request to establish an RRC connection in a first cell; receiving (S302), by the terminal device, an RRC connection reject message sent by the network device, wherein the RRC connection reject message carries redirection information, wherein the redirection information comprises a plurality of carrier frequencies; and choosing (S303), by the terminal device based on the redirection information, to camp on a second cell, comprising: searching, by the terminal device, the plurality of carrier frequencies, and choosing to camp on a second cell corresponding to a target carrier frequency in the plurality of carrier frequencies; and if the terminal device finds no appropriate cell to camp on after searching the plurality of carrier frequencies, the terminal device chooses to camp on any cell. sending (S301), by a terminal device, a radio resource control, RRC, connection request message to a network device, wherein the RRC connection request message is used to request to establish an RRC connection in a first cell; receiving (S302), by the terminal device, an RRC connection reject message sent by the network device, wherein the RRC connection reject message carries redirection information, wherein the redirection information comprises a plurality of carrier frequencies; and choosing (S303), by the terminal device based on the redirection information, to camp on a second cell, comprising: searching, by the terminal device, the plurality of carrier frequencies, and choosing to camp on a second cell corresponding to a target carrier frequency in the plurality of carrier frequencies; and if the terminal device finds no appropriate cell to camp on after searching the plurality of carrier frequencies, the terminal device chooses to camp on any cell. searching, by the terminal device, the plurality of carrier frequencies, and choosing to camp on a second cell corresponding to a target carrier frequency in the plurality of carrier frequencies; and if the terminal device finds no appropriate cell to camp on after searching the plurality of carrier frequencies, the terminal device chooses to camp on any cell.
A method for generating a bi-directional texture function (BTF) of an object, the method comprising at least the following steps: - measuring an initial BTF for the object using a camera-based measurement device, - capturing spectral reflectance data for the object for a pre-given number of different measurement geometries using a spectrophotometer, - adapting the initial BTF to the captured spectral reflectance data , thus, gaining an optimized BTF wherein the initial BTF is represented by: f x ι ̅ o ̅ = χ ι ̅ o ̅ a π + ∑ k = 1 3 f S k , α k , F 0 , k CT ι ̅ o ̅ + Ξ x ι ̅ o ̅ - x : Surface coordinates of the object - , o : Illumination and observation/viewing directions at the basecoat of the object - χ( , o ): Color table depending on illumination and observation direction - a : Albedo or diffuse reflectivity - f S k , α k , F 0 , k CT ι ̅ o ̅ : A k-th Cook-Torrance lobe; the Cook-Torrance lobe is a commonly used BRDF that describes the glossiness of a microfacet surface - S k : Weight for the k-th Cook-Torrance lobe - α k : Parameter for the Beckmann distribution of the k-th Cook-Torrance lobe - F 0,k : Fresnel reflectivity for the k-th Cook-Torrance lobe - Ξ( x , , o ): Table of spatial texture images depending on illumination and observation direction wherein the first term is divided into a first sub-term corresponding to a color table χ( , o ) and a second sub-term corresponding to an intensity function a π + ∑ k = 1 3 f S k , α k , F 0 , k CT ι ̅ o ̅ wherein the parameters of the initial BTF are optimized to minimize a color difference between the spectral reflectance data and the initial BTF by optimizing in a first optimization step the parameters of the color table while the parameters of the intensity function are kept constant, and by optimizing in a second optimization step the parameters of the intensity function while the parameters of the color table are kept constant. - measuring an initial BTF for the object using a camera-based measurement device, - capturing spectral reflectance data for the object for a pre-given number of different measurement geometries using a spectrophotometer, - adapting the initial BTF to the captured spectral reflectance data , thus, gaining an optimized BTF - x : Surface coordinates of the object - , o : Illumination and observation/viewing directions at the basecoat of the object - χ( , o ): Color table depending on illumination and observation direction - a : Albedo or diffuse reflectivity - f S k , α k , F 0 , k CT ι ̅ o ̅ : A k-th Cook-Torrance lobe; the Cook-Torrance lobe is a commonly used BRDF that describes the glossiness of a microfacet surface - S k : Weight for the k-th Cook-Torrance lobe - α k : Parameter for the Beckmann distribution of the k-th Cook-Torrance lobe - F 0,k : Fresnel reflectivity for the k-th Cook-Torrance lobe - Ξ( x , , o ): Table of spatial texture images depending on illumination and observation direction
A computer-implemented method , comprising: receiving, by a first-party process being executed by a computing device , health information of a user associated with at least a subset of a plurality of different data types, the health information received from a data collection device of the user; storing, by the first-party process , the health information of the user in a secure storage device of the computing device ; receiving , from a third-party application being executed by the computing device , an authorization request for accessing at least one data type of the plurality of different data types for the user; providing , to the third-party application , an indication that the authorization request was presented to the user without indicating whether the authorization request was approved or not, the indication that the authorization request was presented to the user being provided to the third-party application after the authorization request was presented to the user; receiving , from the third-party application , a request for the health information corresponding to the at least one data type; in accordance with a determination that the user has authorized access to the at least one data type, providing a value corresponding to the at least one data type to the third-party application ; and in accordance with a determination that the user has not authorized access to the at least one data type, providing an empty result with no value corresponding to the at least one data type to the third-party application . receiving, by a first-party process being executed by a computing device , health information of a user associated with at least a subset of a plurality of different data types, the health information received from a data collection device of the user; storing, by the first-party process , the health information of the user in a secure storage device of the computing device ; receiving , from a third-party application being executed by the computing device , an authorization request for accessing at least one data type of the plurality of different data types for the user; providing , to the third-party application , an indication that the authorization request was presented to the user without indicating whether the authorization request was approved or not, the indication that the authorization request was presented to the user being provided to the third-party application after the authorization request was presented to the user; receiving , from the third-party application , a request for the health information corresponding to the at least one data type; in accordance with a determination that the user has authorized access to the at least one data type, providing a value corresponding to the at least one data type to the third-party application ; and in accordance with a determination that the user has not authorized access to the at least one data type, providing an empty result with no value corresponding to the at least one data type to the third-party application .
A positive electrode active material for nonaqueous electrolyte secondary batteries, the positive electrode active material comprising lithium metal composite oxide represented by a general formula: Li 1+u Ni x CO y Mn z M t O 2+α , wherein, 0.05 ≤ u ≤ 0.95, x + y + z + t = 1, 0 ≤ x ≤ 0.5, 0 ≤ y ≤ 0.5, 0.5 ≤ z < 0.8, 0 ≤ t ≤ 0.1, 0.05 ≤ α < 0.80 and M is an additive element and is at least one element selected from Mg, Ca, Al, Ti, V, Cr, Zr, Nb, Mo, and W, and composed of hexagonal lithium-containing composite oxide having a layered structure, characterized in that the lithium metal composite oxide comprises primary particles and secondary particles composed of aggregation of the primary particles, the secondary particles having a hollow structure that has an outer shell portion with aggregated primary particles sintered and a hollow portion being inside the outer shell portion, the secondary particles further having voids that enable permeation of an electrolyte solution in a vicinity of a surface and inside of the secondary particles, and the outer shell portion having a ratio of a thickness of 5 to 45% with respect to a particle diameter of the secondary particles, wherein the positive electrode active material has an average particle diameter of 3 to 12 μm and [(d 90 -d 10 ) /average-particle-diameter], an index indicating a scale of particle-size distribution, of not more than 0.60.