mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a base station, BS, in a wireless communication system, the method comprising: receiving K preambles, to which K different beamformings are applied, from a user equipment (UE); and estimating a timing advance, TA, for each of the K preambles, wherein the estimating of the TA for each of the K preambles comprises estimating a channel delay for each of the K preambles, which is performed by the following equation: m K ∗ = arg max m ∑ j = 0 L − 1 ∑ i = 0 N − 1 Y i + j + m S ∗ i 2 , where i is a time index, m is a timing offset, N is a total length of a time signal (or orthogonal frequency division multiplexing, OFDM, symbol length), L is a multipath channel delay length by probability distribution function, PDF, Y[i] is a signal received at time i, and S [i] is a signal transmitted at time i. receiving K preambles, to which K different beamformings are applied, from a user equipment (UE); and estimating a timing advance, TA, for each of the K preambles, wherein the estimating of the TA for each of the K preambles comprises estimating a channel delay for each of the K preambles, which is performed by the following equation: m K ∗ = arg max m ∑ j = 0 L − 1 ∑ i = 0 N − 1 Y i + j + m S ∗ i 2 , where i is a time index, m is a timing offset, N is a total length of a time signal (or orthogonal frequency division multiplexing, OFDM, symbol length), L is a multipath channel delay length by probability distribution function, PDF, Y[i] is a signal received at time i, and S [i] is a signal transmitted at time i.
A computer-implemented method comprising: representing actual measurements of a seismic wavefield as combinations of an upgoing pressure component of the seismic wavefield and ghost operators, wherein the act of representing comprises representing the upgoing pressure component as a linear combination of basis functions; and determining the coefficients of the linear combination of basis functions, thereby jointly determining interpolated and deghosted components of the seismic wavefield, based at least in part on the actual measurements and the representation, wherein the act of determining comprises: determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and building up an image of a survey area based on the interpolated and deghosted seismic data for the purposes of identifying subterranean geological formations. representing actual measurements of a seismic wavefield as combinations of an upgoing pressure component of the seismic wavefield and ghost operators, wherein the act of representing comprises representing the upgoing pressure component as a linear combination of basis functions; and determining the coefficients of the linear combination of basis functions, thereby jointly determining interpolated and deghosted components of the seismic wavefield, based at least in part on the actual measurements and the representation, wherein the act of determining comprises: determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and building up an image of a survey area based on the interpolated and deghosted seismic data for the purposes of identifying subterranean geological formations.
A long rail assembly for providing sliding movement of a vehicle seat within a vehicle, the long rail assembly comprising: a fixed long rail extending longitudinally between opposing first and second ends of the fixed long rail and defining an interior cavity therebetween; a power rail drive assembly extending longitudinally between opposing first and second ends of the power rail drive assembly , the power rail drive assembly slidably coupled to the fixed long rail for providing the sliding movement of the vehicle seat along the fixed long rail , the power rail drive assembly comprising an upper channel , a spring-loaded gearbox assembly fixedly coupled to the upper channel , and a drive wheel fixedly coupled to a drive shaft projecting from the spring-loaded gearbox assembly and rotated by the spring-loaded gearbox assembly for transposing the power rail drive assembly along the fixed long rail ; wherein the spring-loaded gearbox assembly comprises a mounting bracket fixedly coupled to the upper channel , a gearbox repositionable within the mounting bracket , and a spring biasing the gearbox within the mounting bracket such that the drive wheel is meshingly engaged with the fixed long rail . a fixed long rail extending longitudinally between opposing first and second ends of the fixed long rail and defining an interior cavity therebetween; a power rail drive assembly extending longitudinally between opposing first and second ends of the power rail drive assembly , the power rail drive assembly slidably coupled to the fixed long rail for providing the sliding movement of the vehicle seat along the fixed long rail , the power rail drive assembly comprising an upper channel , a spring-loaded gearbox assembly fixedly coupled to the upper channel , and a drive wheel fixedly coupled to a drive shaft projecting from the spring-loaded gearbox assembly and rotated by the spring-loaded gearbox assembly for transposing the power rail drive assembly along the fixed long rail ; wherein the spring-loaded gearbox assembly comprises a mounting bracket fixedly coupled to the upper channel , a gearbox repositionable within the mounting bracket , and a spring biasing the gearbox within the mounting bracket such that the drive wheel is meshingly engaged with the fixed long rail .
A non-transitory machine-readable storage medium encoded with instructions executable by a hardware processor of a computing device for providing selective access to resources, the machine-readable storage medium comprising instructions to cause the hardware processor to: receive, from an authorization server, an access token for accessing resources associated with a first resource server ; provide the authorization server with the access token and a request to access the first resource server; receive, from the authorization server, a first token , the first token specifying a first set of permissions for accessing the first resource server and, as a first audience, the first resource server, the first set of permissions being specified by a client topology, the client topology specifying: the first resource server; the first set of permissions for accessing the first resource server; a second resource server; and a second set of permissions for accessing, by the first resource server, the second resource server; and provide the first resource server with a resource request for a resource, the resource request including the first token. receive, from an authorization server, an access token for accessing resources associated with a first resource server ; provide the authorization server with the access token and a request to access the first resource server; receive, from the authorization server, a first token , the first token specifying a first set of permissions for accessing the first resource server and, as a first audience, the first resource server, the first set of permissions being specified by a client topology, the client topology specifying: the first resource server; the first set of permissions for accessing the first resource server; a second resource server; and a second set of permissions for accessing, by the first resource server, the second resource server; and the first resource server; the first set of permissions for accessing the first resource server; a second resource server; and a second set of permissions for accessing, by the first resource server, the second resource server; and provide the first resource server with a resource request for a resource, the resource request including the first token.
A formation equipment system with a fire-spreading prevention function, the system being characterized in that the system comprises: two or more stages arranged in an adjacent manner to each other, each stage accommodating therein a formation equipment for performing a formation process of a secondary battery; a fireproof shutter installed at a front face or a rear face of each stage; a sprinkler installed on an inner face of a ceiling of each stage; a drain tray installed on an inner face of a bottom of each stage, wherein the drain tray has a drain hole ; and an exhaust hole 500 for discharging smoke from each stage to an outside. two or more stages arranged in an adjacent manner to each other, each stage accommodating therein a formation equipment for performing a formation process of a secondary battery; a fireproof shutter installed at a front face or a rear face of each stage; a sprinkler installed on an inner face of a ceiling of each stage; a drain tray installed on an inner face of a bottom of each stage, wherein the drain tray has a drain hole ; and an exhaust hole 500 for discharging smoke from each stage to an outside.
A system comprising a camera assembly , at least one processor , and memory storing instructions that, when executed by the at least one processor, cause the system to: determine a direction of movement of the camera assembly; predict environmental factors based on the direction of movement by predicting a location of the camera assembly based on the direction of movement and predicting the environmental factors at the predicted location; extract a set of features from a previously captured image, wherein the features are associated with a quality value; determine camera settings based on the predicted environmental factors and the quality values so as to improve capture of at least some of the extracted set of features; and capture an image with the camera assembly using the determined camera settings. determine a direction of movement of the camera assembly; predict environmental factors based on the direction of movement by predicting a location of the camera assembly based on the direction of movement and predicting the environmental factors at the predicted location; extract a set of features from a previously captured image, wherein the features are associated with a quality value; determine camera settings based on the predicted environmental factors and the quality values so as to improve capture of at least some of the extracted set of features; and capture an image with the camera assembly using the determined camera settings.
A method of assembling resilient floorboards made of a bendable thermoplastic, which are provided with a mechanical locking system which is integrally formed in one piece with the resilient material of the floorboard, for vertical and horizontal locking of two adjacent floorboards, wherein the method comprises: • positioning a first floorboard edge of a first floorboard provided with a first device of said mechanical locking system , juxtaposed another floorboard edge of another floorboard provided with a second device of said mechanical locking system ; characterised int that the method further comprises: • bending the first floorboard along the first floorboard edge; applying a force (F) on a first part of the first floorboard edge, wherein at said first part of the first floorboard edge said first device is pushed into said second device to obtain a vertical and horizontal mechanical locking of a part of the first and another floorboard edges; • connecting an adjacent edge of the first floorboard to a juxtaposed edge of a third floorboard in another row by angling; and • applying a force to a new part of the first floorboard edge, which new part is adjacent to said first part, and repeating this step until the whole first floorboard edge is vertically and horizontally locked to said another floorboard edge. • positioning a first floorboard edge of a first floorboard provided with a first device of said mechanical locking system , juxtaposed another floorboard edge of another floorboard provided with a second device of said mechanical locking system ; • bending the first floorboard along the first floorboard edge; applying a force (F) on a first part of the first floorboard edge, wherein at said first part of the first floorboard edge said first device is pushed into said second device to obtain a vertical and horizontal mechanical locking of a part of the first and another floorboard edges; • connecting an adjacent edge of the first floorboard to a juxtaposed edge of a third floorboard in another row by angling; and • applying a force to a new part of the first floorboard edge, which new part is adjacent to said first part, and repeating this step until the whole first floorboard edge is vertically and horizontally locked to said another floorboard edge.
An injectable composition comprising a reverse-temperature sensitive hydrogel comprising hyaluronic acid having a molecular weight of 1 million Da or greater and a synthetic polymer comprising 15% wt/vol to 20% wt/vol poloxamer F127, and an amount of amobarbital, pentobarbital, secobarbital, phenobarbital, barbital, adenosine diphosphate ribose, or metformin effective to inhibit post-traumatic osteoarthritis.
A power converter comprising: a converter circuit converting an alternating current to a direct current; a reactor (L) electrically connected to one of output terminals of the converter circuit ; a capacitor electrically connected to the other output terminal of the converter circuit and the reactor (L); and an inverter circuit electrically connected to the capacitor and converts the direct current to an alternating current, wherein the capacitor is a film capacitor, and the capacitor and the reactor (L) are mounted on the same circuit board ; characterized in that the capacitor and the reactor (L) are adjacent to each other, the converter circuit , the capacitor , the reactor (L), and the inverter circuit are mounted on the circuit board in a two-stage grid, the converter circuit and the reactor (L) are mounted on an identical stage of the grid, the inverter circuit and the capacitor are mounted on a stage different from a stage on which the converter circuit is mounted in the grid, and the converter circuit and the inverter circuit are adjacent to each other, and the reactor (L) and the capacitor are adjacent to each other, in the grid. a converter circuit converting an alternating current to a direct current; a reactor (L) electrically connected to one of output terminals of the converter circuit ; a capacitor electrically connected to the other output terminal of the converter circuit and the reactor (L); and an inverter circuit electrically connected to the capacitor and converts the direct current to an alternating current, wherein the capacitor is a film capacitor, and the capacitor and the reactor (L) are mounted on the same circuit board ; characterized in that the capacitor and the reactor (L) are adjacent to each other, the converter circuit , the capacitor , the reactor (L), and the inverter circuit are mounted on the circuit board in a two-stage grid, the converter circuit and the reactor (L) are mounted on an identical stage of the grid, the inverter circuit and the capacitor are mounted on a stage different from a stage on which the converter circuit is mounted in the grid, and the converter circuit and the inverter circuit are adjacent to each other, and the reactor (L) and the capacitor are adjacent to each other, in the grid.
A lifting attachment for a building unit comprising sheeting and a support structure over which the sheeting is disposed, the attachment being configured such that it can be connected to or integrated into the support structure and comprising a lifting anchor which, when the attachment is so connected or integrated, is engageable by a component for lifting the unit such that a releasable interconnection between the component and the support structure passes through an opening in the sheeting, characterised in that the or each anchor is configured to connect to a member, configured with separate formations arranged therealong, defining said lifting component, and is configured with a pawl engageable with said formations such that axial insertion of the member through the opening causes successive ones of the formations to engage the anchor in a manner permitting further insertion of the member through the opening but precluding withdrawal of the member from the anchor.
A method of improving explosion safety in closed spaces by attenuating the effect of a combustion wave or shock wave on a protected surface, comprising placing obstructions before the protected surface in the form of elastic membranes filled with a flame-retardant substance, wherein a non-flammable gas is used as the substance filling the membranes ; the membranes themselves are made of a material that disintegrates during, and under the action of, displacement of the front of a combustion wave or shock wave along the surface of the membranes , wherein the membranes are filled with a non-flammable gas immediately after flammable gas is detected at a dangerous concentration in the space in front of the protected object, wherein the elastic membranes are placed before the protected surface in at least two layers, and the elastic membranes of each subsequent layer are located in the depressions formed between the elastic membranes of the previous layer.
A method for secondary authentication in a network, performed by a user equipment, UE), the method comprising: establishing a primary authentication with a security anchor function, SEAF; establishing a user plane, UP, session or connection with or via a UP function, UPF; receiving an extensible authentication protocol, EAP, based authentication request via the UPF; sending an EAP based authentication response to the UPF; and receiving an EAP based authentication result via the UPF, the EAP based authentication result based on a verification response from an external authentication, authorization, and accounting, AAA, server. establishing a primary authentication with a security anchor function, SEAF; establishing a user plane, UP, session or connection with or via a UP function, UPF; receiving an extensible authentication protocol, EAP, based authentication request via the UPF; sending an EAP based authentication response to the UPF; and receiving an EAP based authentication result via the UPF, the EAP based authentication result based on a verification response from an external authentication, authorization, and accounting, AAA, server.
A detergent composition comprising: a) at least one surfactant; and b) a polyurethane anti-redeposition polymer comprising from about 35 to 90 wt.% of a poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer, wherein not less than at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) is polyethylene oxide), and wherein at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer is incorporated in lateral chains pending from the polyurethane polymer, and wherein the polyurethane has an acid value ranging from about 1 to about 300 mg of KOH/g, or from about 5 to about 200 mg of KOH/g, or from about 10 to about 150 mg of KOH/g, or from about 15 to about 100 KOH/g, or from about 20 to about 75 mg of KOH/g, or from about 25 to about 45 mg KOH/g. a) at least one surfactant; and b) a polyurethane anti-redeposition polymer comprising from about 35 to 90 wt.% of a poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer, wherein not less than at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) is polyethylene oxide), and wherein at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer is incorporated in lateral chains pending from the polyurethane polymer, and wherein the polyurethane has an acid value ranging from about 1 to about 300 mg of KOH/g, or from about 5 to about 200 mg of KOH/g, or from about 10 to about 150 mg of KOH/g, or from about 15 to about 100 KOH/g, or from about 20 to about 75 mg of KOH/g, or from about 25 to about 45 mg KOH/g.
A yellow phosphor comprising: a crystal phase with a chemical composition (Lu 1-p-q , Ce p , M q ) x β y γ z O, where M denotes one or more elements selected from the group consisting of Y, La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, wherein M contains Y, which constitutes 90% or more by mole of M, β is Si, γ is N, and x, y, z, p, and q satisfy 5.5 ≤ x ≤ 6.5, 10.5 ≤ y ≤ 11.5, 19.5 ≤ z ≤ 20.5, 0 < p < 0.03, and 0 ≤ q ≤ 0.5; wherein the phosphor has an emission spectrum with a peak in a wavelength range of not less than 540 nm and not more than 600 nm, and wherein a wavelength component at 500 nm in the emission spectrum has an intensity that is equal to or more than 25% of the intensity of the peak. a crystal phase with a chemical composition (Lu 1-p-q , Ce p , M q ) x β y γ z O, where M denotes one or more elements selected from the group consisting of Y, La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, wherein M contains Y, which constitutes 90% or more by mole of M, β is Si, γ is N, and x, y, z, p, and q satisfy 5.5 ≤ x ≤ 6.5, 10.5 ≤ y ≤ 11.5, 19.5 ≤ z ≤ 20.5, 0 < p < 0.03, and 0 ≤ q ≤ 0.5; wherein the phosphor has an emission spectrum with a peak in a wavelength range of not less than 540 nm and not more than 600 nm, and wherein a wavelength component at 500 nm in the emission spectrum has an intensity that is equal to or more than 25% of the intensity of the peak.
A spatially addressable adjustable optical component , comprising: a first electrode having a first sheet resistance along a first direction and a second sheet resistance that is more than the first sheet resistance along a second direction that is orthogonal to the first direction; a second electrode having a third sheet resistance along the first direction and a fourth sheet resistance that is less than the third sheet resistance along the second direction; and a layer of electrically adjustable optical material between the first and second electrodes . a first electrode having a first sheet resistance along a first direction and a second sheet resistance that is more than the first sheet resistance along a second direction that is orthogonal to the first direction; a second electrode having a third sheet resistance along the first direction and a fourth sheet resistance that is less than the third sheet resistance along the second direction; and a layer of electrically adjustable optical material between the first and second electrodes .