mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: an optical arrangement comprising at least one light guide element, an image source and an exit pupil, wherein the exit pupil is configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source; wherein the at least one light guide element comprises at least one diffraction grating; and characterized in that the apparatus is configured to control a size and location of the exit pupil of the optical arrangement, in response to a determination of a size and location of a pupil of the eye of the user, to align the exit pupil and the pupil of the eye of the user when the user is moving the eye.. an optical arrangement comprising at least one light guide element, an image source and an exit pupil, wherein the exit pupil is configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source; wherein the at least one light guide element comprises at least one diffraction grating; and characterized in that the apparatus is configured to control a size and location of the exit pupil of the optical arrangement, in response to a determination of a size and location of a pupil of the eye of the user, to align the exit pupil and the pupil of the eye of the user when the user is moving the eye..
Use of a multifunctional catalyst additive composition comprising palladium incorporated on a discarded refinery catalyst from a cracking petroleum process as a support, for reduction of carbon monoxide and nitrogen oxides in a fluid catalytic cracking process, wherein the additive composition comprises: (i) an inorganic oxide material; (ii) at least 1% of alumino silicate or a zeolite; (iii) 0.001 % to 1 % by weight of palladium; (iv) at least 0.01% by weight of a metal of Group I A; (v) at least 0.01% by weight of a metal of Group II A; (vi) at least 0.45% by weight of a metal of Group III A; (vii) at least 0.3% by weight of an element of Group IV A; (viii) at least 0.01% by weight of at least a metal of Group V A; (ix) at least 0.05% by weight of a rare earth oxide; (x) at least 0.02% by weight of at least a metal of Group VIII; wherein said multifunctional additive composition is attrition resistant. (i) an inorganic oxide material; (ii) at least 1% of alumino silicate or a zeolite; (iii) 0.001 % to 1 % by weight of palladium; (iv) at least 0.01% by weight of a metal of Group I A; (v) at least 0.01% by weight of a metal of Group II A; (vi) at least 0.45% by weight of a metal of Group III A; (vii) at least 0.3% by weight of an element of Group IV A; (viii) at least 0.01% by weight of at least a metal of Group V A; (ix) at least 0.05% by weight of a rare earth oxide; (x) at least 0.02% by weight of at least a metal of Group VIII;
A computer-implemented method for designing a garment comprising the steps of: a) providing, as an input, a digitally modeled non-developable three-dimensional shape representing a garment, segmented into a set of three-dimensional panels (3DP, 3DP1, 3DP2, 3DP3, 3DP4), each of said three-dimensional panels being homeomorphic to a planar shape; b) computing, for each of said three-dimensional panels, a corresponding two-dimensional flattened pattern (FP2, FP3), and defining a bijection between points of each three-dimensional panel and of the corresponding two-dimensional flattened pattern; c) defining a mesh (MF, M3D) on each of said three-dimensional panel and two-dimensional flattened pattern, the meshes on each three-dimensional panels and on the corresponding two-dimensional flattened pattern being related by said bijection; and d) simulating a draping of the digitally modeled and segmented three-dimensional shape over a digitally modeled three-dimensional manikin by progressively imposing a constraint that each mesh element of said three-dimensional panels adopts dimensions of a corresponding mesh element of the corresponding two-dimensional flattened pattern while it conforms to the manikin shape. a) providing, as an input, a digitally modeled non-developable three-dimensional shape representing a garment, segmented into a set of three-dimensional panels (3DP, 3DP1, 3DP2, 3DP3, 3DP4), each of said three-dimensional panels being homeomorphic to a planar shape; b) computing, for each of said three-dimensional panels, a corresponding two-dimensional flattened pattern (FP2, FP3), and defining a bijection between points of each three-dimensional panel and of the corresponding two-dimensional flattened pattern; c) defining a mesh (MF, M3D) on each of said three-dimensional panel and two-dimensional flattened pattern, the meshes on each three-dimensional panels and on the corresponding two-dimensional flattened pattern being related by said bijection; and d) simulating a draping of the digitally modeled and segmented three-dimensional shape over a digitally modeled three-dimensional manikin by progressively imposing a constraint that each mesh element of said three-dimensional panels adopts dimensions of a corresponding mesh element of the corresponding two-dimensional flattened pattern while it conforms to the manikin shape.
A method of performing a device-to-device, D2D, communication between user equipments, UEs, the method comprising: determining D2D subframes available for a D2D communication; and processing an initialization associated with a pseudo-random sequence of a D2D communication at a start of the D2D subframes, wherein the D2D subframes comprise a first D2D subframe and a second D2D subframe, wherein each of the first D2D subframe and the second D2D subframe comprises D2D slots, wherein the D2D slots comprise D2D slot number 0 and D2D slot number 1, and wherein the first D2D subframe and the second D2D subframe are included in the same resource pool defined in at least two radio frames; wherein the processing the initialization comprises, when a group hopping for a demodulation reference signal, DM-RS, associated with a transmission of a physical sidelink shared channel, PSSCH, is enabled, computing a group hopping initialization value associated with the group hopping at the start of each of the D2D subframes corresponding to D2D slot number 0. determining D2D subframes available for a D2D communication; and processing an initialization associated with a pseudo-random sequence of a D2D communication at a start of the D2D subframes, wherein the D2D subframes comprise a first D2D subframe and a second D2D subframe, wherein each of the first D2D subframe and the second D2D subframe comprises D2D slots, wherein the D2D slots comprise D2D slot number 0 and D2D slot number 1, and wherein the first D2D subframe and the second D2D subframe are included in the same resource pool defined in at least two radio frames; wherein the processing the initialization comprises, when a group hopping for a demodulation reference signal, DM-RS, associated with a transmission of a physical sidelink shared channel, PSSCH, is enabled, computing a group hopping initialization value associated with the group hopping at the start of each of the D2D subframes corresponding to D2D slot number 0.
A method performed by a wireless device, the method comprising: determining a coverage level provided to the wireless device by each cell among a plurality of cells of a wireless communication network; wherein determining the coverage level provided to the wireless device by each cell among the plurality of cells comprises making a radio-signal measurement with respect to each cell and yielding a resulting measurement value for each cell; selecting one cell from among the plurality of cells as a camping cell, for camping on by the wireless device while the wireless device is in a dormant state, according to the determined coverage levels and one or more cell prioritizations corresponding to one or more possible multi-cell configurations, each multi-cell configuration corresponding to serving the wireless device using a respective combination of cells from among the plurality of cells; wherein a multi-cell configuration is one of the one or more possible multi-cell configurations if each cell in the combination provides at least a threshold level of coverage to the wireless device; and camping on the selected cell while the wireless device is in a dormant state. determining a coverage level provided to the wireless device by each cell among a plurality of cells of a wireless communication network; wherein determining the coverage level provided to the wireless device by each cell among the plurality of cells comprises making a radio-signal measurement with respect to each cell and yielding a resulting measurement value for each cell; selecting one cell from among the plurality of cells as a camping cell, for camping on by the wireless device while the wireless device is in a dormant state, according to the determined coverage levels and one or more cell prioritizations corresponding to one or more possible multi-cell configurations, each multi-cell configuration corresponding to serving the wireless device using a respective combination of cells from among the plurality of cells; wherein a multi-cell configuration is one of the one or more possible multi-cell configurations if each cell in the combination provides at least a threshold level of coverage to the wireless device; and camping on the selected cell while the wireless device is in a dormant state.
Aircraft comprising: - a fuselage; - a set of electrical equipment items (40a... 40j), distributed in the fuselage; and - a hybrid electrical power distribution and data communication network, characterized in that: - the hybrid electrical power distribution and data communication network comprises: • a set of buses, comprising at least one electrical power distribution bus; and • at least one set of data links, - the hybrid electrical power distribution and data communication network is configured in such a way that a set of data links is associated with each bus of the set of buses; - each bus of the set of buses extends, at least partly, in a longitudinal direction of the fuselage; - each set of data links extends parallel to the bus with which it is associated; - each bus of the set of buses comprises connection points at different locations distributed along its length; and - each set of data links comprises connection points at different locations distributed along its length and each arranged in proximity to a connection point of the bus with which the set of data links is associated, so as to form pairs of connection points each comprising a connection point of the bus and a connection point of the associated set of data links; and - each of the electrical equipment items (40a... 40j) of the set of electrical equipment items is linked to a pair of connection points via a local electrical power supply link and via a local data link. - a fuselage; - a set of electrical equipment items (40a... 40j), distributed in the fuselage; and - a hybrid electrical power distribution and data communication network, - the hybrid electrical power distribution and data communication network comprises: • a set of buses, comprising at least one electrical power distribution bus; and • at least one set of data links, • a set of buses, comprising at least one electrical power distribution bus; and • at least one set of data links, - the hybrid electrical power distribution and data communication network is configured in such a way that a set of data links is associated with each bus of the set of buses; - each bus of the set of buses extends, at least partly, in a longitudinal direction of the fuselage; - each set of data links extends parallel to the bus with which it is associated; - each bus of the set of buses comprises connection points at different locations distributed along its length; and - each set of data links comprises connection points at different locations distributed along its length and each arranged in proximity to a connection point of the bus with which the set of data links is associated, so as to form pairs of connection points each comprising a connection point of the bus and a connection point of the associated set of data links; and - each of the electrical equipment items (40a... 40j) of the set of electrical equipment items is linked to a pair of connection points via a local electrical power supply link and via a local data link.
Method for feeding elastic threads in a process for the production of layered composite articles, comprising: feeding at least one elastic thread along a path extending from a reel of said elastic thread up to a joining zone with at least one web material; wherein feeding said at least one elastic thread along said path comprises: giving said at least one elastic thread a first percentage elongation along a first section of said path extending between the reel and a control zone; giving said at least one elastic thread a second percentage elongation along a second section of said path extending between the control zone and the joining zone; wherein the second percentage elongation is greater than the first percentage elongation; characterized in that a length of the first section is greater than a length of the second section and in that a ratio between the length of the second section and the length of the first section is less than or equal to 0.5. feeding at least one elastic thread along a path extending from a reel of said elastic thread up to a joining zone with at least one web material; wherein feeding said at least one elastic thread along said path comprises: giving said at least one elastic thread a first percentage elongation along a first section of said path extending between the reel and a control zone; giving said at least one elastic thread a second percentage elongation along a second section of said path extending between the control zone and the joining zone; giving said at least one elastic thread a first percentage elongation along a first section of said path extending between the reel and a control zone; giving said at least one elastic thread a second percentage elongation along a second section of said path extending between the control zone and the joining zone; wherein the second percentage elongation is greater than the first percentage elongation; characterized in that a length of the first section is greater than a length of the second section and in that a ratio between the length of the second section and the length of the first section is less than or equal to 0.5.
A method for estimating a delay spread of a multipath channel formed by successive packets of a multicarrier signal each comprising a plurality of subcarriers carrying data, the method comprises the steps of: - estimating, for each received packet, n, a magnitude value, CE k,n, of a channel estimate of each subcarrier, k, excluding null subcarriers; - calculating, for each received packet, n, a mean magnitude value, CE mean,n, of said estimated magnitude values, CE k,n, of said channel estimates; and characterized by - estimating, after a predetermined number of packets, L, have been received, a delay spread or a root mean square, RMS, delay spread of said multipath channel based on at least a metric, M, said metric, M, is calculated as a function of said estimated magnitude values CE k,n of said channel estimates and said mean magnitude values, CE mean,n, wherein the estimation of the delay spread or the RMS delay spread of the multipath channel is calculated using a linear interpolation according to: RMS M = RM S a + M − M a RM S b − RM S a M b − M a wherein RMS a and RMS b are predetermined delay spread values in a lookup-table; and M a and M b are predetermined metric values in said lookup-table; and wherein said predetermined delay spread values and predetermined metric values are selected based on at least said calculated metric, M. - estimating, for each received packet, n, a magnitude value, CE k,n, of a channel estimate of each subcarrier, k, excluding null subcarriers; - calculating, for each received packet, n, a mean magnitude value, CE mean,n, of said estimated magnitude values, CE k,n, of said channel estimates; and characterized by - estimating, after a predetermined number of packets, L, have been received, a delay spread or a root mean square, RMS, delay spread of said multipath channel based on at least a metric, M, said metric, M, is calculated as a function of said estimated magnitude values CE k,n of said channel estimates and said mean magnitude values, CE mean,n, wherein the estimation of the delay spread or the RMS delay spread of the multipath channel is calculated using a linear interpolation according to: RMS M = RM S a + M − M a RM S b − RM S a M b − M a wherein RMS a and RMS b are predetermined delay spread values in a lookup-table; and M a and M b are predetermined metric values in said lookup-table; and wherein said predetermined delay spread values and predetermined metric values are selected based on at least said calculated metric, M.
A split collet of which the central opening designed to receive a balance staff is noncircular, the split collet comprising a split, wherein the contour of the central opening comprises a limited number greater than two of bearing portions (4, 5, 12, 14, 15) designed to interact with said balance staff, wherein at least two bearing portion (4, 5 or 14, 15) are situated on arms (6, 7 or 27, 28) and wherein the collet comprises recesses (23, 24, 25, 26) between: - the arms, and - the portions that are adjacent to the arms, the adjacent portions being constituted by the collet, the recesses maximizing the length of the elastic zone of the collet, which then extends up to the split and covers an arc of almost 180° on each half of the collet. - the arms, and - the portions that are adjacent to the arms, the adjacent portions being constituted by the collet, the recesses maximizing the length of the elastic zone of the collet, which then extends up to the split and covers an arc of almost 180° on each half of the collet. the adjacent portions being constituted by the collet, the recesses maximizing the length of the elastic zone of the collet, which then extends up to the split and covers an arc of almost 180° on each half of the collet.
A method of determining the likelihood that a slip or fall will occur, the method comprising: receiving, by a detection application stored in a non-transitory memory and executed on a processor, a plurality of sensor readings from a plurality of movement sensors (152, 154), wherein the plurality of movement sensors (152, 154) are associated with different areas of a worker's body; receiving contextual information from an additional sensor, wherein the contextual information comprises at least one of location information, biometric information, a type of activity, or environmental information, selecting a subset of a plurality of movement pattern based on a context from the plurality of movement patterns stored in a database, wherein the context is based on the received contextual information; comparing, by the detection application, the plurality of sensor readings with the subset of movement patterns; determining, by the detection application, that at least one of the movement patterns of the subset of movement patterns matches the plurality of sensor readings; and generating, by the detection application, an indication that a slip or fall is likely based on the plurality of sensor readings matching at least one movement pattern of the subset of movement patterns. receiving, by a detection application stored in a non-transitory memory and executed on a processor, a plurality of sensor readings from a plurality of movement sensors (152, 154), wherein the plurality of movement sensors (152, 154) are associated with different areas of a worker's body; receiving contextual information from an additional sensor, wherein the contextual information comprises at least one of location information, biometric information, a type of activity, or environmental information, selecting a subset of a plurality of movement pattern based on a context from the plurality of movement patterns stored in a database, wherein the context is based on the received contextual information; comparing, by the detection application, the plurality of sensor readings with the subset of movement patterns; determining, by the detection application, that at least one of the movement patterns of the subset of movement patterns matches the plurality of sensor readings; and generating, by the detection application, an indication that a slip or fall is likely based on the plurality of sensor readings matching at least one movement pattern of the subset of movement patterns.
A method for introducing a gene repair oligonucleobase (GRON)-mediated mutation into a target deoxyribonucleic acid sequence in a plant cell, comprising: delivery of a GRON into the plant cell; and delivery of a site-specific endonuclease into the plant cell, wherein the site-specific endonuclease is selected from zinc finger nucleases, Transcription Activator-Like Effector Nucleases (TALENs), and Clustered Regularly Interspaced Short Palindromic Repeat complexes (CRISPR complexes); wherein the GRON comprises one or more alterations from conventional RNA and DNA nucleotides selected from one or more 2'O-methyl nucleotides at the 5' or 3' end thereof, a 5' terminus cap, one or more fluorescent dyes covalently attached thereto, one or more phosphothioate modifications, a reverse base at the 3' end thereof; and wherein the site-specific endonuclease induces a single or double strand break in the vicinity of the site targeted for conversion by the GRON. delivery of a GRON into the plant cell; and delivery of a site-specific endonuclease into the plant cell, wherein the site-specific endonuclease is selected from zinc finger nucleases, Transcription Activator-Like Effector Nucleases (TALENs), and Clustered Regularly Interspaced Short Palindromic Repeat complexes (CRISPR complexes); wherein the GRON comprises one or more alterations from conventional RNA and DNA nucleotides selected from one or more 2'O-methyl nucleotides at the 5' or 3' end thereof, a 5' terminus cap, one or more fluorescent dyes covalently attached thereto, one or more phosphothioate modifications, a reverse base at the 3' end thereof; and wherein the site-specific endonuclease induces a single or double strand break in the vicinity of the site targeted for conversion by the GRON.
An inorganic reaction system comprising a lead-bismuth-tellurium-silicate composition of Formula: Pb a -Bi b -Te c -Si g -M d -O e, wherein 0 < a, b, d, or g ≤ 1, 0 ≤ c ≤ 0.5, 0 ≤ d, e ≤ 1, and the sum of a, b, c, d and g is 1, 0 < a ≤ 0.05, 0.2 < b ≤ 0.95, 0 < c ≤ 0.5, 0 < d ≤ 0.2, 0 < g ≤ 0.5, a:b is between 0.1:99.9 to 5:95, b:c is between 50:50 to 99:1, a:c is between 1:99 to 10:90, b:g is between 50:50 to 98:2, M is one or more elements, and e is a number sufficient to balance the Pb, Bi, Te, Si, and M components.