mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: providing a color filter layer including a first color filter and a second color filter, wherein the first color filter and the second color filter are different color filters; passing electromagnetic radiation having a first wavelength range through the first color filter of the color filter layer of a Complementary Metal Oxide Semiconductor (CMOS) image sensor; receiving the electromagnetic radiation having the first wavelength range at an energy conversion layer of the CMOS image sensor; converting the electromagnetic radiation into electromagnetic radiation having a second wavelength range; directing the electromagnetic radiation having the second wavelength range from the energy conversion layer through a passivation layer; sensing the electromagnetic radiation having the second wavelength range at a photodiode layer; and routing an electrical signal via an interconnect structure formed within the passivation layer, the method being characterized in that the energy conversion layer is disposed directly under the color filter. providing a color filter layer including a first color filter and a second color filter, wherein the first color filter and the second color filter are different color filters; passing electromagnetic radiation having a first wavelength range through the first color filter of the color filter layer of a Complementary Metal Oxide Semiconductor (CMOS) image sensor; receiving the electromagnetic radiation having the first wavelength range at an energy conversion layer of the CMOS image sensor; converting the electromagnetic radiation into electromagnetic radiation having a second wavelength range; directing the electromagnetic radiation having the second wavelength range from the energy conversion layer through a passivation layer; sensing the electromagnetic radiation having the second wavelength range at a photodiode layer; and routing an electrical signal via an interconnect structure formed within the passivation layer, the method being characterized in that the energy conversion layer is disposed directly under the color filter.
A Scheduling Request transmission method for decoupled downlink-uplink in heterogeneous network, where the heterogeneous network comprises at least two cells in charge of downlink and uplink transmission separately and connected with any backhaul, the method comprising: determining a positive Data Scheduling Request, D-SR, is to be transmitted in a current D-SR's subframe together with Hybrid Automatic Repeat Request-Acknowledgement/Non-Acknowledgement, HARQ-ACK/NACK, on Physical Uplink Control Channel, PUCCH, using PUCCH format 1a/1b/3, characterized in that the method further comprises: in response to the determining, transmitting, to a base station of the cell in charge of downlink transmission, HARQ-ACK/NACK in the current D-SR's subframe on PUCCH together with a negative D-SR using PUCCH format 1/1a/1b or format 3 while transmitting, to a base station of the cell in charge of uplink transmission, a scheduling request, SR, in a next SR's sub-frame subsequent to the current D-SR's subframe, wherein transmitting the SR in the next SR's sub-frame comprises: postponing transmission of the positive D-SR, based on a particular period of delay time from the transmission in the current D-SR's subframe, to a next D-SR's subframe subsequent to the current D-SR's subframe on the PUCCH. in response to the determining, transmitting, to a base station of the cell in charge of downlink transmission, HARQ-ACK/NACK in the current D-SR's subframe on PUCCH together with a negative D-SR using PUCCH format 1/1a/1b or format 3 while transmitting, to a base station of the cell in charge of uplink transmission, a scheduling request, SR, in a next SR's sub-frame subsequent to the current D-SR's subframe, wherein transmitting the SR in the next SR's sub-frame comprises: postponing transmission of the positive D-SR, based on a particular period of delay time from the transmission in the current D-SR's subframe, to a next D-SR's subframe subsequent to the current D-SR's subframe on the PUCCH.
A computer-implemented method of effecting a video conference communication event between a first user and one or more second users via a communication network, the method comprising implementing on a computer connected to the network: receiving, via the network, a plurality of video streams, each carrying a respective moving image of at least one respective user; causing the respective moving image of a first of the video streams to be displayed at a user device of the first user for a first time interval; identifying in the respective moving image of a second of the video streams that is not displayed at the user device in the first time interval, a human feature of the respective user; detecting a movement of the identified human feature during the first time interval that matches one of a plurality of expected movements; and in response to the detected movement, causing the respective moving image of at least the second video stream to be displayed at the user device for a second time interval; characterized in that the computer determines the duration of the second time interval based on which of the plurality of expected movements the movement of the identified human feature is detected as matching. receiving, via the network, a plurality of video streams, each carrying a respective moving image of at least one respective user; causing the respective moving image of a first of the video streams to be displayed at a user device of the first user for a first time interval; identifying in the respective moving image of a second of the video streams that is not displayed at the user device in the first time interval, a human feature of the respective user; detecting a movement of the identified human feature during the first time interval that matches one of a plurality of expected movements; and in response to the detected movement, causing the respective moving image of at least the second video stream to be displayed at the user device for a second time interval; characterized in that the computer determines the duration of the second time interval based on which of the plurality of expected movements the movement of the identified human feature is detected as matching.
Method for supplying electrical energy to an aircraft comprising a plurality of loads to be powered (C1-C4) and a power supply system, the power supply system being equipped with a plurality of power sources (S1, S2, S3) and an on-board energy management module, method characterised in that the energy management module controls a power supply to at least one of said loads (C1-C4) using at least two different power sources in parallel (S1, S2, S3) in the event of increased energy requirements of said load, said load (C1-C4) initially being powered by a single power source (S1, S2, S3).
A braking and/or clamping device of a slide guided on at least one guide rail, - wherein the braking and/or clamping device has a housing, - wherein the device comprises at least one frictional blocking device, which can be actuated via a gearing mechanism (92, 162, 96) and has at least one pressure piece which is mounted in the housing and can be pressed against the guide rail, - wherein the gearing mechanism (92, 162, 96), which is moved with the aid of external energy in the form of compressed air or hydraulic oil, is movable, for loading and unloading the frictional blocking device, by means of at least one cylinder-piston unit of an actuator (55, 70, 80) or a spring energy store comprising at least one spring element, per loading and unloading direction, characterised in that - at least one electrically switched 3/2- or 2/2-way directional valve is integrated in the housing, - one check valve (120, 121) is arranged in the housing for each cylinder (100, 101) of the respective cylinder-piston unit of the respective actuator (55, 70, 80), wherein the check valve (120, 121) is either a quick-vent valve or a shuttle valve, and - the compressed air or the hydraulic oil flows via a main inflow bore, a first connecting bore and a second connecting bore in the housing when the frictional blocking device is open in order to pass in the housing from the directional valve via a working air bore, check valve connecting lines (141, 142), the check valves (120, 121) and cylinder inflow bores (144, 145) into the pressure chambers (58, 76, 86), situated in the housing, of the respective cylinder-piston units. - wherein the braking and/or clamping device has a housing, - wherein the device comprises at least one frictional blocking device, which can be actuated via a gearing mechanism (92, 162, 96) and has at least one pressure piece which is mounted in the housing and can be pressed against the guide rail, - wherein the gearing mechanism (92, 162, 96), which is moved with the aid of external energy in the form of compressed air or hydraulic oil, is movable, for loading and unloading the frictional blocking device, by means of at least one cylinder-piston unit of an actuator (55, 70, 80) or a spring energy store comprising at least one spring element, per loading and unloading direction, - at least one electrically switched 3/2- or 2/2-way directional valve is integrated in the housing, - one check valve (120, 121) is arranged in the housing for each cylinder (100, 101) of the respective cylinder-piston unit of the respective actuator (55, 70, 80), wherein the check valve (120, 121) is either a quick-vent valve or a shuttle valve, and - the compressed air or the hydraulic oil flows via a main inflow bore, a first connecting bore and a second connecting bore in the housing when the frictional blocking device is open in order to pass in the housing from the directional valve via a working air bore, check valve connecting lines (141, 142), the check valves (120, 121) and cylinder inflow bores (144, 145) into the pressure chambers (58, 76, 86), situated in the housing, of the respective cylinder-piston units.
A solution comprising: (i) M, wherein M is represented by an alkaline earth metal or alkali metal and (ii) aluminum metal and (iii) a polyhydroxyl ether solvent, wherein the molar ratio of M:Al ranges from 0.2:1 to 4:1 or less. (i) M, wherein M is represented by an alkaline earth metal or alkali metal and (ii) aluminum metal and (iii) a polyhydroxyl ether solvent,
A microcapsule obtainable by a process comprising the following steps: a) reacting at least one polyisocyanate with at least one organic compound comprising a permanent quaternary ammonium group and a primary amine or hydroxyl group, in water or in an aqueous solution of a hydrophilic active, so as to form an emulsion of an aqueous phase in the product obtained by such reaction, the aqueous phase being formed of water or of the aqueous solution of a hydrophilic active, wherein the product resulting from said reaction has a structure of a tenside bearing permanent cationic charges; b) adding an oily phase comprising a perfume and optionally a polyamine or a polyol to the emulsion obtained in step a); and c) adding water to the emulsion obtained in step b) and optionally adding a polyamine or a polyol, if such a polyamine or polyol has not yet been added in step b) such as to form a microcapsule. a) reacting at least one polyisocyanate with at least one organic compound comprising a permanent quaternary ammonium group and a primary amine or hydroxyl group, in water or in an aqueous solution of a hydrophilic active, so as to form an emulsion of an aqueous phase in the product obtained by such reaction, the aqueous phase being formed of water or of the aqueous solution of a hydrophilic active, wherein the product resulting from said reaction has a structure of a tenside bearing permanent cationic charges; b) adding an oily phase comprising a perfume and optionally a polyamine or a polyol to the emulsion obtained in step a); and c) adding water to the emulsion obtained in step b) and optionally adding a polyamine
A method, performed by an apparatus, for wireless communication, comprising: identifying multiple beam pair links for communication with one or more base stations; determining a set of search candidates for each of the multiple beam pair links based at least in part on a set of search candidate tables, each of the multiple beam pair links corresponding to a respective set of search candidates such that at least two of the multiple beam pair links correspond to different numbers of search candidates; and monitoring each of the multiple beam pair links in accordance with the respective sets of search candidates. identifying multiple beam pair links for communication with one or more base stations; determining a set of search candidates for each of the multiple beam pair links based at least in part on a set of search candidate tables, each of the multiple beam pair links corresponding to a respective set of search candidates such that at least two of the multiple beam pair links correspond to different numbers of search candidates; and monitoring each of the multiple beam pair links in accordance with the respective sets of search candidates.
A spring element unit with a plurality of single spring elements for a cushion element, particularly a mattress, wherein the spring element is made of an open-celled flexible polyurethane foam and at least one recess is provided in the spring element and wherein the plurality of spring elements is placed side-by-side, characterized in that the spring elements are materially interconnected and the material connection is at least partially elastic.
A pultruded fibrous composite strip for a spar cap of a wind turbine rotor blade, the strip comprising: - unidirectional fibers extending along a longitudinal direction of the strip, - a first and a second edge regions (40,60) separated in the longitudinal direction of the strip by an intermediate region, wherein the intermediate region is defined by a first and a second mutually opposed longitudinally extending and parallelly disposed planar surfaces (52,54), wherein a thickness of the strip is determinable perpendicular to the first and the second planar surfaces (52,54) and a width of the strip is determinable parallel to the first and the second planar surfaces (52,54) and perpendicular to the longitudinal direction of the strip, wherein at least one of the first and the second edge regions (40, 60) comprises at least a taper region and a further taper region, wherein the taper region is disposed in-between the further taper region and the intermediate region, characterized in that the slope of the taper region is constant and the slope of the further taper region is also constant, wherein the constant slope of the further taper region is different than the constant slope of the taper region and wherein the constant slope of the taper region is greater than the constant slope of the further taper region. - unidirectional fibers extending along a longitudinal direction of the strip, - a first and a second edge regions (40,60) separated in the longitudinal direction of the strip by an intermediate region, wherein the intermediate region is defined by a first and a second mutually opposed longitudinally extending and parallelly disposed planar surfaces (52,54), wherein a thickness of the strip is determinable perpendicular to the first and the second planar surfaces (52,54) and a width of the strip is determinable parallel to the first and the second planar surfaces (52,54) and perpendicular to the longitudinal direction of the strip, wherein at least one of the first and the second edge regions (40, 60) comprises at least a taper region and a further taper region, wherein the taper region is disposed in-between the further taper region and the intermediate region, characterized in that the slope of the taper region is constant and the slope of the further taper region is also constant, wherein the constant slope of the further taper region is different than the constant slope of the taper region and wherein the constant slope of the taper region is greater than the constant slope of the further taper region.
A method comprising: receiving radio signals transmitted from K mobile stations (MSs) by a base station in a massive multiple input and multiple output (MIMO) uplink channel, wherein the BS has M antennas, and wherein M >> K; vectorizing received radio signals denoted as a matrix Y ∈ C M × T, wherein the transmitted radio signals are orthogonal pilot signals denoted as a matrix P ∈ C K × T transmitted from the K MSs, and wherein T ≥ K is the pilot signal length; and deriving an estimator of large-scale fading coefficients (LSFCs) of the uplink channel with unknown small-scale fading coefficients (SSFCs) of the uplink channel; wherein the pilot signals are denoted as P = [p 1,···,p K] H, p k represents a k th pilot signal from a k th MS to the BS via a k th uplink channel, and wherein the LSFCs are derived to be β ^ = Diag ‖ p 1 ‖ − 4, ⋯, ‖ p K ‖ − 4 ⋅ 1 T T ⊗ P ⊙ P * ⊗ 1 T T ⋅ vec 1 M Y H Y − I T. receiving radio signals transmitted from K mobile stations (MSs) by a base station in a massive multiple input and multiple output (MIMO) uplink channel, wherein the BS has M antennas, and wherein M >> K; vectorizing received radio signals denoted as a matrix Y ∈ C M × T, wherein the transmitted radio signals are orthogonal pilot signals denoted as a matrix P ∈ C K × T transmitted from the K MSs, and wherein T ≥ K is the pilot signal length; and deriving an estimator of large-scale fading coefficients (LSFCs) of the uplink channel with unknown small-scale fading coefficients (SSFCs) of the uplink channel;
An information reporting method applied to a terminal in a 5 th Generation, 5G, mobile communications system, characterized by comprising: determining physical downlink control channel, PDCCH, blind decoding capability information of the terminal; wherein the PDCCH blind decoding capability information indicates a maximum processing capability of the terminal to perform blind decoding on the PDCCH within a first unit time, the PDCCH blind decoding capability information of the terminal is dependent on subcarrier spacing and/or OFDM symbol length of the system which the terminal is communicating with; and reporting the PDCCH blind decoding capability information to a network device; wherein the PDCCH blind decoding capability information further indicates a maximum processing capability of the terminal to perform blind decoding on the PDCCH within a second unit time; the first unit time is greater than the second unit time; wherein the second unit time comprises at least one of: at least one mini-slot, and at least one OFDM symbol; and the PDCCH blind decoding capability information further indicates a maximum number of blind decodings that the terminal is capable within the second unit time. determining physical downlink control channel, PDCCH, blind decoding capability information of the terminal; wherein the PDCCH blind decoding capability information indicates a maximum processing capability of the terminal to perform blind decoding on the PDCCH within a first unit time, the PDCCH blind decoding capability information of the terminal is dependent on subcarrier spacing and/or OFDM symbol length of the system which the terminal is communicating with; and reporting the PDCCH blind decoding capability information to a network device; wherein the PDCCH blind decoding capability information further indicates a maximum processing capability of the terminal to perform blind decoding on the PDCCH within a second unit time; the first unit time is greater than the second unit time; wherein the second unit time comprises at least one of: at least one mini-slot, and at least one OFDM symbol; and the PDCCH blind decoding capability information further indicates a maximum number of blind decodings that the terminal is capable within the second unit time.
A method for detecting a recorded biometric information, the method comprising: - preparing a spectrogram S n,k of the recorded speech biometric information, wherein the spectrogram S n,k is an N x K matrix, where S n,k is a log-amplitude of the spectrogram at a given time frame n and frequency bin k; the method being characterized in that it further comprises the steps of: - normalizing the spectrogram by its mean spectral value; - subjecting the spectrogram to high-pass digital filtering; - extracting a local maxima pair; and - calculating a similarity by comparing the output of the local maxima pair extraction with a previously stored data. - preparing a spectrogram S n,k of the recorded speech biometric information, wherein the spectrogram S n,k is an N x K matrix, where S n,k is a log-amplitude of the spectrogram at a given time frame n and frequency bin k; - normalizing the spectrogram by its mean spectral value; - subjecting the spectrogram to high-pass digital filtering; - extracting a local maxima pair; and - calculating a similarity by comparing the output of the local maxima pair extraction with a previously stored data.
A method for producing mixed virus occlusion derived virions that comprise genomes from at least two different baculovirus species co-wrapped in the same virion, and/or for producing virus occlusion bodies in which at least one of said mixed virus occlusion derived virions is occluded, wherein all the infecting baculoviruses are multiple nucleopolyhedrovirus, and wherein virus occlusion bodies are produced by: a. co-infecting larvae or culture cells of an insect species with the baculovirus genomes to be co-wrapped in at least one of the produced occlusion derived virions, wherein each baculovirus genome belonging to one particular species can be in the same or in a different ODV than the other one; b. rearing the infected larvae or cultivating the cells until death by polyhedrosis; c. isolating the produced OBs from the larvae or cultivated cells after their death; wherein the cells or larvae are susceptible to infection by any of the baculoviruses whose genomes are to be co-wrapped in at least one of the produced occlusion derived virions. a. co-infecting larvae or culture cells of an insect species with the baculovirus genomes to be co-wrapped in at least one of the produced occlusion derived virions, wherein each baculovirus genome belonging to one particular species can be in the same or in a different ODV than the other one; b. rearing the infected larvae or cultivating the cells until death by polyhedrosis; c. isolating the produced OBs from the larvae or cultivated cells after their death;
A method of producing a microchannel chip, the method comprising: providing a substrate made of carbon, which has a channel in its surface; providing a cover composed of a glass plate; and heating at least a part of a contact surface at which said substrate is in contact with said cover to bond said glass plate to said substrate without using an adhesive. providing a substrate made of carbon, which has a channel in its surface; providing a cover composed of a glass plate; and heating at least a part of a contact surface at which said substrate is in contact with said cover to bond said glass plate to said substrate without using an adhesive.
Test device for testing a human or animal sample, such as blood or blood components, comprising a first part and a second part, comprising co-operating first and second coupling elements (4, 5) for coupling the first part with the second part, and a sample absorbing and/or adsorbing element, wherein the first part comprises a fluid reservoir, and wherein the second part comprises at least one receptacle, wherein the fluid reservoir is reducible in volume for forcing a liquid contained therein through and/or along the adsorbing and/or absorbing element, forcing the sample such as blood or components thereof from the adsorbing and/or absorbing element into the receptacle, preferably into contact with at least one reagent in the second part when the first and second part (2, 3) are connected or brought into connection with each other by at least the first and second coupling elements (4, 5).