mhurhangee/ep-ind-claims huggingface dataset:
A method for representing a space of interest of an audio scene, the method comprising: decoding audio scene data for the audio scene, the audio scene data including (i) audio content for a plurality of items representing the audio scene and (ii) a first syntax element indicating a type of a subset of the plurality of items is a type associated with a listener space, and (iii) a second syntax element indicating whether a subtype of the listener space is signaled; determining a part of the audio content for the subset of the plurality of items based on the type of the subset of the plurality of items associated with the listener space, as indicated in the first syntax element; and rendering the determined part of the audio content. decoding audio scene data for the audio scene, the audio scene data including (i) audio content for a plurality of items representing the audio scene and (ii) a first syntax element indicating a type of a subset of the plurality of items is a type associated with a listener space, and (iii) a second syntax element indicating whether a subtype of the listener space is signaled; determining a part of the audio content for the subset of the plurality of items based on the type of the subset of the plurality of items associated with the listener space, as indicated in the first syntax element; and rendering the determined part of the audio content.
A light emitting device comprising: a light emitting structure including a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a first electrode layer including: a first contact layer disposed under the light emitting structure; a reflective layer disposed under the first contact layer; and a capping layer disposed under the reflective layer; a second electrode layer electrically connected to the first conductivity type semiconductor layer; a protective layer disposed at an outer peripheral portion of a region between the capping layer and the light emitting structure; a barrier layer (21,23) disposed at an outer peripheral portion of the reflective layer; and a support member disposed under the capping layer, wherein the barrier layer (21,23) is formed of metal, and wherein the barrier layer (21,23) is disposed between a bottom surface of the light emitting structure and the capping layer, wherein the barrier layer (21, 23) contacts a bottom surface of the light emitting structure and a top surface of the capping layer. a light emitting structure including a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a first electrode layer including: a first contact layer disposed under the light emitting structure; a reflective layer disposed under the first contact layer; and a capping layer disposed under the reflective layer; a second electrode layer electrically connected to the first conductivity type semiconductor layer; a protective layer disposed at an outer peripheral portion of a region between the capping layer and the light emitting structure; a barrier layer (21,23) disposed at an outer peripheral portion of the reflective layer; and a support member disposed under the capping layer, wherein the barrier layer (21,23) is formed of metal, and wherein the barrier layer (21,23) is disposed between a bottom surface of the light emitting structure and the capping layer, wherein the barrier layer (21, 23) contacts a bottom surface of the light emitting structure and a top surface of the capping layer.
A tagged peptidic substrate for screening inhibitors of Plasmodium, wherein said peptidic substrate comprises an amino acid sequence cleavable by a protease comprising SEQ ID NO: 4, said peptidic substrate comprising the amino acid sequence K-L-V-G-A-D-D-V-S-L-A (SEQ ID NO: 9).
Multi-branch fitting, comprising at least three branches, obtained by molding a composite material, and more specifically a thermoplastic or thermosetting matrix reinforced with fibers, aimed at assembling parts forming between them an angle, which comprises at least three flat or substantially flat branches or wings (4, 31, 32) extending radially from a joining area, and at least one face or portion of a face (30, 41, 42) of which is shaped so as to form a resting face for one or several of said parts to be fastened, said joining area having, on the one hand, a cross-section in the transverse direction, i.e. perpendicular to the at least one of said branches or wings (4, 31, 32), having the shape of a polygon with concave sides, and the connection of each of said branches or wings (4, 31, 32) with another neighboring branch or wing (4, 31, 32) is performed, on the other hand, through a portion in the form of a curved blade (21, 22, 34), which provides said joining area with one of its concave shapes.
A method for transmitting signals in a wireless communication system, the method comprising: identifying a number of streams to be transmitted; determining a precoding algorithm based on whether a single stream is to be transmitted or multiple streams are to be transmitted; initializing the precoding algorithm to a complex matrix, wherein the precoding algorithm is used for precoding signals to be transmitted by a plurality of antennas; iteratively processing the precoding algorithm on a per-antenna basis by, at each iteration, sequentially updating a precoder for each of the plurality of antennas; after each iteration, determining whether the precoding algorithm has converged based on a change in a rate of mutual information across iterations; and in response to determining that the precoding algorithm converged, transmitting the signals by using the precoding algorithm. identifying a number of streams to be transmitted; determining a precoding algorithm based on whether a single stream is to be transmitted or multiple streams are to be transmitted; initializing the precoding algorithm to a complex matrix, wherein the precoding algorithm is used for precoding signals to be transmitted by a plurality of antennas; iteratively processing the precoding algorithm on a per-antenna basis by, at each iteration, sequentially updating a precoder for each of the plurality of antennas; after each iteration, determining whether the precoding algorithm has converged based on a change in a rate of mutual information across iterations; and in response to determining that the precoding algorithm converged, transmitting the signals by using the precoding algorithm.
A method for preparing compressed solid milk tablets, comprising the steps of a) compressing milk powder to obtain compressed solid milk units with a mechanical strength of between 10kPa and 300kPa, b) humidifying the compressed solid milk units by exposing said units in a humidifying chamber to humid air having a relative humidity of more than 95% and a temperature of between 60 and 90°C, wherein the humid air comprises condensed water droplets, wherein the exposure time of the solid milk units in the humidifying chamber is less than 5 seconds, and c) drying the humidified and compressed solid milk units to obtain compressed solid milk tablets. a) compressing milk powder to obtain compressed solid milk units with a mechanical strength of between 10kPa and 300kPa, b) humidifying the compressed solid milk units by exposing said units in a humidifying chamber to humid air having a relative humidity of more than 95% and a temperature of between 60 and 90°C, wherein the humid air comprises condensed water droplets, wherein the exposure time of the solid milk units in the humidifying chamber is less than 5 seconds, and c) drying the humidified and compressed solid milk units to obtain compressed solid milk tablets.
A head mounted display device comprising: a structural frame arranged generally along a first axis and a second axis for viewing along a third axis, the first, second, and third axes being mutually perpendicular, the structural frame including opposing upper and lower rims (136, 138) between which are defined left and right openings; left and right micro-displays coupled to the structural frame, and configured to project visual content in a substantially forward direction along the third axis toward the left and right openings, respectively, and away from a user; and left and right optical elements coupled to the structural frame and respectively positioned over the left and right openings and each including an at least partially reflective surface facing in a substantially rearward direction along the third axis, wherein the structural frame maintains the optical elements in alignment to define an optical light path for reflectively guiding a light ray bundle from the micro- displays to a user's eyes, and wherein the structural frame includes left and right pockets each extending downward from the upper rim along the second axis toward the lower rim and respectively containing the left and right micro-displays. a structural frame arranged generally along a first axis and a second axis for viewing along a third axis, the first, second, and third axes being mutually perpendicular, the structural frame including opposing upper and lower rims (136, 138) between which are defined left and right openings; left and right micro-displays coupled to the structural frame, and configured to project visual content in a substantially forward direction along the third axis toward the left and right openings, respectively, and away from a user; and left and right optical elements coupled to the structural frame and respectively positioned over the left and right openings and each including an at least partially reflective surface facing in a substantially rearward direction along the third axis, wherein the structural frame maintains the optical elements in alignment to define an optical light path for reflectively guiding a light ray bundle from the micro- displays to a user's eyes, and wherein the structural frame includes left and right pockets each extending downward from the upper rim along the second axis toward the lower rim and respectively containing the left and right micro-displays.
A transmit power determining method, comprising: obtaining, by user equipment, UE, transmit power indication information of a first link, the transmit power indication information comprises first indication information of a first maximum transmit power of the UE; determining, by the UE, a first transmit power of control information and a second transmit power of data based on the transmit power indication information, wherein a sum of a linear value of the first transmit power and a linear value of the second transmit power is equal to the first maximum transmit power, and a difference between a transmit power on each physical resource block, PRB, of the control information and a transmit power on the each PRB of the data is equal to a third preset value; and sending, by the UE, the control information on the first link at the first transmit power, and sending the data on the first link at the second transmit power, wherein the control information and the data are in a same subframe. obtaining, by user equipment, UE, transmit power indication information of a first link, the transmit power indication information comprises first indication information of a first maximum transmit power of the UE; determining, by the UE, a first transmit power of control information and a second transmit power of data based on the transmit power indication information, wherein a sum of a linear value of the first transmit power and a linear value of the second transmit power is equal to the first maximum transmit power, and a difference between a transmit power on each physical resource block, PRB, of the control information and a transmit power on the each PRB of the data is equal to a third preset value; and sending, by the UE, the control information on the first link at the first transmit power, and sending the data on the first link at the second transmit power, wherein the control information and the data are in a same subframe.
Method of printing at least one transparent area on a major surface of a non-coated paper or cardboard substrate, wherein an optical transmittance, as measured with spectrophotometry, through said substrate at a printed transparent area is at least 20% higher than through the substrate at a non-printed area of the same paper or cardboard substrate at a wavelength in the electromagnetic spectrum of wavelengths from 400 nm to 1000 nm that, the method comprising: - contacting at least one area of a major surface of the non-coated paper or cardboard substrate with a polymerizing and drying or semi-drying oil composition using a printing press such as flexographic printing, silk screen printing, stream printing, planographic printing (offset), inkjet, wherein the amount of oil in the oil composition is at least 10%, the oil in the oil composition has a diffractive index of 1.4 to 1.6, and the at least one area ranges in size from 100 μm 2 to an entire area of the major surface of the substrate, - allowing the oil composition to penetrate through the thickness of the substrate, and - drying the at least one printed area, forming at least one printed transparent area on the substrate, whereby any content in a packaging or envelope formed by such substrate is visible from the outside through said at least one printed transparent area. - contacting at least one area of a major surface of the non-coated paper or cardboard substrate with a polymerizing and drying or semi-drying oil composition using a printing press such as flexographic printing, silk screen printing, stream printing, planographic printing (offset), inkjet, wherein the amount of oil in the oil composition is at least 10%, the oil in the oil composition has a diffractive index of 1.4 to 1.6, and the at least one area ranges in size from 100 μm 2 to an entire area of the major surface of the substrate, - allowing the oil composition to penetrate through the thickness of the substrate, and - drying the at least one printed area, forming at least one printed transparent area on the substrate, whereby any content in a packaging or envelope formed by such substrate is visible from the outside through said at least one printed transparent area.
A method of liquid characterisation using an optical characterisation system, the optical characterisation system comprising: - an optical element comprising a light source and light detector, and defining a light path extending between the light source and light detector, the detector being able to resolve light intensities at varying wavelengths; - a liquid container comprising first and second container surfaces defining at least part of an interior of the liquid container, at least part of the first and second container surfaces being transparent and parallel; and - a photonic crystal being attached to or being integrally formed with the first container surface and facing the interior, the photonic crystal comprising a first grating part having a first modulation period defined in a first plane, wherein the method comprises the steps of: - recording a first transmission spectrum, wherein at least part of the first and second container surfaces, the interior containing liquid and the photonic crystal intercept the light path, and the interior intercepts the light path before the photonic crystal; and - recording a second transmission spectrum, wherein at least part of the first and second container surfaces, the interior containing liquid and the photonic crystal intercept the light path, and the photonic crystal intercepts the light path before the interior, and in that the method comprises a step of deriving a quantitative measure of scattering from any particles in the liquid by analysing the first and second transmission spectra, and in that the method comprises a step of deriving the average size of particles in the liquid comprising comparatively analysing the first and second transmission spectra, and/or a step of deriving the size distribution of particles in the liquid comprising comparatively analysing the first and second transmission spectra. - an optical element comprising a light source and light detector, and defining a light path extending between the light source and light detector, the detector being able to resolve light intensities at varying wavelengths; - a liquid container comprising first and second container surfaces defining at least part of an interior of the liquid container, at least part of the first and second container surfaces being transparent and parallel; and - a photonic crystal being attached to or being integrally formed with the first container surface and facing the interior, the photonic crystal comprising a first grating part having a first modulation period defined in a first plane, wherein the method comprises the steps of: - recording a first transmission spectrum, wherein at least part of the first and second container surfaces, the interior containing liquid and the photonic crystal intercept the light path, and the interior intercepts the light path before the photonic crystal; and - recording a second transmission spectrum, wherein at least part of the first and second container surfaces, the interior containing liquid and the photonic crystal intercept the light path, and the photonic crystal intercepts the light path before the interior,
A method for transmitting uplink control information by a user equipment on a physical uplink control channel (PUCCH) in a wireless communication system using carrier aggregation, the method comprising: performing channel coding on information bits of the UCI to generate encoding information bits, wherein the information bits of the UCI include concatenation of hybrid automatic repeat request (HARQ)-ACK(acknowledgement) information bits for each of serving cells and a scheduling request, and wherein the SR is appended at the end of the concatenated HARQ-ACK information bits; scrambling the encoding information bits based on a user equipment -specific scrambling sequence to generate scrambled bits; modulating the scrambled bits to generate complex modulation symbols; block-wise spreading the complex modulation symbols on the basis of an orthogonal sequence; and transmitting the spread complex modulation symbols to a base station. performing channel coding on information bits of the UCI to generate encoding information bits, wherein the information bits of the UCI include concatenation of hybrid automatic repeat request (HARQ)-ACK(acknowledgement) information bits for each of serving cells and a scheduling request, and wherein the SR is appended at the end of the concatenated HARQ-ACK information bits; scrambling the encoding information bits based on a user equipment -specific scrambling sequence to generate scrambled bits; modulating the scrambled bits to generate complex modulation symbols; block-wise spreading the complex modulation symbols on the basis of an orthogonal sequence; and transmitting the spread complex modulation symbols to a base station.
An actuator, comprising: a housing; a ball screw engaged with the housing; a tie rod disposed in the ball screw; and a bearing having an interference fit with the tie rod and a clearance fit with the ball screw; characterized in that the actuator further comprises: a plurality of friction springs (20, 22) in the ball screw and around the tie rod. a housing; a ball screw engaged with the housing; a tie rod disposed in the ball screw; and a bearing having an interference fit with the tie rod and a clearance fit with the ball screw; characterized in that the actuator further comprises: a plurality of friction springs (20, 22) in the ball screw and around the tie rod.
Device for processing an initial liquid medium comprising cells in an initial concentration in order to obtain a product liquid medium comprising cells in a product concentration, the device comprising - a separator adapted to separate the initial liquid medium into various constituents, - a first supply system for supplying the initial liquid medium to the separator, - a first outlet system for extracting the product liquid medium from the separator, - a sensor (22, 22') adapted to measure a physical parameter related to the concentration of the cells in the initial or product liquid medium (4, 4'), and - a control unit coupled to the sensor (22, 22') and adapted to control at least one process parameter of the device as a function of the physical parameter measured by the sensor (22, 22'), characterized by a second supply system for supplying a solution to the separator with a given flow rate wherein the flow rate of the solution in the second supply system during its supply to the separator is determined based on the at least one process parameter. - a separator adapted to separate the initial liquid medium into various constituents, - a first supply system for supplying the initial liquid medium to the separator, - a first outlet system for extracting the product liquid medium from the separator, - a sensor (22, 22') adapted to measure a physical parameter related to the concentration of the cells in the initial or product liquid medium (4, 4'), and - a control unit coupled to the sensor (22, 22') and adapted to control at least one process parameter of the device as a function of the physical parameter measured by the sensor (22, 22'),
A poly(amide-imide) copolymer composition, comprising an imide of a polyamic acid resulting from copolymerizing an aromatic diamine monomer, an aromatic dianhydride monomer, and an aromatic dicarbonyl monomer, and an ultraviolet stabilizer, wherein the aromatic dicarbonyl monomer is contained in an amount of 60 mol% or more to 99 mol% or less based on the total moles of the aromatic dianhydride monomer and the aromatic dicarbonyl monomer, and the aromatic dicarbonyl monomer consists of 0 to 35 mol% of 4,4'-biphenyldicarbonyl chloride, 5 to 40 mol% of isophthaloyl chloride, and 60 to 95 mol% of terephthaloyl chloride. wherein the aromatic dicarbonyl monomer is contained in an amount of 60 mol% or more to 99 mol% or less based on the total moles of the aromatic dianhydride monomer and the aromatic dicarbonyl monomer, and the aromatic dicarbonyl monomer consists of 0 to 35 mol% of 4,4'-biphenyldicarbonyl chloride, 5 to 40 mol% of isophthaloyl chloride, and 60 to 95 mol% of terephthaloyl chloride.
A high power/current electrical connector including a first (1, 31) and second (2, 30) assembly that are matable with one another by a sliding push fit to establish electrical interconnection between the two assemblies, the first assembly (1, 31) including a male contact pin element (16, 32) and a collar extending concentrically around the pin element (16, 32) to define a recess there between, the collar supporting on its inner surface first resilient contact means, the second assembly (2, 30) including a sleeve (24, 33) open at least at one end such that the sleeve can be received in the recess of the first assembly, the sleeve (24, 33) supporting on its inner surface second resilient contact means, the two assemblies being arranged such that when the second assembly (2, 30) is inserted within the first assembly (1, 31), the first resilient contact means makes sliding electrical contact with an external surface of the sleeve (24, 33) of the second assembly (2, 30) and the second resilient contact means makes sliding electrical contact with the external surface of the pin element (16, 32) of the first assembly, and where the first assembly (1, 31) is manufactured from a solid metal body; characterised in that the collar on the first assembly (1, 31) is longer than the pin element (16, 32) on the first assembly, the first resilient contact means including a plurality of spring contact wires.