mhurhangee/ep-ind-claims huggingface dataset:
A service data processing method, comprising: receiving, by a server, user speech information collected by a first terminal, and obtaining a target service operation code according to the user speech information, wherein the first terminal is a screenless terminal device or a terminal device without a character input function, the target service operation code is used for identifying target service operation information; transmitting, by the server, the target service operation code to the first terminal, so that the first terminal plays the target service operation code by using a speech; and receiving, by the server, the speech collected and transmitted by a second terminal, extracting the target service operation code from the speech, searching for a target execution page corresponding to the target service operation code, and transmitting the target execution page to the second terminal, so that the second terminal executes a service operation corresponding to the target service operation information in the target execution page, wherein the second terminal is a screened terminal device with the character input function. receiving, by a server, user speech information collected by a first terminal, and obtaining a target service operation code according to the user speech information, wherein the first terminal is a screenless terminal device or a terminal device without a character input function, the target service operation code is used for identifying target service operation information; transmitting, by the server, the target service operation code to the first terminal, so that the first terminal plays the target service operation code by using a speech; and receiving, by the server, the speech collected and transmitted by a second terminal, extracting the target service operation code from the speech, searching for a target execution page corresponding to the target service operation code, and transmitting the target execution page to the second terminal, so that the second terminal executes a service operation corresponding to the target service operation information in the target execution page, wherein the second terminal is a screened terminal device with the character input function.
A method for uplink data transmission comprising: obtaining, by a user equipment, UE, at least one diversity channel (204, 206) for uplink grant free data transmission, the at least one diversity channel (204, 206) comprising uplink grant free transmission resources assigned to the UE, the uplink grant free transmission resources comprising one or more positions corresponding to partitions of an access region (200, 300) and one or more positions corresponding to resource elements, REs, in each partition of the access region (200, 300); transmitting, by the UE, an uplink initial data transmission and a subsequent transmission in the at least one diversity channel (204, 206) without receiving grant information from a network equipment; wherein the at least one diversity channel (204, 206) is a two-level diversity channel (204, 206) obtained by using functions f1 and f2: f1(m1,N1), where m1 is the number of partitions assigned for the diversity channel and N1 is the total number of partitions in the access region (200, 300); f2(m2,N2), where m2 is the number of REs that are assigned for the UE and N2 is the total number of REs in each partition. obtaining, by a user equipment, UE, at least one diversity channel (204, 206) for uplink grant free data transmission, the at least one diversity channel (204, 206) comprising uplink grant free transmission resources assigned to the UE, the uplink grant free transmission resources comprising one or more positions corresponding to partitions of an access region (200, 300) and one or more positions corresponding to resource elements, REs, in each partition of the access region (200, 300); transmitting, by the UE, an uplink initial data transmission and a subsequent transmission in the at least one diversity channel (204, 206) without receiving grant information from a network equipment; wherein the at least one diversity channel (204, 206) is a two-level diversity channel (204, 206) obtained by using functions f1 and f2: f1(m1,N1), where m1 is the number of partitions assigned for the diversity channel and N1 is the total number of partitions in the access region (200, 300); f2(m2,N2), where m2 is the number of REs that are assigned for the UE and N2 is the total number of REs in each partition.
A porous water-soluble nonionic cellulose ether having an average pore size of 36 μm or smaller and an average particle size of from 30 to 300 μm, where the average pore size is measurable using a mercury intrusion porosimeter on 0.05g of the cellulose ether at initial mercury pressure of 7 kPa, and where the average particle size is measurable using a laser diffraction particle size distribution analyser at a measurement concentration of 2% by weight, a measurement time of 2 seconds and a shape factor of 1.0.
A process for making a fluoropolymer coated polymeric substrate comprising: applying a liquid fluoropolymer coating composition to a polymeric substrate, said fluoropolymer coating composition comprising fluoropolymer selected from homopolymers and copolymers of vinyl fluoride and homopolymers and copolymers of vinylidene fluoride polymer; solvent; and compatible adhesive polymer comprising functional groups selected from carboxylic acid, sulfonic acid, aziridine, amine, isocyanate, melamine, epoxy, hydroxy, anhydride and mixtures thereof; said polymeric substrate comprising functional groups on its surface that interact with said compatible adhesive polymer to promote bonding of said fluoropolymer coating to said substrate, removing the solvent from said coating composition applied to said substrate to form a fluoropolymer coating on said substrate. applying a liquid fluoropolymer coating composition to a polymeric substrate, said fluoropolymer coating composition comprising fluoropolymer selected from homopolymers and copolymers of vinyl fluoride and homopolymers and copolymers of vinylidene fluoride polymer; solvent; and compatible adhesive polymer comprising functional groups selected from carboxylic acid, sulfonic acid, aziridine, amine, isocyanate, melamine, epoxy, hydroxy, anhydride and mixtures thereof; said polymeric substrate comprising functional groups on its surface that interact with said compatible adhesive polymer to promote bonding of said fluoropolymer coating to said substrate, removing the solvent from said coating composition applied to said substrate to form a fluoropolymer coating on said substrate.
A method for producing a multilayer material web with a decor synchronously structured surface, comprising the steps of: (a) providing a multilayer material web of a curable polymeric material, wherein the material web is provided on a surface side with a printed decor pattern, (b) applying a plastic film on the printed side of the printed material web used by means of an adhesive layer or an electrostatic fixing, (c) imprinting a pre-bulged pattern on the surface of the plastic film with a curable mass, so that the pre-bulged pattern is congruent with the printed decor pattern of the printed material web in plan view, (d) subsequent curing of the pre-bulged mass, so that a printed and surface-structured, multilayer material web is obtained, (e) pressing the multilayer material web obtained in step (d) such that the surface-printed pre-bulging together with the supporting plastic film penetrates into the underlying material of the multilayer material web such that pre-bulgings of the pre-bulged pattern produces a stamping arranged congruently with the printed decor pattern, and hardening or, respectively, crosslinking the web, and (f) subsequently peeling off the plastic film to obtain a decor synchronously structured decor surface having mechanical indentations in accordance with the printed decor pattern in the multilayer web. (a) providing a multilayer material web of a curable polymeric material, wherein the material web is provided on a surface side with a printed decor pattern, (b) applying a plastic film on the printed side of the printed material web used by means of an adhesive layer or an electrostatic fixing, (c) imprinting a pre-bulged pattern on the surface of the plastic film with a curable mass, so that the pre-bulged pattern is congruent with the printed decor pattern of the printed material web in plan view, (d) subsequent curing of the pre-bulged mass, so that a printed and surface-structured, multilayer material web is obtained, (e) pressing the multilayer material web obtained in step (d) such that the surface-printed pre-bulging together with the supporting plastic film penetrates into the underlying material of the multilayer material web such that pre-bulgings of the pre-bulged pattern produces a stamping arranged congruently with the printed decor pattern, and hardening or, respectively, crosslinking the web, and (f) subsequently peeling off the plastic film to obtain a decor synchronously structured decor surface having mechanical indentations in accordance with the printed decor pattern in the multilayer web.
A product developed to provide heat insulation and tile covering on the outer sidings of a building, comprising: - a tile on the outer front surface of the product - a polyurethane-based insulation material at the back part of the tile, characterized in that said insulation material is located within a surrounding wall, whereby the surrounding wall surrounding the insulation material, comprises one open front surface through which the insulation material is located within the surrounding wall and becomes the apparent surface until the tile is positioned on said insulation material and whereby all the other surfaces of said surrounding wall are closed surfaces, the product further comprising: - a mounting net located at the backmost surface of the product in a way that it overflows the product upwards and whereby the product is mountable onto a wall of the building, both by adhering it to the wall after applying cement-based, polyurethane, epoxy or plaster-based adhesive to its back and by attaching it also mechanically to the wall through its mounting net by means of wall plugs. - a tile on the outer front surface of the product - a polyurethane-based insulation material at the back part of the tile, characterized in that said insulation material is located within a surrounding wall, whereby the surrounding wall surrounding the insulation material, comprises one open front surface through which the insulation material is located within the surrounding wall and becomes the apparent surface until the tile is positioned on said insulation material and whereby all the other surfaces of said surrounding wall are closed surfaces, the product further comprising: - a mounting net located at the backmost surface of the product in a way that it overflows the product upwards and whereby the product is mountable onto a wall of the building, both by adhering it to the wall after applying cement-based, polyurethane, epoxy or plaster-based adhesive to its back and by attaching it also mechanically to the wall through its mounting net by means of wall plugs.
A photovoltaic generator with a plurality of parallel-connected fields, wherein each field comprises a plurality of parallel-connected strings of series-connected photovoltaic modules, characterised in that a portion of the photovoltaic modules of a string are short-circuitable via a short-circuit switch, the activation of which occurs when a predetermined voltage value on the string is exceeded, and that only a portion of the fields is provided with the short-circuit switch.
A T cell genetically modified to express a chimeric antigen receptor, wherein the CAR comprises an antigen binding domain, a transmembrane domain, and an intracellular signaling domain comprising a 4-1BB signaling domain, for use in a method of treating a disease, disorder or condition associated with an elevated expression of a tumor antigen, the method comprising administering a first-line therapy and a second-line therapy to a patient in need thereof, wherein the first-line therapy comprises administering to the patient an effective amount of said genetically modified T cell, wherein the appropriate second-line therapy is a cytokine inhibitory therapy which comprises administering to the patient an effective amount of a cytokine inhibitory compound in order to manage the toxicity resulting from administration of the genetically modified T cell to the patient, wherein the cytokine is selected from the group consisting of IL-1 (e.g. IL-1β), IL-2, IL-4, IL-5, IL-6, IL-8, IL-10, IL-12, IL-13, IL-15, IL-17, IL-1Ra, IL-2R, IFN-α, IFN-γ, MIP-1α, MIP-1β, MCP-1, GM-CSF, G-CSF, CXCL9, CXCL10, CXCR factors, VEGF, RANTES, EOTAXIN, EGF, HGF, FGF-β, CD40, CD40L, ferritin, and any combination thereof.
Work seat consisting of a bucket seat, a top and a bottom telescopic tube, a spring between these top and bottom telescopic tubes, a plate foot with a locking mechanism (23 to 25) mounted on the former and a rubber studs cap, characterized by the fact that the bottom and the top telescopic tubes interlock with each other via a mechanism consisting of an activation lever, a connection rod between the activation lever and the toothed lock, 2 connecting metal sheets, 2 movable toothed locks and 2 toothed rods that have been permanently molded into rivets in the interior wall of the top telescopic tube and which makes it possible to set up different seat heights while sitting in the seat thanks to the toothed rods and toothed locks that can be pivoted into and out of each other.
A light fixture comprising a housing member and a base member magnetically coupled to each other, wherein the housing member is provided for holding at least one light source and has at least one light opening for light from the at least one light source to exit the housing member, wherein the base member and the housing member are configured for moveably arranging a mounting part of the housing member in the base member, such that the housing member is tiltable with respect to the base member, and such that the housing member is rotatable around an axis of the base member, wherein the light fixture is provided with at least one spacer (29, 30), wherein the at least one spacer (29, 30) is provided for maintaining a predetermined distance between the housing member and the base member, such that direct contact between the housing member and the base member is prevented while the magnetic coupling between the housing member and the base member remains active, and wherein the at least one spacer (29,30) is in a predetermined soft material enabling the tilting and rotating of the housing member with respect to the base member without scratching, characterised in that the base member comprises a static part and a rotating part, wherein the static part is provided for being fixed to a surface, wherein the rotating part is rotatably mounted on the static part and provided for following the rotation of the housing member around the axis of the base member, and wherein for providing said magnetic coupling at least one magnet is provided on the rotating part of the base member and the mounting part of the housing member comprises a material which is attracted towards magnets, or at least one magnet is provided on the mounting part of the housing member and the rotating part of the base member comprises a material which is attracted towards magnets.
Diagnostic test method for the detection of an E7 protein of a human papilloma virus in a biological sample characterized in that in a sandwich enzyme linked immunosorbent assay (ELISA) as capture antibody at least three different rabbit monoclonal antibodies which bind to at least three different epitopes are used and as detection antibody at least two different polyclonal anti E7 antibodies which are obtained by immunization with different antigens derived from different HPV types are used.
A socket-shaft connection assembly for motorsport pneumatic impact wrench comprising a socket-holding shaft, a socket, a fixing element for connecting said socket to said socket-holding shaft along an axis of said socket-holding shaft, characterized in that: - said socket-holding shaft and said socket comprise respective grooved profiles (P3, P4) cooperating for torque transmission between said socket-holding shaft and said socket; - said fixing element is conformed to exert a force in the direction of the axis of the socket-holding shaft to connect said socket to said socket-holding shaft; - on said fixing element, on said socket-holding shaft and on said socket a plurality of coupling conical surfaces (V-B, B-A) are obtained for centering said socket on said socket-holding shaft, wherein said coupling conical surfaces (V-B, B-A) are distinct from said grooved profiles (P3, P4). - said socket-holding shaft and said socket comprise respective grooved profiles (P3, P4) cooperating for torque transmission between said socket-holding shaft and said socket; - said fixing element is conformed to exert a force in the direction of the axis of the socket-holding shaft to connect said socket to said socket-holding shaft; - on said fixing element, on said socket-holding shaft and on said socket a plurality of coupling conical surfaces (V-B, B-A) are obtained for centering said socket on said socket-holding shaft, wherein said coupling conical surfaces (V-B, B-A) are distinct from said grooved profiles (P3, P4).
A sound signal processing apparatus for enhancing a sound signal from a target source, the sound signal processing apparatus comprising: a plurality of microphones (101a-f), wherein each microphone (101a-f) is configured to receive the sound signal from the target source; an estimator configured, in use, to estimate a first power measure on the basis of the sound signal from the target source received by a first microphone (101a-f) of the plurality of microphones (101a-f) and a second power measure on the basis of the sound signal from the target source received by at least a second microphone (101a-f) of the plurality of microphones (101a-f), which, in use, is located more distant from the target source than the first microphone (101a-f), wherein the estimator is further configured to determine a gain factor on the basis of a ratio between the second power measure and the first power measure; and an amplifier configured to apply the gain factor to the sound signal from the target source received by the first microphone (101a-f); characterized in that the estimator is configured to estimate the first power measure on the basis of a plurality of band-limited power measures in a plurality of frequency bands of the sound signal from the target source received by the first microphone (101a-f) and a plurality of probabilities defining the likelihood of the target source being active in the plurality of frequency bands. a plurality of microphones (101a-f), wherein each microphone (101a-f) is configured to receive the sound signal from the target source; an estimator configured, in use, to estimate a first power measure on the basis of the sound signal from the target source received by a first microphone (101a-f) of the plurality of microphones (101a-f) and a second power measure on the basis of the sound signal from the target source received by at least a second microphone (101a-f) of the plurality of microphones (101a-f), which, in use, is located more distant from the target source than the first microphone (101a-f), wherein the estimator is further configured to determine a gain factor on the basis of a ratio between the second power measure and the first power measure; and an amplifier configured to apply the gain factor to the sound signal from the target source received by the first microphone (101a-f); characterized in that the estimator is configured to estimate the first power measure on the basis of a plurality of band-limited power measures in a plurality of frequency bands of the sound signal from the target source received by the first microphone (101a-f) and a plurality of probabilities defining the likelihood of the target source being active in the plurality of frequency bands.
A method of differentiating retinal layers, comprising: step S20 of obtaining an optical coherence tomography retinal layer image of an eye to be examined and inputting it into a deep neural network; step S22 of calculating a probability P that each pixel is included in each layer from the inputted layer image; characterised by: step S24 of calculating a probability P1(x, y) that a pixel at the coordinate (x, y) is in or above (k-1)-th layer and a probability P2(x, y) that the pixel is in or below k-th layer from probabilities P(x, y) that the pixel at the coordinate (x, y) is included in each layer; step S26 of calculating a probability F k-1,k (x, y) that the pixel becomes a boundary line between the (k-1)-th layer and the k-th layer from the probability P1(x, y) that the pixel is in or above the (k-1)-th layer and the probability P2(x, y) that the pixel is in or below the k-th layer; step S28 of obtaining a node cost C k-1,k (x, y) of the pixel by multiplying the probability F k-1,k (x, y) that the pixel at the position (x, y) becomes the boundary line between the (k-1)-th layer and the k-th layer with an image brightness change ΔI at the pixel; and step S30 of determining the boundary line between the (k-1)-th layer and the k-th layer by connecting the coordinates (x, y) of the pixels where the node cost C k-1,k (x, y) calculated for each position x is the maximum. step S20 of obtaining an optical coherence tomography retinal layer image of an eye to be examined and inputting it into a deep neural network; step S22 of calculating a probability P that each pixel is included in each layer from the inputted layer image; step S24 of calculating a probability P1(x, y) that a pixel at the coordinate (x, y) is in or above (k-1)-th layer and a probability P2(x, y) that the pixel is in or below k-th layer from probabilities P(x, y) that the pixel at the coordinate (x, y) is included in each layer; step S26 of calculating a probability F k-1,k (x, y) that the pixel becomes a boundary line between the (k-1)-th layer and the k-th layer from the probability P1(x, y) that the pixel is in or above the (k-1)-th layer and the probability P2(x, y) that the pixel is in or below the k-th layer; step S28 of obtaining a node cost C k-1,k (x, y) of the pixel by multiplying the probability F k-1,k (x, y) that the pixel at the position (x, y) becomes the boundary line between the (k-1)-th layer and the k-th layer with an image brightness change ΔI at the pixel; and step S30 of determining the boundary line between the (k-1)-th layer and the k-th layer by connecting the coordinates (x, y) of the pixels where the node cost C k-1,k (x, y) calculated for each position x is the maximum.