mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: identifying , at a user equipment, UE, a configuration for reporting measurements for channel selection assistance to a base station, wherein the configuration comprises respective timing information for at least one frequency channel indicating a plurality of measurement periods with suppressed transmission from the base station to the UE on the at least one frequency channel; performing wide-band measurements of received power for the at least one frequency channel during the plurality of measurement periods with suppressed transmission from the base station to the UE; filtering the wide-band measurements to obtain respective filtered wide-band received power for the at least one frequency channel; and reporting the filtered wide-band received power to the base station. identifying , at a user equipment, UE, a configuration for reporting measurements for channel selection assistance to a base station, wherein the configuration comprises respective timing information for at least one frequency channel indicating a plurality of measurement periods with suppressed transmission from the base station to the UE on the at least one frequency channel; performing wide-band measurements of received power for the at least one frequency channel during the plurality of measurement periods with suppressed transmission from the base station to the UE; filtering the wide-band measurements to obtain respective filtered wide-band received power for the at least one frequency channel; and reporting the filtered wide-band received power to the base station.
A flutter damper (102, 102A; 234) for a turbofan engine , the flutter damper comprising: a chamber (118; 236) configured to fluidly communicate with a gas flow of the turbine engine , wherein the chamber is configured for peak acoustical energy absorption at a frequency range that is associated with one or more fan flutter modes, characterized in that : the chamber is filled with an open celled foam bulk damper , and in that a plurality of gas passages span mutually unique depths into the open celled bulk material from a surface of the open celled bulk material that faces the gas flow. a chamber (118; 236) configured to fluidly communicate with a gas flow of the turbine engine , wherein the chamber is configured for peak acoustical energy absorption at a frequency range that is associated with one or more fan flutter modes, characterized in that : the chamber is filled with an open celled foam bulk damper , and in that a plurality of gas passages span mutually unique depths into the open celled bulk material from a surface of the open celled bulk material that faces the gas flow. the chamber is filled with an open celled foam bulk damper , and in that a plurality of gas passages span mutually unique depths into the open celled bulk material from a surface of the open celled bulk material that faces the gas flow.
A method of mitigating headlight blinding during travel of a plurality of vehicles (202, 208; 302, 304), the method comprising: wirelessly sending vehicle data from a vehicle among the plurality of vehicles , wherein the vehicle data includes data regarding the geographic location of the vehicle to a remote server ; receiving , at the remote server , location information from the vehicle and from other vehicles ; based on the received location information, calculating , at the remote server , vehicle trajectories ; based on the received location information and the calculated vehicle trajectories, determining, at the remote server , that the vehicle and an approaching vehicle are at least a first distance apart on a roadway and that their respective trajectories are towards each other, wherein the determining further includes determining that no vehicles are located on the roadway between the vehicle and the approaching vehicle ; and based on that determination, generating , at the remote server, a warning signal; receiving , at at least one of the vehicle and the approaching vehicle , the warning signal from the remote server indicating the approaching vehicle; and automatically taking a headlight mitigation action at the at least one of the vehicle and the approaching vehicle in response to the warning signal. wirelessly sending vehicle data from a vehicle among the plurality of vehicles , wherein the vehicle data includes data regarding the geographic location of the vehicle to a remote server ; receiving , at the remote server , location information from the vehicle and from other vehicles ; based on the received location information, calculating , at the remote server , vehicle trajectories ; based on the received location information and the calculated vehicle trajectories, determining, at the remote server , that the vehicle and an approaching vehicle are at least a first distance apart on a roadway and that their respective trajectories are towards each other, wherein the determining further includes determining that no vehicles are located on the roadway between the vehicle and the approaching vehicle ; and based on that determination, generating , at the remote server, a warning signal; receiving , at at least one of the vehicle and the approaching vehicle , the warning signal from the remote server indicating the approaching vehicle; and automatically taking a headlight mitigation action at the at least one of the vehicle and the approaching vehicle in response to the warning signal.
A method for establishing an HTTP-OTA session (HS) between a secure element connected to a mobile device and an HTTP-OTA platform within a mobile network, where HTTP stands for Hypertext Transfer Protocol and OTA stands for Over The Air, wherein - the HTTP-OTA platform initiates a transmission of a first notification (N1) to the mobile device ; - triggered by the first notification (N1) received in the mobile device , a second notification (N2) comprising one or more predetermined STK events (EV) and/or one or more predetermined STK commands (CO) is transmitted by the mobile device to the secure element , where STK stands for SIM Application Toolkit; - triggered by the second notification (N2) received in the secure element , an HTTP-OTA session (HS) with the HTTP-OTA platform is initiated by the secure element ; characterized in that the first notification (N1) is a voice call (VC) to a special designated number. - the HTTP-OTA platform initiates a transmission of a first notification (N1) to the mobile device ; - triggered by the first notification (N1) received in the mobile device , a second notification (N2) comprising one or more predetermined STK events (EV) and/or one or more predetermined STK commands (CO) is transmitted by the mobile device to the secure element , where STK stands for SIM Application Toolkit; - triggered by the second notification (N2) received in the secure element , an HTTP-OTA session (HS) with the HTTP-OTA platform is initiated by the secure element ; characterized in that the first notification (N1) is a voice call (VC) to a special designated number.
A system for detecting inflammation in tissue , the system comprising: a light emitter ; a diffuse reflective spectroscopy probe having a source-detector distance between 300 μm-2000 μm; and a plurality of detectors configured to detect: a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth. a light emitter ; a diffuse reflective spectroscopy probe having a source-detector distance between 300 μm-2000 μm; and a plurality of detectors configured to detect: a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth. a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth.
A compound comprising the general formula: X-L-[X-L] i -X, wherein i is an integer from 0 to 9, the value of which indicates the number of units of [X-L] i present in the compound, wherein each X is independently a targeting oligonucleotide of 8 to 50 nucleotides in length having a region of complementarity comprising at least 7 contiguous nucleotides complementary to a target region of a mRNA target sequence, and each L is a linker that links at least two Xs and that is more susceptible to cleavage in a mammalian extract than each X, wherein when i=0, and wherein the general formula is 5'X3'-L-5'X3' and when the target regions complementary to the first X and second X do not overlap in the mRNA target sequence, the 5'-end of the target region complementary to the first X and the 3'-end of the target region complementary to the second X are not within a distance of 0 to 4 nucleotides in the mRNA target sequence, wherein at least one L does not comprise an oligonucleotide and at least one L does not comprise a disulfide bond, for use in a therapeutic method of modulating the activity of a target gene in a liver cell, wherein the compound has increased concentration in the liver and reduced clearance by kidneys as compared to respective monomeric targeting oligonucleotides; wherein, optionally, the compound is linear, branched or circular.
Carbon composite component composed of a plastics - carbon-fibre composite material, made up of individual regions (Bl, B2, B3) extending in the plane of the component, wherein at least one ply is composed, in at least one of the regions, of carbon fibre composite material , and at least one further region comprises a ply which is composed of metal cords which are arranged spaced apart from one another in at least one direction, wherein plies composed of the metal cords are arranged on or between the plies of carbon fibre composite material , wherein the component has different regions (Bl, B2, B3), wherein only plies of carbon fibre composite material are provided in a first region (B1) of the component, wherein, in a second region (B2), the component has two plies of the metal cords, and/or, in a third region (B3), the component has one ply of the metal cords; characterized in that the metal cords form a bidirectional metal laid fabric .
A cooker appliance comprising a body , a cooking chamber provided in the body , in which materials to be cooked are placed, a chassis surrounding the cooking chamber , shaped as a box open on the front side, a heater provided in the cooking chamber , enabling cooking food products, and a baking stone made of refractory material, placed in the cooking chamber , having a support surface on which food products are placed, at least one heat sensor provided on the cooking chamber , enabling detecting temperature of the baking stone , characterized by a washing system provided on the chassis , enabling transmitting the water received from the mains or the baking stone and a control unit deciding dirtiness of the baking stone by comparing the temperature variation information predefined thereon by the producer with the information received from the heat sensor and enabling activating the washing system or alerting the user upon detecting dirtiness of the baking stone .
Multi-phase fluid separator exhibits an elongate housing having a first end and a second end, and with a circular cross-section and a longitudinal axis (L), wherein the housing exhibits a multi-phase fluid inlet at the first end of the housing , numerous fluid outlets (103', 103", 104', 104", 105', 105") downstream of the first end, a light phase outlet in center, and at least one flow-restricting means arranged inside the housing for guiding separated fluids in the housing out of respective fluid outlets (103', 103", 104', 104", 105', 105"), said fluid separator exhibiting a spin-up device arranged rotary inside the housing , arranged to rotate by a permanent magnet motor comprising numerous electromagnetic field producing means connected to an AC power source , and numerous permanent magnets distributed along the periphery of the rotary spin-up device , wherein the numerous permanent magnets being formed by numerous permanent north pole magnets and south pole magnets arranged in an alternating pattern along the periphery, characterized in that the spin-up device is shaft-less and is arranged adjacent to the first end of the housing , said shaft-less spin-up device comprising a rotary annular frame provided with numerous radially extending vanes , in that the permanent magnets are distributed along the outer periphery of the rotary frame and the electromagnetic field producing means are electromagnets arranged along exterior periphery of the housing and located radially outside the rotary annular frame , and in that said at least one flow-restricting means is arranged downstream the respective fluid outlets (103', 103", 104', 104", 105', 105") and is formed by a respective fluid phase weir protruding with a distance from the inner wall of the housing towards the center of the latter. the spin-up device is shaft-less and is arranged adjacent to the first end of the housing , said shaft-less spin-up device comprising a rotary annular frame provided with numerous radially extending vanes , in that the permanent magnets are distributed along the outer periphery of the rotary frame and the electromagnetic field producing means are electromagnets arranged along exterior periphery of the housing and located radially outside the rotary annular frame , and in that said at least one flow-restricting means is arranged downstream the respective fluid outlets (103', 103", 104', 104", 105', 105") and is formed by a respective fluid phase weir protruding with a distance from the inner wall of the housing towards the center of the latter.
An aqueous hair care composition capable of providing durable non-permanent hair styling and/or wash-resistant retention of shape of hair fibers comprising a polyelectrolyte complex having a gel matrix structure or a mixture of gel matrix and microgel formed by electrostatic attraction, wherein the polyelectrolyte complex comprises a complex between: A. 0.01 wt. % to 20 wt. % of at least one anionic polymer having a molecular weight of from 100,000 Daltons to 5000,000 Daltons and being a diacid or half ester of methyl vinyl ether / maleic anhydride (MVE/MA) copolymer; and B. 0.1 wt. % to 20 wt. % of at least one cationic polymer having a (i) molecular weight range of 80,000 Daltons to 5,000,000 Daltons, (ii) a charge density of less than 4.0 meg/gram and (iii) being polyquaternium-55 (PQ-55), wherein the charge ratio of (B) : (A) is more than 0.70. A. 0.01 wt. % to 20 wt. % of at least one anionic polymer having a molecular weight of from 100,000 Daltons to 5000,000 Daltons and being a diacid or half ester of methyl vinyl ether / maleic anhydride (MVE/MA) copolymer; and B. 0.1 wt. % to 20 wt. % of at least one cationic polymer having a (i) molecular weight range of 80,000 Daltons to 5,000,000 Daltons, (ii) a charge density of less than 4.0 meg/gram and (iii) being polyquaternium-55 (PQ-55),
A binding machine comprising: a wire feeding unit configured to feed two wires (W) to be wound on an object to be bound; a binding unit comprising at least a pair of engaging members which are openable and closable, the binding unit configured to twist the two wires engaged by closing the pair of the engaging members ; and a control unit configured to execute an operation of releasing a parallel alignment state of the two wires (W) in an opening/closing direction of the pair of engaging members , characterized in that the control unit is configured to estimate a parallel alignment state of the two wires passing between the pair of engaging members , and when it is estimated that the two wires (W) are aligned in parallel in the opening/closing direction of the pair of engaging members , the control unit executes the operation of releasing the parallel alignment state of the two wires in the opening/closing direction of the pair of engaging members . a wire feeding unit configured to feed two wires (W) to be wound on an object to be bound; a binding unit comprising at least a pair of engaging members which are openable and closable, the binding unit configured to twist the two wires engaged by closing the pair of the engaging members ; and a control unit configured to execute an operation of releasing a parallel alignment state of the two wires (W) in an opening/closing direction of the pair of engaging members , characterized in that the control unit is configured to estimate a parallel alignment state of the two wires passing between the pair of engaging members , and when it is estimated that the two wires (W) are aligned in parallel in the opening/closing direction of the pair of engaging members , the control unit executes the operation of releasing the parallel alignment state of the two wires in the opening/closing direction of the pair of engaging members .
A method of manufacturing a part, the method comprising the steps of: providing an apparatus, the apparatus comprising: a skin component formed of a metal sheet having a first side and a second side; a HIP can formed of metal and having a first side and a second side ; wherein the second side of the HIP can is joined to the first side of the skin component, and wherein the HIP can defines a sealed volume and wherein the HIP can comprises a filling means to fill the sealed volume with metal powder; wherein there is a hollow space between a portion of the second side of the HIP can and a portion of the first side of the skin component , and the apparatus comprises a vent into the hollow space to allow pressure applied during the HIP process to be communicated into the hollow space ; filling the HIP can with a metal powder; evacuating the HIP can; sealing the evacuated HIP can ; and applying a HIP process to the apparatus in a HIP chamber so as to form the part, and wherein the HIP can is not subsequently removed after the HIP process and wherein the skin component , the HIP can and the metal powder are formed from metals with the same thermal expansion coefficient ± 15% differential. providing an apparatus, the apparatus comprising: a skin component formed of a metal sheet having a first side and a second side; a HIP can formed of metal and having a first side and a second side ; wherein the second side of the HIP can is joined to the first side of the skin component, and wherein the HIP can defines a sealed volume and wherein the HIP can comprises a filling means to fill the sealed volume with metal powder; wherein there is a hollow space between a portion of the second side of the HIP can and a portion of the first side of the skin component , and the apparatus comprises a vent into the hollow space to allow pressure applied during the HIP process to be communicated into the hollow space ; a skin component formed of a metal sheet having a first side and a second side; a HIP can formed of metal and having a first side and a second side ; wherein the second side of the HIP can is joined to the first side of the skin component, and wherein the HIP can defines a sealed volume and wherein the HIP can comprises a filling means to fill the sealed volume with metal powder; wherein there is a hollow space between a portion of the second side of the HIP can and a portion of the first side of the skin component , and the apparatus comprises a vent into the hollow space to allow pressure applied during the HIP process to be communicated into the hollow space ; filling the HIP can with a metal powder; evacuating the HIP can; sealing the evacuated HIP can ; and applying a HIP process to the apparatus in a HIP chamber so as to form the part, and wherein the HIP can is not subsequently removed after the HIP process and wherein the skin component , the HIP can and the metal powder are formed from metals with the same thermal expansion coefficient ± 15% differential.
A computer-implemented method for forming a dataset configured for learning a Convolutional Neural Network (CNN) architecture, the CNN architecture comprising an image feature extractor, the method comprising: - providing (S10) pairs of images, each pair comprising a reference image and a respective denoised image; - for each pair of images: • providing (S20) the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing (S30) a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing (S40) an error map representing the computed difference, wherein computing (S40) the error map comprises: - down-sampling the resolution of the computed difference; and - computing the error map with the down-sampled resolution of the difference, each pixel of the error map having a color following a color scale that penalizes the computed difference, thereby obtaining a coarse error map; and • adding (S50) the respective denoised image and the error map to the dataset. - providing (S10) pairs of images, each pair comprising a reference image and a respective denoised image; - for each pair of images: • providing (S20) the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing (S30) a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing (S40) an error map representing the computed difference, • providing (S20) the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing (S30) a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing (S40) an error map representing the computed difference, - down-sampling the resolution of the computed difference; and - computing the error map with the down-sampled resolution of the difference, each pixel of the error map having a color following a color scale that penalizes the computed difference, thereby obtaining a coarse error map; and • adding (S50) the respective denoised image and the error map to the dataset. • adding (S50) the respective denoised image and the error map to the dataset.