mhurhangee/ep-ind-claims huggingface dataset:
A cooling system for a gas turbine engine, the cooling system comprising: an inner vane support comprising a first surface and a second surface radially opposite the first surface; a flow guide coupled to the second surface of the inner vane support, wherein the flow guide comprises an outer surface and an inner surface radially opposite the outer surface; and a fastened inner duct coupled to the inner surface of the flow guide, wherein the fastened inner duct comprises a third surface and a fourth surface radially opposite the third surface, wherein the first surface of the inner vane support partially defines a first airflow path through the cooling system to provide a first airflow through the cooling system in use, wherein the second surface of the inner vane support and the outer surface of the flow guide define a second airflow path through the cooling system to provide a second airflow through the cooling system in use, and characterised in that the inner surface of the flow guide and the third surface of the fastened inner duct define a third airflow path through the cooling system to provide a third airflow through the cooling system in use, wherein the first, second and third airflow paths enable the thermal separation of the first, second and third airflows, such that airflows having different temperatures and/or volumetric flow rates can be separated and provided to different sections of a gas turbine engine in use. an inner vane support comprising a first surface and a second surface radially opposite the first surface; a flow guide coupled to the second surface of the inner vane support, wherein the flow guide comprises an outer surface and an inner surface radially opposite the outer surface; and a fastened inner duct coupled to the inner surface of the flow guide, wherein the fastened inner duct comprises a third surface and a fourth surface radially opposite the third surface, wherein the first surface of the inner vane support partially defines a first airflow path through the cooling system to provide a first airflow through the cooling system in use, wherein the second surface of the inner vane support and the outer surface of the flow guide define a second airflow path through the cooling system to provide a second airflow through the cooling system in use, and characterised in that the inner surface of the flow guide and the third surface of the fastened inner duct define a third airflow path through the cooling system to provide a third airflow through the cooling system in use, wherein the first, second and third airflow paths enable the thermal separation of the first, second and third airflows, such that airflows having different temperatures and/or volumetric flow rates can be separated and provided to different sections of a gas turbine engine in use.
A method for wireless communications performed by a user equipment, comprising: receiving transmissions in subframes from cells (102a...z); determining the subframes to include in a radio resource measurement based on resource partitioning information, RPI, for the cells (102a...z), the subframes including at least one protected subframe associated with a serving cell (102a...z); and performing the radio resource measurement for the determined subframes. receiving transmissions in subframes from cells (102a...z); determining the subframes to include in a radio resource measurement based on resource partitioning information, RPI, for the cells (102a...z), the subframes including at least one protected subframe associated with a serving cell (102a...z); and performing the radio resource measurement for the determined subframes.
An organic electronic device comprising two or more electrodes (1, 6, 9)facing each other on a substrate, and an organic functional layer that includes a hole injecting layer and/or a hole transporting layer situated between the electrodes (1, 6, 9), and comprising at least a hole injecting layer, wherein the hole injecting layer is a layer comprising molybdenum (Mo) oxide clusters selected from among {Mo 132}, {Mo 142}, {Mo 46}, {Mo 154}, {Mo 176}, {Mo 248} or {Mo 368} the molybdenum oxide clusters being mixed valence polyoxometalates, and wherein at least one hole injecting layer and/or hole transporting layer is a layer formed as a thin-film of a fluid material comprising an aqueous medium containing molybdenum oxide clusters.
A support structure in the form of a beam for turbojet engine nacelle in particular equipped with a thrust reverser device, comprising at least one base body made of composite material, the base body having a substantially open cross-section, characterized in that the base body comprises a plurality of reinforcements distributed along said structure, the reinforcements being made by integration in the draping of the beam by embossing of plies, each reinforcement having a core.
An implantable apparatus for reshaping a mitral valve annulus surrounding a mitral valve, comprising a tubular implant body (400; 600; 1906; 2107; 3000) comprising: a plurality of struts (636, 637; 676, 677; 1903; 2104) joined at proximal and distal apexes; a central lumen therethrough; anchors (632, 633; 1904; 2105) extending distally from the distal apexes joining the struts; and a plurality of mechanisms comprising an adjustable restraint (634; 671; 1902; 2106), a screw retainer (635; 673; 1901; 2102) and a screw (630; 670; 1900; 2103) that passes through said adjustable restraint and screw retainer, wherein each adjustable restraint is placed over adjacent struts (636, 637; 676, 677; 1903; 2104) that are joined at a proximal apex and threaded such that rotation of the screw moves the adjustable restraint up and down the adjacent struts, thereby adjusting the size and/or shape of the implant. a plurality of struts (636, 637; 676, 677; 1903; 2104) joined at proximal and distal apexes; a central lumen therethrough; anchors (632, 633; 1904; 2105) extending distally from the distal apexes joining the struts; and a plurality of mechanisms comprising an adjustable restraint (634; 671; 1902; 2106), a screw retainer (635; 673; 1901; 2102) and a screw (630; 670; 1900; 2103) that passes through said adjustable restraint and screw retainer, placed over adjacent struts (636, 637; 676, 677; 1903; 2104) that are joined at a proximal apex and threaded such that rotation of the screw moves the adjustable restraint up and down the adjacent struts, thereby adjusting the size and/or shape of the implant.
A method of transmitting data using phase-shift-based precoding in a multiple antenna system, the method comprising: receiving feedback information including a subcarrier index offset and a phase value offset, wherein the phase value offset corresponds to a difference between a previously fed-back phase value and an optimized phase value, and the corresponding subcarrier index offset indicates a subcarrier where a channel status is better than a channel status of a previous subcarrier; determining a diagonal matrix as a part of a phase-shift-based precoding matrix, wherein the diagonal matrix is determined by applying the subcarrier index offset and the phase value offset; selecting a first unitary matrix from a codebook as a part of the phase-shift-based precoding matrix; performing precoding using the phase-shift-based precoding matrix to symbols associated with the subcarrier indicated by the subcarrier index offset; and transmitting the precoded symbols, wherein the codebook comprises the first unitary matrix corresponding to a first spatial multiplexing rate and a second unitary matrix corresponding to a second spatial multiplexing rate, and wherein the second unitary matrix includes all columns of the first unitary matrix as a part of columns of the second unitary matrix when the second spatial multiplexing rate is higher than the first spatial multiplexing rate. receiving feedback information including a subcarrier index offset and a phase value offset, wherein the phase value offset corresponds to a difference between a previously fed-back phase value and an optimized phase value, and the corresponding subcarrier index offset indicates a subcarrier where a channel status is better than a channel status of a previous subcarrier; determining a diagonal matrix as a part of a phase-shift-based precoding matrix, wherein the diagonal matrix is determined by applying the subcarrier index offset and the phase value offset; selecting a first unitary matrix from a codebook as a part of the phase-shift-based precoding matrix; performing precoding using the phase-shift-based precoding matrix to symbols associated with the subcarrier indicated by the subcarrier index offset; and transmitting the precoded symbols, wherein the codebook comprises the first unitary matrix corresponding to a first spatial multiplexing rate and a second unitary matrix corresponding to a second spatial multiplexing rate, and wherein the second unitary matrix includes all columns of the first unitary matrix as a part of columns of the second unitary matrix when the second spatial multiplexing rate is higher than the first spatial multiplexing rate.
Gravimetric sensor comprising an electronic structure comprising: - a fixed part, - at least one part suspended from the fixed part, - excitation means arranged to vibrate the suspended part relative to the fixed part, - means of detecting variations in vibration of said suspended part, - a porous functionalisation layer intended to absorb gas molecules to be detected covering at least partially the suspended part, said porous functionalisation layer having a porosity between 3% and 50%. characterized in that the electronic structure is a nanoelectronic structure and in that the functionalisation layer is made of a SiOxCyHz type material, where - x is between 1 and 2, preferably between 1.4 and 1.8, - y is between 0.8 and 3, preferably between 1 and 2.5, - z is between 2.5 and 4.5, preferably between 3 and 4.1. - a fixed part, - at least one part suspended from the fixed part, - excitation means arranged to vibrate the suspended part relative to the fixed part, - means of detecting variations in vibration of said suspended part, - a porous functionalisation layer intended to absorb gas molecules to be detected covering at least partially the suspended part, said porous functionalisation layer having a porosity between 3% and 50%. - x is between 1 and 2, preferably between 1.4 and 1.8, - y is between 0.8 and 3, preferably between 1 and 2.5, - z is between 2.5 and 4.5, preferably between 3 and 4.1.
Method of MR imaging of an object placed in an examination volume of a MR device, the method comprising the steps of: subjecting the object to an imaging sequence, which comprises at least one excitation RF pulse and switched magnetic field gradients, wherein two echo signals, a first echo signal and a second echo signal, are generated at different echo times (TE1, TE2), acquiring the echo signals from the object, reconstructing a water image and/or a fat image from the echo signals, wherein contributions from water and fat to the echo signals are separated using a two-point Dixon technique in a first region of k-space, where the two-point Dixon technique is applied to both the first and second echo signals, and a single-point Dixon technique in a second region of k-space, where the single-point Dixon technique is applied to the first echo signal and/or the second echo signal, wherein the first region is different from the second region, and wherein the first k-space region covers a central portion of k-space, while the second k-space region covers a peripheral portion of k-space, the first and second k-space regions being determined according to the conditioning of the inverse problems of the two-point and single-point Dixon techniques in the respective k-space regions. subjecting the object to an imaging sequence, which comprises at least one excitation RF pulse and switched magnetic field gradients, wherein two echo signals, a first echo signal and a second echo signal, are generated at different echo times (TE1, TE2), acquiring the echo signals from the object, reconstructing a water image and/or a fat image from the echo signals, wherein contributions from water and fat to the echo signals are separated using a two-point Dixon technique in a first region of k-space, where the two-point Dixon technique is applied to both the first and second echo signals, and a single-point Dixon technique in a second region of k-space, where the single-point Dixon technique is applied to the first echo signal and/or the second echo signal, wherein the first region is different from the second region, and wherein the first k-space region covers a central portion of k-space, while the second k-space region covers a peripheral portion of k-space, the first and second k-space regions being determined according to the conditioning of the inverse problems of the two-point and single-point Dixon techniques in the respective k-space regions.
A process for the preparation of 2-(trihalomethyl) benzamide of Formula I, wherein X is selected from the group consisting of fluorine, chlorine, bromine and iodine; and R is hydrogen, said process comprising: a) reacting a compound of Formula II with a compound of Formula III in iso-propanol to obtain a reaction mixture; and R-NH 2 Formula III wherein X is selected from the group consisting of fluorine, chlorine, bromine and iodine; and R is hydrogen, b) isolating the compound of Formula I from the reaction mixture. a) reacting a compound of Formula II with a compound of Formula III in iso-propanol to obtain a reaction mixture; and R-NH 2 Formula III wherein X is selected from the group consisting of fluorine, chlorine, bromine and iodine; and R is hydrogen, b) isolating the compound of Formula I from the reaction mixture.
An immunoassay method for a human CXCL1 protein, by which human CXCL1 or a fragment thereof in a sample is measured using two or more types of anti-human CXCL1 monoclonal antibodies or antigen binding fragments thereof, wherein: the two or more types of anti-human CXCL1 monoclonal antibodies or antigen binding fragments thereof specifically recognize any one of the sequence regions of the amino acid sequences shown in SEQ ID NOS: 1-3 that are partial sequences of the amino acid sequence composing the human CXCL1 protein; and the two or more types of anti-human CXCL1 monoclonal antibodies or antigen binding fragments thereof specifically recognize sequence regions that differ from each other. the two or more types of anti-human CXCL1 monoclonal antibodies or antigen binding fragments thereof specifically recognize any one of the sequence regions of the amino acid sequences shown in SEQ ID NOS: 1-3 that are partial sequences of the amino acid sequence composing the human CXCL1 protein; and the two or more types of anti-human CXCL1 monoclonal antibodies or antigen binding fragments thereof specifically recognize sequence regions that differ from each other.
A molten iron manufacturing method comprising: supplying a discharge gas from a reduction reactor that converts iron ore to reduced iron; supplying a mixed gas that is obtained by mixing some branched discharge gas and a hydrocarbon gas; supplying a reformed gas by reforming the mixed gas; and injecting a reducing gas, discharged from a melter-gasifier connected with the reduction reactor to receive the reduced iron, and the reformed gas into the reduction reactor, characterized in that the supplying of the reformed gas includes supplying some of the reduced iron as a reforming reaction catalyst, and reforming the mixed gas by using the reforming reaction catalyst. supplying a discharge gas from a reduction reactor that converts iron ore to reduced iron; supplying a mixed gas that is obtained by mixing some branched discharge gas and a hydrocarbon gas; supplying a reformed gas by reforming the mixed gas; and injecting a reducing gas, discharged from a melter-gasifier connected with the reduction reactor to receive the reduced iron, and the reformed gas into the reduction reactor, characterized in that the supplying of the reformed gas includes supplying some of the reduced iron as a reforming reaction catalyst, and reforming the mixed gas by using the reforming reaction catalyst.
A method for continuously preparing biuret polyisocyanate, comprising the following steps: a) a mixed solution of a diisocyanate and a catalyst, and water vapour, in an aerosol form, are continuously reacted in a first reactor; wherein the continuous phase of the aerosol is the water vapour, the dispersed phase is the mixed solution of the diisocyanate and the catalyst, and the droplet size of the dispersed phase in the aerosol in step a) is 0.01-50μm; b) the product obtained in step a) is brought into a second reactor for a further reaction; a tail gas from the second reactor is condensed and refluxed, and the non-condensable gas is brought into a tail gas treatment system; c) the reaction liquid obtained in step b) is further reacted in a third reactor; d) a separation of the reaction liquid obtained in step c) is performed for removing monomers, so as to obtain biuret polyisocyanate. a) a mixed solution of a diisocyanate and a catalyst, and water vapour, in an aerosol form, are continuously reacted in a first reactor; wherein the continuous phase of the aerosol is the water vapour, the dispersed phase is the mixed solution of the diisocyanate and the catalyst, and the droplet size of the dispersed phase in the aerosol in step a) is 0.01-50μm; b) the product obtained in step a) is brought into a second reactor for a further reaction; a tail gas from the second reactor is condensed and refluxed, and the non-condensable gas is brought into a tail gas treatment system; c) the reaction liquid obtained in step b) is further reacted in a third reactor; d) a separation of the reaction liquid obtained in step c) is performed for removing monomers, so as to obtain biuret polyisocyanate.
A computer-implemented method for validating a pose of a robot and/or sensor data of a sensor moving with the robot for safeguarding the robot, wherein a robot controller determines the real pose of the robot, with which the robot controller operates for controlling the movement of the robot, and the sensor measures real sensor data, wherein a robot simulation virtually performs movements of the robot and thus determines a simulated pose of the robot by a simulated movement of the robot and a sensor simulation determines simulated sensor data of the sensor from the real pose or the simulated pose by a simulated sensor measurement, wherein the sensor simulation comprises an environment simulation of an environment (20, 22) of the robot and the simulated sensor data result from the interaction of the sensor simulation with the simulated environment, and wherein the validation is performed by at least one comparison of (a) a pose of the robot reconstructed from the simulated sensor data with the simulated pose of the robot, (b) real sensor data based on the real pose of the robot with simulated sensor data based on the simulated pose of the robot and/or (c) simulated sensor data with each other, wherein a comparison of simulated sensor data with each other is based on different scenarios, namely from a real pose of the robot and a simulated pose of the robot. (a) a pose of the robot reconstructed from the simulated sensor data with the simulated pose of the robot, (b) real sensor data based on the real pose of the robot with simulated sensor data based on the simulated pose of the robot and/or (c) simulated sensor data with each other, wherein a comparison of simulated sensor data with each other is based on different scenarios, namely from a real pose of the robot and a simulated pose of the robot.
An aqueous ink, for ink jet recording, comprising a pigment and a urethane resin, wherein the urethane resin comprises units respectively derived from a polyisocyanate, a polyol having no acid group, a polyol having acid group and a primary monoalcohol; the urethane resin has an acid value based on the unit present at a molecular terminal of the urethane resin and derived from the polyol having acid group of 20 mgKOH/g or less; and a rate (mol%) of the urethane bond formed by units derived from the polyisocyanate and the primary monoalcohol accounting for the total of the urethane bond and the urea bond in the urethane resin is 10 mol% or more to 15 mol% or less. the urethane resin comprises units respectively derived from a polyisocyanate, a polyol having no acid group, a polyol having acid group and a primary monoalcohol; the urethane resin has an acid value based on the unit present at a molecular terminal of the urethane resin and derived from the polyol having acid group of 20 mgKOH/g or less; and a rate (mol%) of the urethane bond formed by units derived from the polyisocyanate and the primary monoalcohol accounting for the total of the urethane bond and the urea bond in the urethane resin is 10 mol% or more to 15 mol% or less.
An orthopaedic implant system, comprising: an orthopaedic implant implantable at a selected location within a corporeal body and configured for delivering at least one therapeutic agent to said corporeal body, said implant including a reservoir and a plurality of channels, said reservoir configured for receiving said at least one therapeutic agent, said plurality of channels configured for conveying said at least one therapeutic agent from said reservoir to a treatment site relative to said corporeal body, characterized in that said implant is an external fixation device with an implantable pin and said external fixation device includes said implantable pin, a sheath coupled with said pin, and said reservoir coupled with said sheath, said pin defining said plurality of channels. an orthopaedic implant implantable at a selected location within a corporeal body and configured for delivering at least one therapeutic agent to said corporeal body, said implant including a reservoir and a plurality of channels, said reservoir configured for receiving said at least one therapeutic agent, said plurality of channels configured for conveying said at least one therapeutic agent from said reservoir to a treatment site relative to said corporeal body, characterized in that said implant is an external fixation device with an implantable pin and said external fixation device includes said implantable pin, a sheath coupled with said pin, and said reservoir coupled with said sheath, said pin defining said plurality of channels.
A computer-implemented method for detecting and interpreting a visual indicator appearing in an image captured by an image capture device, comprising: capturing image data using the image capture device associated with a user profile, the image data representing an object with an illuminated visual indicator; sending the image data from the image capture device to at least one remote device; identifying, by the at least one remote device, the object represented in the image data; determining, by the at least one remote device, a meaning of the illuminated visual indicator; identifying, by the at least one remote device, information corresponding to the meaning; and sending a message from the at least one remote device to the user device associated with the user profile, the message containing the identification information corresponding to the meaning. capturing image data using the image capture device associated with a user profile, the image data representing an object with an illuminated visual indicator; sending the image data from the image capture device to at least one remote device; identifying, by the at least one remote device, the object represented in the image data; determining, by the at least one remote device, a meaning of the illuminated visual indicator; identifying, by the at least one remote device, information corresponding to the meaning; and sending a message from the at least one remote device to the user device associated with the user profile, the message containing the identification information corresponding to the meaning.