mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a terminal device in a wireless telecommunications system, the method comprising: attempting to decode a transmission of data to the terminal device; determining whether or not the data was successfully decoded; and transmitting acknowledgement signalling indicating whether or not the data was successfully decoded on radio resources that are determined by taking account of whether or not the data was successfully decoded; wherein the acknowledgement signalling is transmitted on first radio resources at a first time if it is determined the data was successfully decoded and on second radio resources at a second time if it is determined the data was not successfully decoded; characterised by the second time being earlier than the first time. attempting to decode a transmission of data to the terminal device; determining whether or not the data was successfully decoded; and transmitting acknowledgement signalling indicating whether or not the data was successfully decoded on radio resources that are determined by taking account of whether or not the data was successfully decoded; wherein the acknowledgement signalling is transmitted on first radio resources at a first time if it is determined the data was successfully decoded and on second radio resources at a second time if it is determined the data was not successfully decoded; characterised by the second time being earlier than the first time.
A nickel-based superalloy comprising, in weight percent, 6 to 8% aluminum, 12 to 15% cobalt, 4 to 8% chromium, 0 to 0.2% hafnium, 0.5 to 4% molybdenum, 3.5 to 6% rhenium, 4 to 6% tantalum, 1 to 3% titanium, 0 to 2% tungsten, 0 to 0.1% silicon, the balance consisting of nickel and unavoidable impurities.
A rail vehicle with a machine for profiling and distributing ballast of a track with bedding shoulders , having a frame supported on on-track undercarriages and lateral ballast pick-up devices adjustably fastened to the frame , wherein each ballast pick-up device is actuated by a conveyor drive , wherein the machine is designed in such a way that, in an inoperative position, the upper contours of the machine are arranged below a delimiting plane which slopes downward in the working direction and limits a field of vision of a driver's cabin of a rail vehicle coupled to the machine at the rear end thereof, characterized in that the respective ballast pick-up device comprises a screw conveyor and is adjustable about a pivot axis extending orthogonally to the associated bedding shoulder by means of a pivot drive .
A method for providing data from an internal data processing system (IDP) of an industrial plant (PL) to an external data processing system (EDP), the external data processing system (EDP) being external to the industrial plant (PL), wherein the internal data processing system (IDP) comprises at least one industrial edge device (ED1, ED2, ... EDn), at least one industrial machine (IM1, IM2, ... IMn) and at least one data processing module (DPM), wherein the at least one data processing module (DPM) is provided with a user-defined data filter (DF) and wherein the method comprises following steps - generating a plurality of data packets from data related to the at least one industrial machine (IM1, IM2, ... IMn) by means of the at least one industrial edge device (ED1, ED2, ... EDn), and - signing each data packet (DP1, DP2, ... DPn) of the plurality of data packets with a first digital signature (PR1), in order to produce a plurality of signed data packets, by means of the at least one industrial edge device (ED1, ED2, ... EDn); and by means of the data processing module (DPM): - reading each signed data packet of the plurality of the signed data packets and, while reading, applying the user-defined data filter (DF) to it, - letting through those signed data packets that pass the user-defined data filter (DF) or rejecting those signed data packets that fail to pass the user-defined data filter (DF), and - sending all those data packets that have passed the user-defined data filter (DF) towards the external data processing system (EDP). - generating a plurality of data packets from data related to the at least one industrial machine (IM1, IM2, ... IMn) by means of the at least one industrial edge device (ED1, ED2, ... EDn), and - signing each data packet (DP1, DP2, ... DPn) of the plurality of data packets with a first digital signature (PR1), in order to produce a plurality of signed data packets, - reading each signed data packet of the plurality of the signed data packets and, while reading, applying the user-defined data filter (DF) to it, - letting through those signed data packets that pass the user-defined data filter (DF) or rejecting those signed data packets that fail to pass the user-defined data filter (DF), and - sending all those data packets that have passed the user-defined data filter (DF) towards the external data processing system (EDP).
A non-combustion type flavor inhaler comprising: a housing having an airflow path continuing from an inlet to an outlet; an atomizing part that atomizes an aerosol source without burning; a sensor outputting a value that changes according to a user's puff operation; and a control unit that controls a power supply output to the atomizing part based on an absolute value of a ratio of an amount of change of a value output from the sensor or of a value derived from the value output from the sensor to time taken for the change such that an aerosol amount falls within a desired range, wherein the aerosol amount is an amount of an aerosol to be atomized by the atomizing part in one energization to the atomizing part, characterizing in that : the control unit increases the magnitude of the power supply output to the atomizing part as the absolute value of the ratio is larger. a housing having an airflow path continuing from an inlet to an outlet; an atomizing part that atomizes an aerosol source without burning; a sensor outputting a value that changes according to a user's puff operation; and a control unit that controls a power supply output to the atomizing part based on an absolute value of a ratio of an amount of change of a value output from the sensor or of a value derived from the value output from the sensor to time taken for the change such that an aerosol amount falls within a desired range, wherein the aerosol amount is an amount of an aerosol to be atomized by the atomizing part in one energization to the atomizing part, characterizing in that : the control unit increases the magnitude of the power supply output to the atomizing part as the absolute value of the ratio is larger.
A method for reducing thermal wake proximate to an optical element of a telescope , the method comprising: generating signals related to respective temperatures of support struts supporting the optical element ; determining the respective temperatures of the support struts based on the signals; heating , with a respective heating element disposed on each support strut , each of the respective support struts based on the respective temperature of the respective support strut , wherein heating a given support strut causes the given support strut to thermally expand, each of the support struts being at least partially enclosed along with the corresponding heating element by a corresponding shroud , wherein airspaces are disposed between individual ones of the support struts and the corresponding shrouds ; and ejecting heat emitted in the respective airspaces from the respective heating elements away from the optical element to prevent a thermal wake from reaching a volume proximate to the optical element ; wherein ejecting the heat includes generating airflows in the airspaces disposed between individual ones of the support struts and the corresponding shrouds by airflow generation devices ; and wherein, for each airflow generation device , a transition apparatus couples the airflow generation device to an exhaust duct , the transition apparatus having a circular opening coupled to the airflow generation device and a rectangular opening coupled to the exhaust duct , wherein the circular opening is larger than the rectangular opening and the rectangular opening is narrower than the circular opening. generating signals related to respective temperatures of support struts supporting the optical element ; determining the respective temperatures of the support struts based on the signals; heating , with a respective heating element disposed on each support strut , each of the respective support struts based on the respective temperature of the respective support strut , wherein heating a given support strut causes the given support strut to thermally expand, each of the support struts being at least partially enclosed along with the corresponding heating element by a corresponding shroud , wherein airspaces are disposed between individual ones of the support struts and the corresponding shrouds ; and ejecting heat emitted in the respective airspaces from the respective heating elements away from the optical element to prevent a thermal wake from reaching a volume proximate to the optical element ; wherein ejecting the heat includes generating airflows in the airspaces disposed between individual ones of the support struts and the corresponding shrouds by airflow generation devices ; and wherein, for each airflow generation device , a transition apparatus couples the airflow generation device to an exhaust duct , the transition apparatus having a circular opening coupled to the airflow generation device and a rectangular opening coupled to the exhaust duct , wherein the circular opening is larger than the rectangular opening and the rectangular opening is narrower than the circular opening.
An arrangement for attaching a control valve to a flow channel housing of an internal combustion engine which comprises an insertion housing part configured to project into the flow channel housing , an actuator housing , in which an actuator is arranged and a housing plate configured to rest on the flow channel housing , and from which plate the insertion housing part extends to a first side and the actuator housing extends to the opposite side; characterized in that a collar flange radially surrounds the housing plate , a screw hole pattern being formed in the flange, the screw hole pattern corresponding to a connecting bore pattern of the flow channel housing , the control valve being attached to the flow channel housing via screws being inserted through through-holes of the collar flange , wherein each of the housing plate , the insertion housing part and the actuator housing part extending from the housing plate are provided as a light-metal casting parts, wherein the circumference of the actuator housing part extending from the housing plate is smaller than the inner circumference of the collar flange , wherein an axial section of the collar flange configured to face toward the flow channel housing has an inner circumference that substantially corresponds to the outer circumference of the housing plate and an axial section of the collar flange configured to face away from the flow channel housing comprises an inner circumference smaller than that of the axial section facing to the flow channel housing , wherein the axial section configured to face away from the flow channel housing rests axially n the housing plate and the axial section configured to face to the flow channel housing has a lesser axial height than the housing plate .
Working vehicle, comprising - a driving unit which has a drive and a driver seat ; - a skip unit which has a skip for receiving a load; and comprising - an articulated joint , arranged between the driving unit and the skip unit , for coupling the driving unit to the skip unit such that the driving unit and the skip unit can be moved relative to one another about at least one vertical axis (Z) of the working vehicle; wherein - the driving unit has a rotating console provided thereon which supports the driver seat and which can be pivoted relative to the remaining driving unit about a vertical axis between a forwards position and a rearwards position; characterised in that - the rotating console supports, as components, the driver seat , a dash panel , a steering wheel , a travel direction transmitter , a brake transmitter , a driving speed transmitter and an operating element for operating the skip such that the spatial allocation of these components with respect to one another remains unchanged when the rotating console is pivoted. - a driving unit which has a drive and a driver seat ; - a skip unit which has a skip for receiving a load; and comprising - an articulated joint , arranged between the driving unit and the skip unit , for coupling the driving unit to the skip unit such that the driving unit and the skip unit can be moved relative to one another about at least one vertical axis (Z) of the working vehicle; wherein - the driving unit has a rotating console provided thereon which supports the driver seat and which can be pivoted relative to the remaining driving unit about a vertical axis between a forwards position and a rearwards position; - the rotating console supports, as components, the driver seat , a dash panel , a steering wheel , a travel direction transmitter , a brake transmitter , a driving speed transmitter and an operating element for operating the skip such that the spatial allocation of these components with respect to one another remains unchanged when the rotating console is pivoted.
A method for separating seismic sources, characterised by : using a programmable computer to perform the following: applying an operator in a Laplace frequency domain to multiple source seismic data acquired in a marine seismic survey with multiple sources located at different depths to generate an estimate of a primary source wavefield, the operator being a function of a time delay between a primary source and one or more secondary sources, a reghosting operator at a depth of the primary source, and deghosting operators at depths of the primary and one or more secondary sources; adaptively subtracting the estimate of the primary source wavefield from the multiple-source seismic data to generate an estimate of one or more secondary source wavefields; applying another operator in the Laplace frequency domain to the estimates of the one or more secondary source wavefields to generate another estimate of the primary source wavefield, the operator being a function of time delays between the primary source and the one or more secondary sources, the reghosting operator at the depth of the primary source, and the deghosting operators at the depths of the one or more secondary sources; and using the estimates of the primary source and the one or more secondary source wavefields, after further iterative refinements to remove noise, to generate upgoing and downgoing wavefield components of the multiple source seismic data. applying an operator in a Laplace frequency domain to multiple source seismic data acquired in a marine seismic survey with multiple sources located at different depths to generate an estimate of a primary source wavefield, the operator being a function of a time delay between a primary source and one or more secondary sources, a reghosting operator at a depth of the primary source, and deghosting operators at depths of the primary and one or more secondary sources; adaptively subtracting the estimate of the primary source wavefield from the multiple-source seismic data to generate an estimate of one or more secondary source wavefields; applying another operator in the Laplace frequency domain to the estimates of the one or more secondary source wavefields to generate another estimate of the primary source wavefield, the operator being a function of time delays between the primary source and the one or more secondary sources, the reghosting operator at the depth of the primary source, and the deghosting operators at the depths of the one or more secondary sources; and using the estimates of the primary source and the one or more secondary source wavefields, after further iterative refinements to remove noise, to generate upgoing and downgoing wavefield components of the multiple source seismic data.
A method performed at a receiver device configured to receive an optical signal modulated with a stream of symbols comprising a sequence of training symbols, the method comprising: in first equalizer circuitry of the receiver device, calculating first coefficients and applying the first coefficients to digital signals representative of the optical signal, thereby resulting in first compensated signals ; in second equalizer circuitry of the receiver device, calculating second coefficients based on a correlation between the first compensated signals and digital signals representative of the sequence of training symbols and applying the second coefficients to the first compensated signals, thereby resulting in second compensated signals ; and in third equalizer circuitry of the receiver device, calculating third coefficients and applying the third coefficients to the second compensated signals, thereby resulting in third compensated signals , characterized in that the third equalizer circuitry has a feedback structure, wherein the first, second, and third coefficients compensate for impairments in the optical signal varying at respective first, second, and third rates, wherein the third rate is higher than the first rate and lower than the second rate. in first equalizer circuitry of the receiver device, calculating first coefficients and applying the first coefficients to digital signals representative of the optical signal, thereby resulting in first compensated signals ; in second equalizer circuitry of the receiver device, calculating second coefficients based on a correlation between the first compensated signals and digital signals representative of the sequence of training symbols and applying the second coefficients to the first compensated signals, thereby resulting in second compensated signals ; and in third equalizer circuitry of the receiver device, calculating third coefficients and applying the third coefficients to the second compensated signals, thereby resulting in third compensated signals , characterized in that the third equalizer circuitry has a feedback structure, wherein the first, second, and third coefficients compensate for impairments in the optical signal varying at respective first, second, and third rates, wherein the third rate is higher than the first rate and lower than the second rate.
A charging device for the heat treatment of workpieces having a hub , comprising a charging support , a shaft and at least one auxiliary hub , wherein the workpiece can be vertically supported on the shaft by means of the auxiliary hub(s) precisely fitted into the hub , and the shaft is supported on the charging support , characterised in that the auxiliary hub(s) are of disc shape and are adapted to suit the hub or can be adapted by means of peripherally arranged adjusting elements, wherein the workpiece has a hub diameter of more than 20% of the workpiece diameter.
A cutting system for cutting cheese product in an open container in a vertical plane to produce section in the cheese, the cutting system comprising • a blade carrying unit ; • a number of blades attached to and extending downwardly from said blade carrying unit ; • a vertically moveable first rod attached to and extending upwardly from said blade carrying unit to move the blade carrying unit with blades vertically upon a vertical movement of the first rod ; • a cleaning unit arranged below the blade carrying unit and comprising ∘ a number of horizontally extending through going apertures , said apertures each being positioned to receive one of said blades and being dimensioned to provide a snug-fit with said blades ; o a second rod/s attached to and extending upwardly from the cleaning unit longitudinally slideable through the blade carrying unit to positioning the cleaning unit in different positions relatively to the blade carrying unit ; wherein • the blades each are provided with a downward dimension being larger than the vertical extension of the horizontally extending through going apertures , so that the blades extend below the cleaning unit when the blade carrying unit is moved towards the cleaning unit . • a blade carrying unit ; • a number of blades attached to and extending downwardly from said blade carrying unit ; • a vertically moveable first rod attached to and extending upwardly from said blade carrying unit to move the blade carrying unit with blades vertically upon a vertical movement of the first rod ; • a cleaning unit arranged below the blade carrying unit and comprising ∘ a number of horizontally extending through going apertures , said apertures each being positioned to receive one of said blades and being dimensioned to provide a snug-fit with said blades ; o a second rod/s attached to and extending upwardly from the cleaning unit longitudinally slideable through the blade carrying unit to positioning the cleaning unit in different positions relatively to the blade carrying unit ; wherein ∘ a number of horizontally extending through going apertures , said apertures each being positioned to receive one of said blades and being dimensioned to provide a snug-fit with said blades ; o a second rod/s attached to and extending upwardly from the cleaning unit longitudinally slideable through the blade carrying unit to positioning the cleaning unit in different positions relatively to the blade carrying unit ; wherein • the blades each are provided with a downward dimension being larger than the vertical extension of the horizontally extending through going apertures , so that the blades extend below the cleaning unit when the blade carrying unit is moved towards the cleaning unit .
An extended release pharmaceutical formulation for use in the vitreous for the treatment of vascular eye disorders, the pharmaceutical formulation comprising microparticles having a diameter of from 2 microns to 70 microns, the microparticles having a protein particle core within a polymer cortex, the protein particle containing less than 3% water by weight, wherein the microparticles release the protein in a physiological aqueous environment at about 37°C at a rate of from about 0.01 mg/week to about 0.30 mg/week over at least 60 days.