mhurhangee/patent-ind-claim-en huggingface dataset:
Assembly comprising a semi-submersible float , in particular for an offshore wind turbine , comprising at least four columns, including a central column and three outer columns connected to the central column by pontoon-shaped branches , the outer columns and the pontoon-shaped branches comprising ballasts , the ballasts being ballasts with compressed-air drainage, the semi-submersible float comprising means for connecting the ballasts to a source of compressed discharge air, characterised in that the ballasts are gravity-filled ballasts, and in that the assembly comprises a support vessel , connection means to the connection means , and the source of compressed discharge air supplying the compressed discharge air to the ballast tanks , the source of compressed discharge air being carried by the support vessel and being associated with the connection means . the semi-submersible float comprising means for connecting the ballasts to a source of compressed discharge air, characterised in that the ballasts are gravity-filled ballasts, and in that the assembly comprises a support vessel , connection means to the connection means , and the source of compressed discharge air supplying the compressed discharge air to the ballast tanks , the source of compressed discharge air being carried by the support vessel and being associated with the connection means .
An apparatus to measure bio-information (100; 600), the apparatus comprising: a plurality of light sources (111, 112; 611, 612) configured to emit light to a first region and a second region of an object (OBJ); a detector (120; 620) configured to detect a first scattered light signal reflected from the first region and a second scattered light signal reflected from the second region , and output a first electrical signal corresponding to the first scattered light signal and a second electrical signal corresponding to the second scattered light signal; and a processor (130; 630) configured to correct the first electrical signal based on the second electrical signal and measure the bio-information based on the corrected first electrical signal; the apparatus characterized in that the processor (130; 630) is further configured to correct the first electrical signal based on a rate of change of the second electrical signal at a time point, and wherein the processor (130; 630) is further configured to calculate a first scattering coefficient and a second scattering coefficient based on the first electrical signal and the second electrical signal , respectively, and correct the first scattering coefficient at a second time point based on a rate of change of the first scattering coefficient and a rate of change of the second scattering coefficient during a period from a first time point to the second time point. a plurality of light sources (111, 112; 611, 612) configured to emit light to a first region and a second region of an object (OBJ); a detector (120; 620) configured to detect a first scattered light signal reflected from the first region and a second scattered light signal reflected from the second region , and output a first electrical signal corresponding to the first scattered light signal and a second electrical signal corresponding to the second scattered light signal; and a processor (130; 630) configured to correct the first electrical signal based on the second electrical signal and measure the bio-information based on the corrected first electrical signal; the apparatus characterized in that the processor (130; 630) is further configured to correct the first electrical signal based on a rate of change of the second electrical signal at a time point, and wherein the processor (130; 630) is further configured to calculate a first scattering coefficient and a second scattering coefficient based on the first electrical signal and the second electrical signal , respectively, and correct the first scattering coefficient at a second time point based on a rate of change of the first scattering coefficient and a rate of change of the second scattering coefficient during a period from a first time point to the second time point.
Adjustable guide vane for a turbomachine, in particular a turbine or compressor stage of a gas turbine, which vane comprises an airfoil for deflecting a working fluid of the turbomachine, which airfoil is at least partly produced from a second material, and at least one first vane portion which is produced from a first material that is different from the second material, characterized in that at least one of the following three conditions i. to iii. is met: i.- the second material comprises high-temperature metal and/or a superalloy and the first material does not comprise high-temperature metal and/or a superalloy, ii.- a yield stress or 0.2% proof stress of the second material is at least 1.1 times, in particular at least 1.5 times, a yield stress or 0.2% proof stress of the first material and the at least one first vane portion is joined by welding, soldering, pressing or shrinking, iii.- a thickness of the second material is at least 1.1 times, in particular at least 1.5 times, a thickness of the first material. i.- the second material comprises high-temperature metal and/or a superalloy and the first material does not comprise high-temperature metal and/or a superalloy, ii.- a yield stress or 0.2% proof stress of the second material is at least 1.1 times, in particular at least 1.5 times, a yield stress or 0.2% proof stress of the first material and the at least one first vane portion is joined by welding, soldering, pressing or shrinking, iii.- a thickness of the second material is at least 1.1 times, in particular at least 1.5 times, a thickness of the first material.
A sauna indoor climate adjusting device wherein the device comprises a hot air and steam inlet channel , which is located in an upper section of the device and a sauna, for hot air; and a cooler air and water vapour inlet channel , which is located in an lower section of the device and the sauna, for cooler air and water vapour; a mixing chamber connected with the inlet channels, for mixing hot air, steam and cooler air and water vapour; a ventilation fan in the mixing chamber connected to an outlet channel in the sauna for releasing the mixed air and steam from the mixing chamber ; wherein the sauna indoor climate adjusting device comprise a salt generator connected with the outlet channel .
Method (S100) performed by a mediation function entity for use in a Lawful Intercept system for enabling a Law Enforcement Agency, LEA, to determine targets' positions, said targets are connected to a WiFi network via Access Points, the method comprises steps of: - receiving (S110) a RADIUS account message for a subscriber having been accepted access to the WiFi network; - checking (S115) by means of a target database if the subscriber is a target, wherein a target is a subscriber of interest for interception; and - based on the checking (S115), performing one of: - if the subscriber is a target, retrieving (S120) from the received RADIUS account message RADIUS parameters corresponding to an Access Point Identifier and a Service Set Identifier, SSID, and sending (S130) together with a target identification the RADIUS parameters corresponding to the Access Point Identifier and the SSID to the LEA; and - if the subscriber is not a target, discarding the RADIUS account message. - receiving (S110) a RADIUS account message for a subscriber having been accepted access to the WiFi network; - checking (S115) by means of a target database if the subscriber is a target, wherein a target is a subscriber of interest for interception; and - based on the checking (S115), performing one of: - if the subscriber is a target, retrieving (S120) from the received RADIUS account message RADIUS parameters corresponding to an Access Point Identifier and a Service Set Identifier, SSID, and sending (S130) together with a target identification the RADIUS parameters corresponding to the Access Point Identifier and the SSID to the LEA; and - if the subscriber is not a target, discarding the RADIUS account message. - if the subscriber is a target, retrieving (S120) from the received RADIUS account message RADIUS parameters corresponding to an Access Point Identifier and a Service Set Identifier, SSID, and sending (S130) together with a target identification the RADIUS parameters corresponding to the Access Point Identifier and the SSID to the LEA; and - if the subscriber is not a target, discarding the RADIUS account message.
A method for wireless communications by a user equipment, UE , comprising: receiving one or more transport blocks, TBs, from a plurality of transmission reception points, TRPs , wherein: each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; determining a mapping of the plurality of CBs to the plurality of TRPs and/or layers at the plurality of TRPs; and decoding the one or more TBs based on the determined mapping, wherein determining the mapping comprises receiving an implicit indication of the mapping via at least one of: a number of the layers at the plurality of TRPs or demodulation reference signal, DMRS, port group information for the plurality of TRPs. receiving one or more transport blocks, TBs, from a plurality of transmission reception points, TRPs , wherein: each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; determining a mapping of the plurality of CBs to the plurality of TRPs and/or layers at the plurality of TRPs; and decoding the one or more TBs based on the determined mapping, wherein determining the mapping comprises receiving an implicit indication of the mapping via at least one of: a number of the layers at the plurality of TRPs or demodulation reference signal, DMRS, port group information for the plurality of TRPs.
A method of manufacturing an optoelectronic device comprising assemblies of light-emitting diodes (DEL) having first and second assemblies and first blocks made of a first photoluminescent material, each covering one of the first assemblies, the method comprising forming a layer covering the first and second assemblies, delimiting first openings in the layer to expose the first assemblies, filling the first openings with the first photoluminescent material, and performing a chemical-mechanical polishing to delimit the first blocks , wherein the device comprises second blocks made of a second photoluminescent material, different from the first photoluminescent material, each covering one of the second assemblies, the method comprising delimiting second openings in the layer to expose the second assemblies, filling the second openings with the second photoluminescent material, and performing a chemical-mechanical polishing to delimit the second blocks .
A battery management system comprising: a sensing unit configured to generate battery information indicating a current, a voltage and a temperature of a battery; and a control unit configured to estimate a state of charge, SOC, of the battery using an extended Kalman filter based on the battery information, wherein the battery management system is characterised in that the control unit is configured to: determine a temporary estimate for a SOC in a current cycle using a time update process of the extended Kalman filter based on a previous estimate and the battery information, wherein the previous estimate indicates a SOC in a previous cycle, determine open circuit voltage, OCV, information based on the temporary estimate, and determine a definitive estimate indicating the SOC in the current cycle using a measurement update process of the extended Kalman filter based on the temporary estimate, the OCV information and the battery information. a sensing unit configured to generate battery information indicating a current, a voltage and a temperature of a battery; and a control unit configured to estimate a state of charge, SOC, of the battery using an extended Kalman filter based on the battery information, wherein the battery management system is characterised in that the control unit is configured to: determine a temporary estimate for a SOC in a current cycle using a time update process of the extended Kalman filter based on a previous estimate and the battery information, wherein the previous estimate indicates a SOC in a previous cycle, determine open circuit voltage, OCV, information based on the temporary estimate, and determine a definitive estimate indicating the SOC in the current cycle using a measurement update process of the extended Kalman filter based on the temporary estimate, the OCV information and the battery information. determine a temporary estimate for a SOC in a current cycle using a time update process of the extended Kalman filter based on a previous estimate and the battery information, wherein the previous estimate indicates a SOC in a previous cycle, determine open circuit voltage, OCV, information based on the temporary estimate, and determine a definitive estimate indicating the SOC in the current cycle using a measurement update process of the extended Kalman filter based on the temporary estimate, the OCV information and the battery information.
Method for detecting landmarks in a traffic environment of a mobile unit , in which data sets are detected by a laser scanner , wherein the data sets comprise data points; data points of a defined number of data sets are stored as output data; segments are determined using the output data by means of a segmentation, wherein respective data points are associated with the segments; for each of the determined segments, landmark parameters of the respective segment are determined; an object class is associated with the segments using the respective landmark parameters determined for it; landmark observations are determined, wherein landmark parameters and an object class are associated with each landmark observation; and the landmark observations are output, characterized in that the landmark parameters for each of the determined segments are determined by means of a principal component analysis of the respective segment; wherein the principal component analysis for determining the landmark parameters for each segment includes a determination of an approximation ellipse for the segment, wherein a geometric shape of the approximation ellipse allows an approximation of a plurality of other geometric shapes, wherein a direction parameter, a length parameter, a width parameter, a start position, and an end position of the approximation ellipse are determined together in one step. data sets are detected by a laser scanner , wherein the data sets comprise data points; data points of a defined number of data sets are stored as output data; segments are determined using the output data by means of a segmentation, wherein respective data points are associated with the segments; for each of the determined segments, landmark parameters of the respective segment are determined; an object class is associated with the segments using the respective landmark parameters determined for it; landmark observations are determined, wherein landmark parameters and an object class are associated with each landmark observation; and the landmark observations are output, characterized in that the landmark parameters for each of the determined segments are determined by means of a principal component analysis of the respective segment; wherein the principal component analysis for determining the landmark parameters for each segment includes a determination of an approximation ellipse for the segment, wherein a geometric shape of the approximation ellipse allows an approximation of a plurality of other geometric shapes, wherein a direction parameter, a length parameter, a width parameter, a start position, and an end position of the approximation ellipse are determined together in one step.
Phosphate salt of amifampridine, wherein the salt is characterized by the following peaks of the powder X-ray diffractogram (Cu-Kα1 = 1.54059 Å): 11.06, 12.16, 12.69, 12.91, 15.45, 17.12, 17.42, 18.07, 20.21, 21.60, 22.22, 22.57, 22.95, 24.03, 24.59, 25.11, 25.54, 26.05, 26.69, 27.02, 27.76, 28.21, 28.69, 29.54, 30.19, 30.27 and 30.44 ± 0.20° 2θ, and wherein the salt is obtainable by a process consisting of the steps: i) preparing an alcoholic solution containing amifampridine, wherein the solvent is an alcohol optionally in admixture with not more than 10 wt% water, wherein the alcohol is selected from methanol, ethanol, n-propanol and iso-propanol, ii) precipitating the phosphate salt of amifampridine by adding an aqueous phosphoric acid solution to the alcoholic solution obtained in step (i), wherein the aqueous phosphoric acid solution contains at least 70 wt% phosphoric acid, and iii) isolating the phosphate salt of amifampridine obtained in step (ii). i) preparing an alcoholic solution containing amifampridine, wherein the solvent is an alcohol optionally in admixture with not more than 10 wt% water, wherein the alcohol is selected from methanol, ethanol, n-propanol and iso-propanol, ii) precipitating the phosphate salt of amifampridine by adding an aqueous phosphoric acid solution to the alcoholic solution obtained in step (i), wherein the aqueous phosphoric acid solution contains at least 70 wt% phosphoric acid, and iii) isolating the phosphate salt of amifampridine obtained in step (ii).
A method for producing a multilayered tube, comprising: stretching at least one polymeric material which comprises at least one crystallizable biodegradable polymeric material and has a first dimension, wherein the stretching is performed in a manner that increases the first dimension and that results in a controlled level of molecular orientation; and forming the multilayered tube using the at least one stretched polymeric material and at least one adhesive polymeric material, wherein the multilayered tube has a molecular orientation profile that is substantially consistent throughout a wall of the multilayered tube. stretching at least one polymeric material which comprises at least one crystallizable biodegradable polymeric material and has a first dimension, wherein the stretching is performed in a manner that increases the first dimension and that results in a controlled level of molecular orientation; and forming the multilayered tube using the at least one stretched polymeric material and at least one adhesive polymeric material, wherein the multilayered tube has a molecular orientation profile that is substantially consistent throughout a wall of the multilayered tube.
Filter element for a coalescence separator , with a filter layer system , which has at least one first filter layer made from a fleece material, wherein the filter layer system is designed as a filter sleeve , which has the form of an elongated hollow body, characterised in that the filter layer system has at least one second filter layer made from a fleece material, wherein the second filter layer is arranged adjacently on the first filter layer , wherein the filter sleeve is designed with a longitudinal seam , which joins together at least the first filter layer in circumferential direction, wherein the longitudinal seam joins together all filter layers of the filter layer system .
A method of separating a lap joint assembly , the method comprising: positioning a fluid emitter relative to the lap joint assembly , wherein the lap joint assembly comprises an adhesive lap joint between a first component and a second component ; and emitting a cryogenic fluid stream from the fluid emitter at the adhesive lap joint by focusing the cryogenic fluid stream at the adhesive lap joint ; wherein positioning the fluid emitter and emitting the cryogenic fluid stream comprise orienting the fluid emitter such that an angle between the cryogenic fluid stream and the adhesive lap joint is less than 45 degrees. positioning a fluid emitter relative to the lap joint assembly , wherein the lap joint assembly comprises an adhesive lap joint between a first component and a second component ; and emitting a cryogenic fluid stream from the fluid emitter at the adhesive lap joint by focusing the cryogenic fluid stream at the adhesive lap joint ; wherein positioning the fluid emitter and emitting the cryogenic fluid stream comprise orienting the fluid emitter such that an angle between the cryogenic fluid stream and the adhesive lap joint is less than 45 degrees.
A vehicle arresting system comprising: a base layer comprising a crushable aggregate; and a cover layer comprising a cementitious material having an oven-dry density of 100 lb/ft 3 (1.6×10 3 kg/m 3 ) or less, characterized in that : the cover layer having an underside that includes a plurality of ribs depending downwardly therefrom, wherein the plurality of ribs define a plurality of voids between the cover layer and the crushable aggregate. a base layer comprising a crushable aggregate; and a cover layer comprising a cementitious material having an oven-dry density of 100 lb/ft 3 (1.6×10 3 kg/m 3 ) or less, characterized in that : the cover layer having an underside that includes a plurality of ribs depending downwardly therefrom, wherein the plurality of ribs define a plurality of voids between the cover layer and the crushable aggregate.