mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine , comprising: a compressor section and a turbine section , said turbine section having at least one turbine rotor having a radially extending turbine blade and being rotatable about an axis of rotation (A), and at least one turbine vane ; a blade outer air seal positioned radially outwardly of a radially outer tip of the turbine blade ; and a structure mounting the blade outer air seal and providing a platform of the at least one turbine vane , wherein the structure has a first support member configured to engage a first axial side (A1) of the blade outer air seal and a second support member configured to engage a second axial side (A2) of the blade outer air seal , wherein an attachment member extends radially outward from the structure at a common axial position with the second support member , wherein the structure is a unitary structure that extends circumferentially about the axis of rotation (A), and a cooling air port extends through the structure between a blade outer air seal chamber and a vane chamber , wherein the vane chamber is formed between the vane platform and an engine static structure , and the blade outer air seal chamber is formed between the blade outer air seal and the structure , and characterised in that the cooling air port is configured to deliver cooling air from the blade outer air seal chamber to the vane chamber . a compressor section and a turbine section , said turbine section having at least one turbine rotor having a radially extending turbine blade and being rotatable about an axis of rotation (A), and at least one turbine vane ; a blade outer air seal positioned radially outwardly of a radially outer tip of the turbine blade ; and a structure mounting the blade outer air seal and providing a platform of the at least one turbine vane , wherein the structure has a first support member configured to engage a first axial side (A1) of the blade outer air seal and a second support member configured to engage a second axial side (A2) of the blade outer air seal , wherein an attachment member extends radially outward from the structure at a common axial position with the second support member , wherein the structure is a unitary structure that extends circumferentially about the axis of rotation (A), and a cooling air port extends through the structure between a blade outer air seal chamber and a vane chamber , wherein the vane chamber is formed between the vane platform and an engine static structure , and the blade outer air seal chamber is formed between the blade outer air seal and the structure , and characterised in that the cooling air port is configured to deliver cooling air from the blade outer air seal chamber to the vane chamber .
A pneumatic tire, comprising a tread, the tread comprising a rubber composition for treads comprising: a rubber component comprising an isoprene-based rubber and polybutadiene rubber; silica; carbon black; a terpene-based resin; and at least one of a water-soluble fine particle or a foaming agent, the terpene-based resin having a softening point of 70 to 150°C, an α-pinene unit content of 65 to 100% by mass, and a β-pinene unit content of 0 to 35% by mass, the rubber component comprising, based on 100% by mass thereof, 20 to 80% by mass of the isoprene-based rubber and 20 to 80% by mass of the polybutadiene rubber, with a combined amount of the isoprene-based rubber and the polybutadiene rubber of 90% by mass or more, the rubber composition comprising, per 100 parts by mass of the rubber component, 20 to 200 parts by mass of the silica, 0.1 to 50 parts by mass of the carbon black, 0.1 to 50 parts by mass of the terpene-based resin, and at least one of 5 to 100 parts by mass of the water-soluble fine particles or 1 to 20 parts by mass of the foaming agent. a rubber component comprising an isoprene-based rubber and polybutadiene rubber; silica; carbon black; a terpene-based resin; and at least one of a water-soluble fine particle or a foaming agent, the terpene-based resin having a softening point of 70 to 150°C, an α-pinene unit content of 65 to 100% by mass, and a β-pinene unit content of 0 to 35% by mass, the rubber component comprising, based on 100% by mass thereof, 20 to 80% by mass of the isoprene-based rubber and 20 to 80% by mass of the polybutadiene rubber, with a combined amount of the isoprene-based rubber and the polybutadiene rubber of 90% by mass or more, the rubber composition comprising, per 100 parts by mass of the rubber component, 20 to 200 parts by mass of the silica, 0.1 to 50 parts by mass of the carbon black, 0.1 to 50 parts by mass of the terpene-based resin, and at least one of 5 to 100 parts by mass of the water-soluble fine particles or 1 to 20 parts by mass of the foaming agent.
Sensor arrangement , comprising: a barometric pressure sensor ; and a thermal gas sensor ; characterized in that the thermal gas sensor is arranged on the barometric pressure sensor such that a gas-permeable measurement structure of the thermal gas sensor is arranged in front of a gas inlet opening of the barometric pressure sensor or in front of a pressure-sensitive surface of the barometric pressure sensor ; wherein the thermal gas sensor comprises a frame that is arranged on the barometric pressure sensor , and wherein the frame carries the gas-permeable measurement structure such that active areas of the gas-permeable measurement structure span a free inner area of the thermal gas sensor surrounded by the frame; wherein the gas inlet opening of the barometric pressure sensor or the pressure-sensitive surface of the barometric pressure sensor borders on the free inner area of the thermal gas sensor . a barometric pressure sensor ; and a thermal gas sensor ; characterized in that the thermal gas sensor is arranged on the barometric pressure sensor such that a gas-permeable measurement structure of the thermal gas sensor is arranged in front of a gas inlet opening of the barometric pressure sensor or in front of a pressure-sensitive surface of the barometric pressure sensor ; wherein the thermal gas sensor comprises a frame that is arranged on the barometric pressure sensor , and wherein the frame carries the gas-permeable measurement structure such that active areas of the gas-permeable measurement structure span a free inner area of the thermal gas sensor surrounded by the frame; wherein the gas inlet opening of the barometric pressure sensor or the pressure-sensitive surface of the barometric pressure sensor borders on the free inner area of the thermal gas sensor .
Method for manufacturing a holey film, comprising the following steps: providing a substrate having first regions which comprise a hydrophilic substance; cooling the substrate to a temperature which is equal to or lower than the dew point to induce selective condensation of water on the first regions to form droplets; applying a non-water-soluble polymer onto the substrate comprising the water droplets , the polymer forming a holey polymer layer on the substrate; detaching the holey polymer layer from the substrate after it has solidified; depositing a film material on the holey polymer layer to form a film thereon; and dissolving the polymer layer. providing a substrate having first regions which comprise a hydrophilic substance; cooling the substrate to a temperature which is equal to or lower than the dew point to induce selective condensation of water on the first regions to form droplets; applying a non-water-soluble polymer onto the substrate comprising the water droplets , the polymer forming a holey polymer layer on the substrate; detaching the holey polymer layer from the substrate after it has solidified; depositing a film material on the holey polymer layer to form a film thereon; and dissolving the polymer layer.
A rear pre-crash safety system of a vehicle comprising a judgement logic adapted to issue at least one collision warning signal (CWS) in response to a detected radar signal reflected by an object approaching the vehicle from behind depending on a radar cross section, RCS, of the approaching object and depending on a velocity (V) of the approaching object relative to the respective vehicle , wherein in a stop and go traffic situation, the radar cross section, RCS, of a following object following behind the vehicle is kept in a standstill condition and refreshed whenever a velocity of the following object relative to the vehicle is detected.
An apparatus comprising: a processor configured to: determine that a plurality of random access procedures is triggered; and select a prioritized random access procedure of the plurality of random access procedures to perform based on a priority corresponding to the plurality of random access procedures; wherein the processor is configured to select the prioritized random access procedure to perform based on a random access procedure for a beam recovery request having priority over a random access procedure for an uplink synchronization, and wherein the processor is configured to perform the prioritized random access procedure for a beam recovery request and to stop unselected random access procedures from being performed while the prioritized random access procedure is being performed. determine that a plurality of random access procedures is triggered; and select a prioritized random access procedure of the plurality of random access procedures to perform based on a priority corresponding to the plurality of random access procedures; wherein the processor is configured to select the prioritized random access procedure to perform based on a random access procedure for a beam recovery request having priority over a random access procedure for an uplink synchronization, and wherein the processor is configured to perform the prioritized random access procedure for a beam recovery request and to stop unselected random access procedures from being performed while the prioritized random access procedure is being performed.
A method for direct electrical heating of a pipe-in-pipe pipeline for transporting fluids, the pipeline comprising a steel inner shell intended to transport fluids and a steel outer shell positioned around the inner shell while being coaxial therewith in order to delimit an annular space therewith, the method comprising: mechanically connecting the inner shell to the outer shell at different intervals of the pipeline; establishing an electrical and thermal insulation between the inner shell and the outer shell over the entire length of the pipeline; and applying an alternating electric current between an outer surface of the inner shell and an inner surface of the outer shell over the entire length of the pipeline so as to heat the inner shell of the pipeline by Joule effect; characterized in that it further comprises: placing on the outer surface of the inner shell over the entire length of the pipeline at least one layer made of resistive and ferromagnetic material so as to increase the ratio of electric power transmitted to the inner shell. mechanically connecting the inner shell to the outer shell at different intervals of the pipeline; establishing an electrical and thermal insulation between the inner shell and the outer shell over the entire length of the pipeline; and applying an alternating electric current between an outer surface of the inner shell and an inner surface of the outer shell over the entire length of the pipeline so as to heat the inner shell of the pipeline by Joule effect; characterized in that it further comprises: placing on the outer surface of the inner shell over the entire length of the pipeline at least one layer made of resistive and ferromagnetic material so as to increase the ratio of electric power transmitted to the inner shell.
A user premises broadband access system comprising: an internal unit comprising a wireless power transmitter unit configured to inductively provide power through an exterior structure of a premises; and an external modem unit comprising a wireless power receiver unit configured to inductively receive power from the wireless power transmitter unit of the internal unit through the exterior structure of the premises, wherein the internal unit and the external modem unit each comprise a short range transceiver with a short range data coil that wireless communicate data between the internal unit and the external modem unit; and wherein the internal unit comprises one or more indicators to indicate unobstructed transmission lane through the external structure during installation, whereby the short range data coil of the short range transceiver is mounted on a steerable part of the external modem unit so that the unobstructed transmission lane can be found in view of a mounted position. an internal unit comprising a wireless power transmitter unit configured to inductively provide power through an exterior structure of a premises; and an external modem unit comprising a wireless power receiver unit configured to inductively receive power from the wireless power transmitter unit of the internal unit through the exterior structure of the premises, wherein the internal unit and the external modem unit each comprise a short range transceiver with a short range data coil that wireless communicate data between the internal unit and the external modem unit; and wherein the internal unit comprises one or more indicators to indicate unobstructed transmission lane through the external structure during installation, whereby the short range data coil of the short range transceiver is mounted on a steerable part of the external modem unit so that the unobstructed transmission lane can be found in view of a mounted position.
A connector for connecting a patient interface to an oxygen delivery control device , the connector comprising: a first lumen for conveying pressurized oxygen from a pressurized oxygen source in connection with the oxygen delivery control device to the patient interface ; a second lumen for measuring patient breath pressure, the second lumen having a smaller diameter than the first lumen ; wherein the first and second lumens are enclosed in a housing , the housing having a top surface, the top surface comprising a first top surface portion and a second top surface portion , wherein the first top surface portion of the housing comprises at least one encoding optical reflectivity pad configured to enable identification of information relating to the patient interface, and wherein an open slot in the top surface of the housing separates the first top surface portion and the second top surface portion , characterised in that : the open slot in the top surface of the housing is configured to receive an optical isolation wall of the oxygen delivery control device , the first top surface portion having a larger width than a width of the second top surface portion ; and wherein the second top surface portion of the housing comprises a chamfer proximal to the open slot , the chamfer configured to enable measurement of a depth of the housing within the oxygen delivery control device . a first lumen for conveying pressurized oxygen from a pressurized oxygen source in connection with the oxygen delivery control device to the patient interface ; a second lumen for measuring patient breath pressure, the second lumen having a smaller diameter than the first lumen ; wherein the first and second lumens are enclosed in a housing , the housing having a top surface, the top surface comprising a first top surface portion and a second top surface portion , wherein the first top surface portion of the housing comprises at least one encoding optical reflectivity pad configured to enable identification of information relating to the patient interface, and wherein an open slot in the top surface of the housing separates the first top surface portion and the second top surface portion , characterised in that : the open slot in the top surface of the housing is configured to receive an optical isolation wall of the oxygen delivery control device , the first top surface portion having a larger width than a width of the second top surface portion ; and wherein the second top surface portion of the housing comprises a chamfer proximal to the open slot , the chamfer configured to enable measurement of a depth of the housing within the oxygen delivery control device . the open slot in the top surface of the housing is configured to receive an optical isolation wall of the oxygen delivery control device , the first top surface portion having a larger width than a width of the second top surface portion ; and wherein the second top surface portion of the housing comprises a chamfer proximal to the open slot , the chamfer configured to enable measurement of a depth of the housing within the oxygen delivery control device .
A transmitting device , comprising: a generating unit configured to generate transmission data in which an index associated with predetermined process-related information in a relevant table in which process-related information related to an output process of outputting an alert on a receiving side is registered in association with an index is included in data of a physical layer, the relevant table being included in data of a higher layer higher than the physical layer and supplied; and a transmitting unit configured to transmit the transmission data, wherein, in the relevant table, the process-related information and a location code indicating a region in which the output process corresponding to the process-related information is to be performed are associated with the index. a generating unit configured to generate transmission data in which an index associated with predetermined process-related information in a relevant table in which process-related information related to an output process of outputting an alert on a receiving side is registered in association with an index is included in data of a physical layer, the relevant table being included in data of a higher layer higher than the physical layer and supplied; and a transmitting unit configured to transmit the transmission data, wherein, in the relevant table, the process-related information and a location code indicating a region in which the output process corresponding to the process-related information is to be performed are associated with the index.
A method of producing polyurethane or polyisocyanurate foams which comprises the step of reacting (a) a composition (Z1), comprising (i) a composition (ZP) at least comprising a polyol and a catalyst that catalyzes the formation of a urethane, urea or isocyanurate bond, and (ii) at least one surfactant TD having an HLB value below 6 and no silicon atom, wherein the sum total of surfactants TD in the composition comprises from 0.05 to 10 parts by mass per 100 parts by mass of the composition (ZP), (b) with at least one polyisocyanate, wherein the step of reacting takes place in the presence of a nucleating agent selected from the group consisting of perfluorinated hydrocarbons, ethers having at least one perfluorinated hydrocarbyl moiety and ketones having at least one perfluorinated hydrocarbyl moiety, and of a blowing agent, wherein the nucleating agent differs from the blowing agent, and wherein the nucleating agent and the blowing agent are mixed to obtain a composition (Z2) and said composition (Z2) is added to said composition (Z1) before the step of reacting with the at least one polyisocyanate. (a) a composition (Z1), comprising (i) a composition (ZP) at least comprising a polyol and a catalyst that catalyzes the formation of a urethane, urea or isocyanurate bond, and (ii) at least one surfactant TD having an HLB value below 6 and no silicon atom, wherein the sum total of surfactants TD in the composition comprises from 0.05 to 10 parts by mass per 100 parts by mass of the composition (ZP), (i) a composition (ZP) at least comprising a polyol and a catalyst that catalyzes the formation of a urethane, urea or isocyanurate bond, and (ii) at least one surfactant TD having an HLB value below 6 and no silicon atom, wherein the sum total of surfactants TD in the composition comprises from 0.05 to 10 parts by mass per 100 parts by mass of the composition (ZP), (b) with at least one polyisocyanate,
Construction machine with a hydraulic system with at least one hydraulic control unit , which comprises at least one joystick, at least one hydraulic pressure source , and two hydraulic drive units , wherein the pressure level of each hydraulic drive can be different depending on the working point of the drive unit which is selected in each case, wherein each hydraulic drive unit is connected to each pressure source , by means of which a hydraulic connection is connected in each case, and in which in each case a main control valve is provided, which can be controlled by means of the one joystick or at least one of the joysticks, wherein the construction machine comprises a plurality of components which are movable at least relative to one another, assigned to each of which in each case is a hydraulic drive unit for moving this component, characterised in that at least one hydraulic control unit comprises at least one electrically actuatable priority valve , configured as a proportional valve, which is assigned to a drive unit , and in which a hydraulic connection is provided, wherein each priority valve is electrically connected to the electronic control unit, and can be actuated such as to cause an additional hydraulic resistance, wherein the hydraulic control unit further comprises sensors, provided at the movable components, for the indirect or direct detection of their respective location, which, for the forwarding of the detected sensor values to the control unit, are in each case connected to this unit, and wherein further, on the one hand at least track curve can be stored in the control unit, and, on the other, a control mode can be actuated, in which each priority valve can be actuated by actuation of the at least one joystick of the control unit, making use of the present values detected in each case by the sensors, in such a way that the track curve stored is travelled by the corresponding actuation of the drives .