mhurhangee/patent-ind-claim-en huggingface dataset:
A turbine shroud sector made of ceramic matrix composite intended to extend about a longitudinal axis X, the shroud sector comprising a base with a radially internal face , a radially external face from which there extend an upstream tab and a downstream tab for attachment to a shroud support structure, and at least one inter-sector lateral face intended to be mounted opposite a lateral face of a circumferentially adjacent shroud sector, the base further comprising a first groove and a second groove each formed in the inter-sector lateral face , extending along the longitudinal axis X and, a first and a second longitudinal sealing strips which each rest on a respective radially internal wall of these first and second grooves , the second groove being arranged radially outside the first groove , characterised in that the first strip has an overall shape of an omega and in that the shroud sector has a first clearance (J1) which is defined radially between a central part of the first strip and the radially internal wall of the first groove and a second clearance (J2) which is defined radially between the central part of the first strip and a radially external wall of the first groove , the radially internal and external walls being opposite along a radial axis Z perpendicular to the longitudinal axis X.
Method for operating a heat exchanger arrangement with at least one heat exchanger, which comprises a first distributor with a first connection piece for connection to a fluid line , a second distributor with a second connection piece for connection to a fluid line , and at least one first deflection distributor and a plurality of pipes , through which a fluid, in particular water, can flow, the first distributor and the second distributor being arranged at one end (A) of the heat exchanger arrangement and the deflection distributor being arranged at the opposite end (B), and the pipes extending from the one end (A) to the opposite end (B), and wherein the first connection piece is arranged at a lowest point (T) or at least in the vicinity of the lowest point (T) of the first distributor and the second connection piece is arranged at a lowest point (T) or at least in the vicinity of the lowest point (T) of the second distributor and the heat exchanger arrangement is operated in dependence on ambient parameters, in particular the outside temperature, alternately in different operating modes, comprising a recooling mode, a draining mode, a filling mode and a stand-by mode, wherein in the draining mode the fluid flows out of all the pipes into the first distributor and the second distributor and from there via the first and the second connection piece respectively into a fluid line due to gravity, characterised in that in the filling mode the fluid flows against gravity out of the first distributor and the second distributor into all the pipes . the first distributor and the second distributor being arranged at one end (A) of the heat exchanger arrangement and the deflection distributor being arranged at the opposite end (B), and the pipes extending from the one end (A) to the opposite end (B), and wherein the first connection piece is arranged at a lowest point (T) or at least in the vicinity of the lowest point (T) of the first distributor and the second connection piece is arranged at a lowest point (T) or at least in the vicinity of the lowest point (T) of the second distributor and the heat exchanger arrangement is operated in dependence on ambient parameters, in particular the outside temperature, alternately in different operating modes, comprising a recooling mode, a draining mode, a filling mode and a stand-by mode, wherein in the draining mode the fluid flows out of all the pipes into the first distributor and the second distributor and from there via the first and the second connection piece respectively into a fluid line due to gravity, characterised in that in the filling mode the fluid flows against gravity out of the first distributor and the second distributor into all the pipes .
Device for training the sense of equilibrium which comprises at least a first and a second acoustic output unit facing each other at a distance from each other, the device further comprising at least one inclination sensor arranged to measure an angle of inclination of the device with respect to the vertical direction and to output it to a measuring and control unit , the measuring and control unit being arranged to trigger at least one of the acoustic output units to output an acoustic signal, which is dependent on the measured angle of inclination, characterized in in that the acoustic signal has a first acoustically perceptible signal characteristic, which is independent of the measured angle of inclination, and a second acoustically perceptible signal characteristic, which varies according to the measured angle of inclination, the measurement and control unit being further arranged to suspend the output of the acoustic signal, when the angle of inclination of the device with respect to the vertical direction is zero, wherein the measuring and control unit is arranged to trigger the output of the acoustic signal when the measured angle of inclination exceeds a minimum angle, wherein the minimum angle is preferably at least 5 ° and particularly preferably at least 8 °.
An eyewear , comprising: a frame ; a single input section to be disposed in the frame , the single input section being configured to receive a first instruction operation and a second instruction operation that are different from each other; and an optical module to be held by the frame , the optical module being a module whose optical property changes in accordance with electric control; characterized in that the optical property includes a refractive index and a transmittance, and the eyewear further comprises: a control section that changes the optical property of the optical module by selectively executing an upper-tier function when the single input section receives the first instruction operation and selectively executing a lower-tier function when the single input section receives the second instruction operation, wherein the upper-tier function and the lower-tier function are configured to be a hierarchical structure. a frame ; a single input section to be disposed in the frame , the single input section being configured to receive a first instruction operation and a second instruction operation that are different from each other; and an optical module to be held by the frame , the optical module being a module whose optical property changes in accordance with electric control; characterized in that the optical property includes a refractive index and a transmittance, and the eyewear further comprises: a control section that changes the optical property of the optical module by selectively executing an upper-tier function when the single input section receives the first instruction operation and selectively executing a lower-tier function when the single input section receives the second instruction operation, wherein the upper-tier function and the lower-tier function are configured to be a hierarchical structure. a control section that changes the optical property of the optical module by selectively executing an upper-tier function when the single input section receives the first instruction operation and selectively executing a lower-tier function when the single input section receives the second instruction operation, wherein the upper-tier function and the lower-tier function are configured to be a hierarchical structure.
System for marking a workpiece formed at least partially in a thermal primary or forming process, comprising a device for marking a workpiece formed at least partially in a thermal primary or forming process, the device having a multiplicity of areally distributed heating elements for local heating of a workpiece surface , which heating elements are associated with a surface to be directed towards the workpiece and are individually controllable, wherein each of the heating elements comprises a solid material with a surface structure and a heating structure , said surface structure having at least one selectively varied or random topography and being heatable by said heating structure , and further comprising a controller configured to drive said heating elements for heating in series, in parallel or in groups, characterised in that the heating structure is spaced from the surface structure in the solid material and in that the solid material of the heating elements comprises a plurality of superimposed thin or thick film or PCB printed layers.
Polypropylene composition comprising a blend of (A) 50.0 to 99.0 wt% of a propylene-ethylene random copolymer with an ethylene content in the range of from 0.1 to 12.0 wt%, an MFR 2 (230°C, 2.16kg, ISO1133) in a range of from 0.5 to 60.0 g/10 min, and a melting temperature Tm (DSC) that is in the range of from 135°C to 155°C, and (B) 1.0 to 50.0 wt% of a propylene-hexene random copolymer with a hexene content in the range of from 0.1 to 12.0 wt%, an MFR 2 (230°C, 2.16kg, ISO1133) in a range of from 5.0 to 60.0 g/10 min, and a melting temperature Tm (DSC) that is in the range of from 120°C to 140°C, wherein (i) the melting temperature of the propylene-hexene random copolymer (B) is lower than the melting temperature of the propylene-ethylene random copolymer (A) and (ii) the MFR 2 (230°C, 2.16kg, ISO1133) of the blend is in a range of from 0.5 to 60.0 g/10 min. (A) 50.0 to 99.0 wt% of a propylene-ethylene random copolymer with an ethylene content in the range of from 0.1 to 12.0 wt%, an MFR 2 (230°C, 2.16kg, ISO1133) in a range of from 0.5 to 60.0 g/10 min, and a melting temperature Tm (DSC) that is in the range of from 135°C to 155°C, and (B) 1.0 to 50.0 wt% of a propylene-hexene random copolymer with a hexene content in the range of from 0.1 to 12.0 wt%, an MFR 2 (230°C, 2.16kg, ISO1133) in a range of from 5.0 to 60.0 g/10 min, and a melting temperature Tm (DSC) that is in the range of from 120°C to 140°C, wherein (i) the melting temperature of the propylene-hexene random copolymer (B) is lower than the melting temperature of the propylene-ethylene random copolymer (A) and (ii) the MFR 2 (230°C, 2.16kg, ISO1133) of the blend is in a range of from 0.5 to 60.0 g/10 min. (i) the melting temperature of the propylene-hexene random copolymer (B) is lower than the melting temperature of the propylene-ethylene random copolymer (A) and (ii) the MFR 2 (230°C, 2.16kg, ISO1133) of the blend is in a range of from 0.5 to 60.0 g/10 min.
A service data transmission method, comprising: receiving , by a first station, STA, a control frame, wherein the control frame comprises control information, and the control information is used to instruct the first STA to contend for a resource used to transmit first-type service data; contending , by the first STA, for the resource based on the control information; and sending , by the first STA, the first-type service data of the first STA to an access point, AP, on the resource obtained by contention, characterized in that the control information is an association identifier, AID, selected by the AP, that is not allocated by the AP to a specific STA and the first STA contends for the resource based on an agreement between the AP and the STA on a correspondence between the AID and a contention manner. receiving , by a first station, STA, a control frame, wherein the control frame comprises control information, and the control information is used to instruct the first STA to contend for a resource used to transmit first-type service data; contending , by the first STA, for the resource based on the control information; and sending , by the first STA, the first-type service data of the first STA to an access point, AP, on the resource obtained by contention, characterized in that the control information is an association identifier, AID, selected by the AP, that is not allocated by the AP to a specific STA and the first STA contends for the resource based on an agreement between the AP and the STA on a correspondence between the AID and a contention manner.
A computer implemented method comprising: initiating, by a non-secure entity that is executing on a host server , an entity , and injecting, by a secure interface control of the host server , an interrupt that is generated by the host server or by the non-secure entity into the entity ; characterized in that , the entity is a secure entity such that the non-secure entity is prohibited from directly accessing any data of the secure entity ; and the injecting comprises adding, by the non-secure entity, information about the interrupt into a portion of non-secure storage associated with the secure entity . initiating, by a non-secure entity that is executing on a host server , an entity , and injecting, by a secure interface control of the host server , an interrupt that is generated by the host server or by the non-secure entity into the entity ; characterized in that , the entity is a secure entity such that the non-secure entity is prohibited from directly accessing any data of the secure entity ; and the injecting comprises adding, by the non-secure entity, information about the interrupt into a portion of non-secure storage associated with the secure entity .
A fluidized fuel gas combustor system for a catalytic dehydrogenation process comprising: a vessel having a lower portion and an upper portion ; a plurality of air injection diffusers located in the lower portion of the vessel ; optional fuel oil distributors for startup; a plurality of fuel gas distributors disposed in the vessel and spaced apart from and above the plurality of air injection diffusers , each of the fuel gas distributors comprising a plurality of fuel gas injection diffusers , wherein the fuel gas injection diffusers are placed in a manner to maximize even mass distribution of a fuel gas injected through the fuel gas injection diffusers in the vessel ; one or more grid assemblies disposed in the vessel spaced apart from and above the plurality of air injection diffusers and spaced apart from and below the fuel gas distributors to maximize even air mass distribution; one or more grid assemblies disposed in the vessel spaced above the fuel gas distributors ; wherein each fuel gas distributor comprises a tube having a plurality of fuel gas injection diffusers , a fuel inlet end and a terminal end ; wherein the system is configured such that spent or partially deactivated catalyst can enter the vessel through a downcomer , then can impinge upon and can be distributed by a splash guard , or wherein the system is configured such that the spent or partially deactivated catalyst can enter the vessel from a side inlet or from a bottom feed, passing upward through an air distributor . a vessel having a lower portion and an upper portion ; a plurality of air injection diffusers located in the lower portion of the vessel ; optional fuel oil distributors for startup; a plurality of fuel gas distributors disposed in the vessel and spaced apart from and above the plurality of air injection diffusers , each of the fuel gas distributors comprising a plurality of fuel gas injection diffusers , wherein the fuel gas injection diffusers are placed in a manner to maximize even mass distribution of a fuel gas injected through the fuel gas injection diffusers in the vessel ; one or more grid assemblies disposed in the vessel spaced apart from and above the plurality of air injection diffusers and spaced apart from and below the fuel gas distributors to maximize even air mass distribution; one or more grid assemblies disposed in the vessel spaced above the fuel gas distributors ; wherein each fuel gas distributor comprises a tube having a plurality of fuel gas injection diffusers , a fuel inlet end and a terminal end ; wherein the system is configured such that spent or partially deactivated catalyst can enter the vessel through a downcomer , then can impinge upon and can be distributed by a splash guard , or wherein the system is configured such that the spent or partially deactivated catalyst can enter the vessel from a side inlet or from a bottom feed, passing upward through an air distributor .
An inkjet printer that applies an ink pattern to a print medium , the inkjet printer comprising: a printhead comprising nozzles arranged in one or more nozzle arrays ; and a controller configured to operate the printhead to perform a method comprising: reciprocating the printhead repeatedly across the print medium in a plurality of passes; repeatedly firing the nozzles during each printhead pass so that each pass results in printing of a print swath across the print medium ; tapering a leading edge portion and a trailing edge portion of each swath; and reducing print density at the tapered leading and trailing edge portions of the swath as compared to print density at a central portion of the swath, wherein two or more of the plurality of swaths overlap one another to form respective rows of an ink pattern, characterized in that within each row, the reduced print density leading edge portion of each swath extends only on the central portion of an immediately previous swath. a printhead comprising nozzles arranged in one or more nozzle arrays ; and a controller configured to operate the printhead to perform a method comprising: reciprocating the printhead repeatedly across the print medium in a plurality of passes; repeatedly firing the nozzles during each printhead pass so that each pass results in printing of a print swath across the print medium ; tapering a leading edge portion and a trailing edge portion of each swath; and reducing print density at the tapered leading and trailing edge portions of the swath as compared to print density at a central portion of the swath, reciprocating the printhead repeatedly across the print medium in a plurality of passes; repeatedly firing the nozzles during each printhead pass so that each pass results in printing of a print swath across the print medium ; tapering a leading edge portion and a trailing edge portion of each swath; and reducing print density at the tapered leading and trailing edge portions of the swath as compared to print density at a central portion of the swath, wherein two or more of the plurality of swaths overlap one another to form respective rows of an ink pattern, characterized in that within each row, the reduced print density leading edge portion of each swath extends only on the central portion of an immediately previous swath.
A SYSTEM FOR DETECTING AND VISUALIZING TARGETS BY AIRBORNE RADAR, comprising: a plurality of antennae (15, 16, 17... 30), regularly disposed at the periphery of a rotary base coupled to an engine , said rotary base being configured to be mounted below an aircraft fuselage and to be driven by said engine arranged at a bottom side of the aircraft fuselage, such that said plurality of antennae (15 ,16 ,17... 30) cover a 360 degree azimuth angle, characterized by : each antenna of said plurality of antennas being pointed to an elevation angle (θ1, θ2, ... θn-1, θn), the elevation angles (θ1, θ2, ... θn-1, θn) of said plurality antennae being staggered according to a defined pattern; and each antenna being associated to a radar device endowed with computer means furnishing information relating to distance, azimuth, elevation and speed of fixed and moving obstacles above and below the plane of said rotary base. a plurality of antennae (15, 16, 17... 30), regularly disposed at the periphery of a rotary base coupled to an engine , said rotary base being configured to be mounted below an aircraft fuselage and to be driven by said engine arranged at a bottom side of the aircraft fuselage, such that said plurality of antennae (15 ,16 ,17... 30) cover a 360 degree azimuth angle, characterized by : each antenna of said plurality of antennas being pointed to an elevation angle (θ1, θ2, ... θn-1, θn), the elevation angles (θ1, θ2, ... θn-1, θn) of said plurality antennae being staggered according to a defined pattern; and each antenna being associated to a radar device endowed with computer means furnishing information relating to distance, azimuth, elevation and speed of fixed and moving obstacles above and below the plane of said rotary base. each antenna of said plurality of antennas being pointed to an elevation angle (θ1, θ2, ... θn-1, θn), the elevation angles (θ1, θ2, ... θn-1, θn) of said plurality antennae being staggered according to a defined pattern; and each antenna being associated to a radar device endowed with computer means furnishing information relating to distance, azimuth, elevation and speed of fixed and moving obstacles above and below the plane of said rotary base.
Connector system , in particular cable harness system, - wherein the connector system comprises a first switching device , a cable loom ; a first contact device , a second switching device and a second contact device , - wherein the cable loom has an arrangement of a plurality of electrical cables , - wherein a first electrical cable from amongst the electrical cables is damaged or interrupted, - wherein the first switching device has a first side and a second side , - wherein one of the two sides is electrically connected to the first contact device , - wherein the cable loom is electrically connected to the first contact device , - wherein the first switching device is switched to a correction switching position depending on a first desired assignment of the first contact device ; - wherein the second switching device has a third side and a fourth side , - wherein the fourth side is electrically connected to the second contact device and the third side is electrically connected to the cable loom , - wherein the second switching device electrically connects the cable loom to the second contact device depending on a second desired assignment of the second contact device ; characterized in that - the cable loom has a replacement cable , - wherein the replacement cable electrically connects the first contact device to the second switching device , - wherein the first and the second switching device are switched in the correction switching position in such a way that the replacement cable is electrically connected so as to bypass the first electrical cable . - wherein the connector system comprises a first switching device , a cable loom ; a first contact device , a second switching device and a second contact device , - wherein the cable loom has an arrangement of a plurality of electrical cables , - wherein a first electrical cable from amongst the electrical cables is damaged or interrupted, - wherein the first switching device has a first side and a second side , - wherein one of the two sides is electrically connected to the first contact device , - wherein the cable loom is electrically connected to the first contact device , - wherein the first switching device is switched to a correction switching position depending on a first desired assignment of the first contact device ; - wherein the second switching device has a third side and a fourth side , - wherein the fourth side is electrically connected to the second contact device and the third side is electrically connected to the cable loom , - wherein the second switching device electrically connects the cable loom to the second contact device depending on a second desired assignment of the second contact device ; characterized in that - the cable loom has a replacement cable , - wherein the replacement cable electrically connects the first contact device to the second switching device , - wherein the first and the second switching device are switched in the correction switching position in such a way that the replacement cable is electrically connected so as to bypass the first electrical cable .