mhurhangee/ep-ind-claims huggingface dataset:
An aircraft pressure device including a connection to ambient comprising: a positive pressure relief valve (34, 38) mountable to a fuselage of an aircraft, the positive pressure relief valve including a sensor body which includes a sense port; a sense line(42, 59) including a first end (45, 61) connected to the sense port on the sensor body, a second end (47, 63) defining an opening in the fuselage, and an intermediate portion (50, 65); and characterized in that the aircraft pressure device further comprises a one-way liquid isolation valve (73, 80) arranged in the intermediate portion spaced from the first end and the second end, the one-way liquid isolation valve being operable to prevent liquid flow from the second end (47, 63) towards the first end (45, 61). a positive pressure relief valve (34, 38) mountable to a fuselage of an aircraft, the positive pressure relief valve including a sensor body which includes a sense port; a sense line(42, 59) including a first end (45, 61) connected to the sense port on the sensor body, a second end (47, 63) defining an opening in the fuselage, and an intermediate portion (50, 65); and characterized in that the aircraft pressure device further comprises a one-way liquid isolation valve (73, 80) arranged in the intermediate portion spaced from the first end and the second end, the one-way liquid isolation valve being operable to prevent liquid flow from the second end (47, 63) towards the first end (45, 61).
A drone, comprising: - a camera including a lens, a digital sensor onto which is formed an image of a scene, and a mechanism of the rolling-shutter type for reading the sensor, delivering video data as an output, line-by-line; - an inertial unit, including a gyrometer sensor adapted to measure variations of the drone attitude and to deliver as an output a gyrometric signal representative of the instantaneous rotations ( φ, θ, ψ) of the drone with respect to a given reference system; and - an image processing module, comprising an anti-wobble module receiving as an input the video data and the gyrometric signal, and delivering as an output video data that are processed and corrected for artifacts introduced by vibrations originating from the drone, characterized in that it further includes, at the input of the image processing module: - a complementary filtering module, adapted to apply a predetermined compensating transfer function to the gyrometric signal at the input of the anti-wobble module, said predetermined transfer function being a transfer function that is the inverse of the frequency response of said gyrometer sensor of the inertial unit. - a camera including a lens, a digital sensor onto which is formed an image of a scene, and a mechanism of the rolling-shutter type for reading the sensor, delivering video data as an output, line-by-line; - an inertial unit, including a gyrometer sensor adapted to measure variations of the drone attitude and to deliver as an output a gyrometric signal representative of the instantaneous rotations ( φ, θ, ψ) of the drone with respect to a given reference system; and - an image processing module, comprising an anti-wobble module receiving as an input the video data and the gyrometric signal, and delivering as an output video data that are processed and corrected for artifacts introduced by vibrations originating from the drone, - a complementary filtering module, adapted to apply a predetermined compensating transfer function to the gyrometric signal at the input of the anti-wobble module, said predetermined transfer function being a transfer function that is the inverse of the frequency response of said gyrometer sensor of the inertial unit.
A system for automatic orientation of a display for a portable electronic device of an aircraft, the system comprising: an attitude heading reference system for detecting a first heading information; a master control panel operably coupled to the attitude heading reference system; and a portable electronic device operably coupled to the master control panel, the portable electronic device further comprising: a sensor for detecting a second heading information; a display; and a processor operably coupled to the sensor and the display, the processor being further configured to: receive the first heading information; receive the second heading information, wherein the first heading information is different than the second heading information; compare the first heading information and the second heading information; and modify an orientation of a presentation of the display based at least in part on the comparison; characterised in that the processor is further configured to determine the orientation of the presentation of the display based at least in part on configurable limit angles for delimiting regions. an attitude heading reference system for detecting a first heading information; a master control panel operably coupled to the attitude heading reference system; and a portable electronic device operably coupled to the master control panel, the portable electronic device further comprising: a sensor for detecting a second heading information; a display; and a processor operably coupled to the sensor and the display, the processor being further configured to: receive the first heading information; receive the second heading information, wherein the first heading information is different than the second heading information; compare the first heading information and the second heading information; and modify an orientation of a presentation of the display based at least in part on the comparison; a sensor for detecting a second heading information; a display; and a processor operably coupled to the sensor and the display, the processor being further configured to: receive the first heading information; receive the second heading information, wherein the first heading information is different than the second heading information; compare the first heading information and the second heading information; and modify an orientation of a presentation of the display based at least in part on the comparison; receive the first heading information; receive the second heading information, wherein the first heading information is different than the second heading information; compare the first heading information and the second heading information; and modify an orientation of a presentation of the display based at least in part on the comparison;
A lighting apparatus including one or more LED-based light sources configured to generate illumination radiation that is viewed by an observer, the lighting apparatus comprising: a power control apparatus, comprising an energy transfer arrangement and a switch, wherein the energy transfer arrangement is coupled to the one or more LED-based light sources, and wherein the energy transfer arrangement is configured such that an input current passes through the energy transfer arrangement via operation of the switch; a rectifier configured to be coupled to an A.C. voltage source and to output a rectified voltage waveform, the A.C voltage source being arranged to provide a source of power to the power control apparatus; a controller configured to control the switch; characterized in that the power control apparatus is a feed-forward power control apparatus, and in that the controller is arranged to control the switch in response to an input voltage (Vin) and/or an input current (lin) as well as other control information or data provided to the power control apparatus, wherein the control information or data represents a desired amount of power to be transferred to the one or more LED-based light sources. a power control apparatus, comprising an energy transfer arrangement and a switch, wherein the energy transfer arrangement is coupled to the one or more LED-based light sources, and wherein the energy transfer arrangement is configured such that an input current passes through the energy transfer arrangement via operation of the switch; a rectifier configured to be coupled to an A.C. voltage source and to output a rectified voltage waveform, the A.C voltage source being arranged to provide a source of power to the power control apparatus; a controller configured to control the switch; characterized in that the power control apparatus is a feed-forward power control apparatus, and in that the controller is arranged to control the switch in response to an input voltage (Vin) and/or an input current (lin) as well as other control information or data provided to the power control apparatus, wherein the control information or data represents a desired amount of power to be transferred to the one or more LED-based light sources.
Method of obstacle detection for a rail vehicle, having the steps: - capturing 3D sensor data (3D-SD) from a surrounding area of the rail vehicle, - generating 3D image data (3D-BD) on the basis of the 3D sensor data (3D-SD), - generating 2D image data (2D-BD) on the basis of the 3D image data (3D-BD), - generating a 2D anomaly mask (2D-AM) by comparing the 2D image data (2D-BD) with reference image data (R-BD) that is free of a collision obstacle, wherein an image region is identified as a mask region in the 2D image data (2D-BD), which differs from a corresponding image region in the reference image data (R-BD), - generating a 3D anomaly mask (3D-AM) in the 3D image data (3D-BD) by fusing the 2D anomaly mask (2D-AM) with the 3D image data (3D-BD), - identifying the 3D image data (3D-BD) incorporated by the 3D anomaly mask (3D-AM) as a possible collision obstacle. - capturing 3D sensor data (3D-SD) from a surrounding area of the rail vehicle, - generating 3D image data (3D-BD) on the basis of the 3D sensor data (3D-SD), - generating 2D image data (2D-BD) on the basis of the 3D image data (3D-BD), - generating a 2D anomaly mask (2D-AM) by comparing the 2D image data (2D-BD) with reference image data (R-BD) that is free of a collision obstacle, wherein an image region is identified as a mask region in the 2D image data (2D-BD), which differs from a corresponding image region in the reference image data (R-BD), - generating a 3D anomaly mask (3D-AM) in the 3D image data (3D-BD) by fusing the 2D anomaly mask (2D-AM) with the 3D image data (3D-BD), - identifying the 3D image data (3D-BD) incorporated by the 3D anomaly mask (3D-AM) as a possible collision obstacle.
A wound therapy device configured to provide negative pressure therapy to a wound, comprising: a housing (20; 120; 220; 420; 520; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside of the housing; a liquid absorbing structure within the liquid-retention chamber; a vacuum connection (30, 32; 130, 132; 232; 432) for coupling to a vacuum source (134; 234; 434; 534; 634, 634'), the vacuum connection in gaseous communication with the liquid-retention chamber, a liquid barrier (36; 136; 236; 436; 636, 636') configured to prevent liquid travel from the liquid absorbing structure into the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing, and in that the liquid absorbing structure comprises super-absorbent polymers that form gels to assist in retaining the liquid drawn into the liquid-retention chamber. a housing (20; 120; 220; 420; 520; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640, 640'; 840) positioned inside of the housing; a liquid absorbing structure within the liquid-retention chamber; a vacuum connection (30, 32; 130, 132; 232; 432) for coupling to a vacuum source (134; 234; 434; 534; 634, 634'), the vacuum connection in gaseous communication with the liquid-retention chamber, a liquid barrier (36; 136; 236; 436; 636, 636') configured to prevent liquid travel from the liquid absorbing structure into the vacuum connection while allowing gas flow, characterized in that the liquid barrier is positioned inside the housing, and in that the liquid absorbing structure comprises super-absorbent polymers that form gels to assist in retaining the liquid drawn into the liquid-retention chamber.
A method for executing a smart contract, comprising: receiving, by a blockchain node, a request for creating a smart contract, wherein the request comprises a bytecode of the smart contract; compiling, by the blockchain node, all of the bytecode of the smart contract into first machine code by using a global compilation method comprising Ahead of Time, AoT, compilation after deploying the smart contract, and storing the first machine code, wherein the compiling, by the blockchain node, the bytecode of the smart contract into first machine code by using a global compilation method after deploying the smart contract comprises globally compiling all of the bytecode of the smart contract in an idle time period of the blockchain node after creating the smart contract; and locally compiling without waiting for completion of the global compilation method, by the blockchain node when executing the smart contract, the bytecode of the smart contract by using a local compilation method comprising Just-In-Time, JIT, compilation to obtain second machine code if the first machine code of the smart contract is not locally stored and the bytecode of the smart contract is being globally compiled, storing the second machine code, and executing the second machine code. receiving, by a blockchain node, a request for creating a smart contract, wherein the request comprises a bytecode of the smart contract; compiling, by the blockchain node, all of the bytecode of the smart contract into first machine code by using a global compilation method comprising Ahead of Time, AoT, compilation after deploying the smart contract, and storing the first machine code, wherein the compiling, by the blockchain node, the bytecode of the smart contract into first machine code by using a global compilation method after deploying the smart contract comprises globally compiling all of the bytecode of the smart contract in an idle time period of the blockchain node after creating the smart contract; and locally compiling without waiting for completion of the global compilation method, by the blockchain node when executing the smart contract, the bytecode of the smart contract by using a local compilation method comprising Just-In-Time, JIT, compilation to obtain second machine code if the first machine code of the smart contract is not locally stored and the bytecode of the smart contract is being globally compiled, storing the second machine code, and executing the second machine code.
A chip package comprising: a housing; one or more electrical connections coupled to an exterior of the housing; a heat sink (4; 9) attached to an interior surface of the housing; a photonic integrated circuit disposed within the housing and attached to the heat sink (4:9) and having at least one waveguide configured to guide a beam of light; and a scanning unit attached to the interior surface of the housing and configured to laterally scan the beam of light across a focal plane outside of the housing, wherein the scanning unit is aligned with, but is a separate component from, the photonic integrated circuit within the housing such that the beam of light is coupled between the photonic integrated circuit and the scanning unit. a housing; one or more electrical connections coupled to an exterior of the housing; a heat sink (4; 9) attached to an interior surface of the housing; a photonic integrated circuit disposed within the housing and attached to the heat sink (4:9) and having at least one waveguide configured to guide a beam of light; and a scanning unit attached to the interior surface of the housing and configured to laterally scan the beam of light across a focal plane outside of the housing, wherein the scanning unit is aligned with, but is a separate component from, the photonic integrated circuit within the housing such that the beam of light is coupled between the photonic integrated circuit and the scanning unit.
Isolated human adherent placental cells for use in treating a disruption in the flow of blood in or around the brain of an individual, wherein said isolated human adherent placental cells are CD10 +, CD34 -, CD105 +, and CD200 +, and wherein said isolated human adherent placental cells are prepared to be administered in an effective amount to said individual.
A spinal correction construct comprising: a first member (22; 222) configured for attachment to a first portion of vertebral tissue (V3, V4); a second member (28; 228) configured for attachment to a second portion of the vertebral tissue (V6, V7) spaced from the first portion; a third member (34; 124) having a non-flexible configuration relative to the first and second members (22, 28; 28, 228) and being configured for attachment to an apical portion of the vertebral tissue (V4, V5, V6) and along at least a portion of at least two vertebra, the third member (34; 124) extending between a first end (36; 126) connected to the first member (22; 222) at a first transition configured for attachment to the first vertebral tissue (V3, V4) and a second end (38; 128) connected to the second member (28; 228) at a second transition configured for attachment to the second vertebral tissue (V6, V7), wherein the first and second members (22, 28; 222, 228) each include a tether and the third member includes (34; 124) a spinal rod, wherein each of the members (22, 28, 34, 124; 222, 228) includes an elongated longitudinal element, and wherein the first member (22; 222) and the second member (28; 228) are disposed in a substantially coaxial arrangement to define a first longitudinal axis and the third member (34; 124) defines a second longitudinal axis spaced apart and disposed in a substantially parallel orientation relative to the first longitudinal axis. a first member (22; 222) configured for attachment to a first portion of vertebral tissue (V3, V4); a second member (28; 228) configured for attachment to a second portion of the vertebral tissue (V6, V7) spaced from the first portion; a third member (34; 124) having a non-flexible configuration relative to the first and second members (22, 28; 28, 228) and being configured for attachment to an apical portion of the vertebral tissue (V4, V5, V6) and along at least a portion of at least two vertebra, the third member (34; 124) extending between a first end (36; 126) connected to the first member (22; 222) at a first transition configured for attachment to the first vertebral tissue (V3, V4) and a second end (38; 128) connected to the second member (28; 228) at a second transition configured for attachment to the second vertebral tissue (V6, V7),
A system for applying a product by an application roller (122, 122') on a substrate, comprising: - an application head (111, 111') comprising the application roller; - a transport device configured to transport the substrate horizontally with respect to the application head (111, 111'); - an actuator (113, 113') configured to move the application head between a lowered position and a raised position, and vice versa; - a position detector configured to detect a position of the substrate with respect to the application head (111, 111'); and - a microprocessor configured to command a movement of the application head (111, 111') immediately from a lowered position of the application head (111, 111') in which the application roller (122, 122') applies product in a predetermined position of the surface of the substrate, to a raised position of the application head (111, 111') in which the application roller (122, 122') does not apply product, or vice versa; the microprocessor being further configured to receiving from the position detector a signal for detecting the position of the substrate and sending an actuation signal to the actuator (113, 113') in order to move the application head (111, 111') in the predetermined position of the substrate; characterized in that the actuator (113, 113') comprises a connecting rod and crank mechanism, wherein the rod is configured to move the application head (111, 111') when the crank is turned by a motor. - an application head (111, 111') comprising the application roller; - a transport device configured to transport the substrate horizontally with respect to the application head (111, 111'); - an actuator (113, 113') configured to move the application head between a lowered position and a raised position, and vice versa; - a position detector configured to detect a position of the substrate with respect to the application head (111, 111'); and - a microprocessor configured to command a movement of the application head (111, 111') immediately from a lowered position of the application head (111, 111') in which the application roller (122, 122') applies product in a predetermined position of the surface of the substrate, to a raised position of the application head (111, 111') in which the application roller (122, 122') does not apply product, or vice versa;
A halogenated organoaminosilane precursor represented by the following Formula I: X m R 1 n H p Si(NR 2 R 3) 4-m-n-p I wherein X is a halide selected from the group consisting of Cl, Br, I; R 1 is independently selected from a linear or branched C 1 to C 10 alkyl group, a C 2 to C 12 alkenyl group, a C 2 to C 12 alkynyl group, a C 4 to C 10 cyclic alkyl group, and a C 6 to C 10 aryl group; R 2 and R 3 are linked to form a ring; R 2 is selected from a linear or branched C 1 to C 10 alkylene, a C 3 to C 12 alkenylene group, a C 3 to C 12 alkynylene group, a C 4 to C 10 cyclic alkylene group, and a C 6 to C 10 arylene group; R 3 is selected from a branched C 3 to C 10 alkylene group, a C 3 to C 12 alkenylene group, a C 3 to C 12 alkynylene group, a C 4 to C 10 cyclic alkylene group, and a C 6 to C 10 arylene group; m is 1 or 2; n is 0, 1, or 2; p is 0, 1 or 2; and the sum of (m+n+p) is less than 4; or wherein the halogenated organoaminosilane precursor is N-(chlorosilyl)indole.
A condenser configured to be used with an apparatus for increasing the size of gas-entrained particles in order to render the gas-entrained particles detectable by a particle detector; the condenser in use being in fluid communication with an outlet of an evaporation chamber of the apparatus; the condenser having an outlet for connection to the particle detector; wherein the condenser is provided with means for removing condensed substance from the interior walls of the condenser; characterised in that the means for removing condensed substance comprises one or more drainage ducts extending along all of part of its length, the drainage ducts being separated from the interior of the condenser by a permeable wall or membrane through which liquid condensate can pass, the drainage ducts having one or more outlets connectable to a pump to extract liquid condensate from the ducts. the condenser in use being in fluid communication with an outlet of an evaporation chamber of the apparatus; the condenser having an outlet for connection to the particle detector; wherein the condenser is provided with means for removing condensed substance from the interior walls of the condenser; characterised in that the means for removing condensed substance comprises one or more drainage ducts extending along all of part of its length, the drainage ducts being separated from the interior of the condenser by a permeable wall or membrane through which liquid condensate can pass, the drainage ducts having one or more outlets connectable to a pump to extract liquid condensate from the ducts.