mhurhangee/ep-ind-claims huggingface dataset:
Brake system with electric servobrake comprising a servobrake acting in a controlled manner on the master cylinder via a thrust rod driven by the servobrake and actuating the piston (primary piston) of the master cylinder, the servobrake being linked by a hydraulic actuator to the control rod of the brake pedal, characterized in that the servobrake comprises - an actuator piston controlled by an electric motor via a rack drive, - a simulator chamber delimited by the hydraulic actuator and subdivided by an intermediate piston into a rear volume and a front volume, which are variable, * the rear volume being delimited by the hydraulic actuator and the intermediate piston, * the front volume being delimited in the simulator chamber by the intermediate piston, - a duct linking the rear volume to a duct linked to the front volume via a first solenoid valve, the duct being linked to the tank by a second solenoid valve, * the first solenoid valve being controlled in the open position, its uncontrolled position being the closed position, * the second solenoid valve being controlled in the closed position, its uncontrolled position being the open position, - the intermediate piston is linked to the thrust rod bearing an abutment to be thrust by the actuator piston, - the thrust rod being able to be thrust by the intermediate piston independently of the actuator piston. - an actuator piston controlled by an electric motor via a rack drive, - a simulator chamber delimited by the hydraulic actuator and subdivided by an intermediate piston into a rear volume and a front volume, which are variable, * the rear volume being delimited by the hydraulic actuator and the intermediate piston, * the front volume being delimited in the simulator chamber by the intermediate piston, * the rear volume being delimited by the hydraulic actuator and the intermediate piston, * the front volume being delimited in the simulator chamber by the intermediate piston, - a duct linking the rear volume to a duct linked to the front volume via a first solenoid valve, the duct being linked to the tank by a second solenoid valve, * the first solenoid valve being controlled in the open position, its uncontrolled position being the closed position, * the second solenoid valve being controlled in the closed position, its uncontrolled position being the open position, * the first solenoid valve being controlled in the open position, its uncontrolled position being the closed position, * the second solenoid valve being controlled in the closed position, its uncontrolled position being the open position, - the intermediate piston is linked to the thrust rod bearing an abutment to be thrust by the actuator piston, - the thrust rod being able to be thrust by the intermediate piston independently of the actuator piston.
A vehicle for use in water da by a user, comprising: • a floating board, • a tail component, coupled to said board, • a first screw propeller and a second screw propeller positioned on said tail component, • actuating means for actuating said screw propellers (4A,4B), positioned on said tail component and configured to remain submerged when said vehicle is used and to be actuated by the user's feet, • first directing means (6A; 66A) and second directing means (6B;66B) for changing the direction of advancement of said vehicle, respectively associated to said first screw propeller and to said second screw propeller, • a motion system for moving said first directing means and said second directing means, comprising a first motion mechanism (M1,M1'), connected to said first directing means (6A; 66A), for moving said first directing means, and a second motion mechanism (M2,M2'), connected to said second directing means (6B;66B), for moving said second directing means, • steering means, arranged on said board; • connecting means (C1, C2) configured for connecting said steering means to said motion system. • a floating board, • a tail component, coupled to said board, • a first screw propeller and a second screw propeller positioned on said tail component, • actuating means for actuating said screw propellers (4A,4B), positioned on said tail component and configured to remain submerged when said vehicle is used and to be actuated by the user's feet, • first directing means (6A; 66A) and second directing means (6B;66B) for changing the direction of advancement of said vehicle, respectively associated to said first screw propeller and to said second screw propeller, • a motion system for moving said first directing means and said second directing means, comprising a first motion mechanism (M1,M1'), connected to said first directing means (6A; 66A), for moving said first directing means, and a second motion mechanism (M2,M2'), connected to said second directing means (6B;66B), for moving said second directing means, • steering means, arranged on said board; • connecting means (C1, C2) configured for connecting said steering means to said motion system.
A method of manufacturing a solid stick antiperspirant composition, comprising: combining a first stream and a second stream, wherein the first stream comprises a structurant and a surfactant, wherein the surfactant is a non-ionic ethoxylated linear alcohol having a carbon chain length from 20 to 40 and the second stream comprises an antiperspirant active comprising a zirconium salt; and wherein the first stream and the second stream are combined in a static mixer to form a mixture; dispensing the mixture from a nozzle to fill a dispensing package, forming a solid stick antiperspirant composition within the dispensing package; and wherein the antiperspirant active and the surfactant are in contact for 5 minutes or less from the moment that the antiperspirant active and the surfactant and the structurant are mixed until the moment that the mixture is dispensed from the nozzle. combining a first stream and a second stream, wherein the first stream comprises a structurant and a surfactant, wherein the surfactant is a non-ionic ethoxylated linear alcohol having a carbon chain length from 20 to 40 and the second stream comprises an antiperspirant active comprising a zirconium salt; and wherein the first stream and the second stream are combined in a static mixer to form a mixture; dispensing the mixture from a nozzle to fill a dispensing package, forming a solid stick antiperspirant composition within the dispensing package; and wherein the antiperspirant active and the surfactant are in contact for 5 minutes or less from the moment that the antiperspirant active and the surfactant and the structurant are mixed until the moment that the mixture is dispensed from the nozzle.
A leadwire for physiological patient monitoring configured to capacitively transmit physiological signals received at a chest electrode to a data acquisition device, the leadwire comprising: an electrode end connecting to a chest electrode; a first conductive layer extending from the electrode end and arranged to be in galvanic contact with a conductive portion of the chest electrode; a device end connectable to a data acquisition device; a second conductive layer extending from the device end; and wherein the first conductive layer is arranged to terminate prior to the device end, and the first conductive layer is galvanically isolated from the second conductive layer such that the first conductive layer and the second conductive layer form a capacitor (C L) that is configured to capacitively transmit the physiological signals from the chest electrode to the data acquisition device. an electrode end connecting to a chest electrode; a first conductive layer extending from the electrode end and arranged to be in galvanic contact with a conductive portion of the chest electrode; a device end connectable to a data acquisition device; a second conductive layer extending from the device end; and wherein the first conductive layer is arranged to terminate prior to the device end, and the first conductive layer is galvanically isolated from the second conductive layer such that the first conductive layer and the second conductive layer form a capacitor (C L) that is configured to capacitively transmit the physiological signals from the chest electrode to the data acquisition device.
An airfoil for a gas turbine engine comprising: a pressure side formed of at least one Ceramic Matrix Composite ply; a suction side formed of at least one Ceramic Matrix Composite ply; and an aft trailing edge support (98;98';98";98"') between said pressure side and said suction side; a forward trailing edge support between said pressure side and said suction side; wherein said forward trailing edge support is back to back with said aft trailing edge support; characterised by further comprising: a split in a trailing edge between the pressure side and the suction side of the airfoil and aft of the aft trailing edge support (98;98';98";98"'). a pressure side formed of at least one Ceramic Matrix Composite ply; a suction side formed of at least one Ceramic Matrix Composite ply; and an aft trailing edge support (98;98';98";98"') between said pressure side and said suction side; a forward trailing edge support between said pressure side and said suction side; wherein said forward trailing edge support is back to back with said aft trailing edge support; characterised by further comprising: a split in a trailing edge between the pressure side and the suction side of the airfoil and aft of the aft trailing edge support (98;98';98";98"'). a split in a trailing edge between the pressure side and the suction side of the airfoil and aft of the aft trailing edge support (98;98';98";98"').
Device for detecting the encryption of a key comprising a body in which there is at least one seat for inserting a key and reading means of at least a first and a second encryption line (6, 7) that extends in the same direction as the axis of said key and which is arranged near said seat, whereby said reading means comprises at least a first and a second group of mechanical probes (10, 11) for the mechanical reading, respectively, of said first and second encryption line (6, 7), characterised in that said first and second group of mechanical probes (10, 11) have respectively a first and a second reference surface (12, 13) lying on the same line positioned in such a manner as to be detectable by a single optical detection device that is movable in the direction of said axis of said key.
A method for producing a GaNLED device, comprising the following steps: - providing a substrate comprising on its surface a stack of layers, said stack comprising at least a GaN layer (24,25), - depositing a resist layer directly on said stack, - positioning a mask above said resist layer, said mask covering one or more first portions of said resist layer and not covering one or more second portions of said resist layer, - exposing said second portions of said resist layer to a light source, - removing the mask, - bringing the resist layer in contact with a developer comprising potassium, maintaining the contact with said developer until said resist portions that have been exposed are removed, and characterized by continuing the contact with said developer until the surface of at least the top layer of said stack is texturized by wet etching said surface at room temperature and without photoelectrochemical etching, in the areas situated underneath said resist portions that have been removed, said texturization being provided for enhancing light extraction from the surface of the GaNLED device. - providing a substrate comprising on its surface a stack of layers, said stack comprising at least a GaN layer (24,25), - depositing a resist layer directly on said stack, - positioning a mask above said resist layer, said mask covering one or more first portions of said resist layer and not covering one or more second portions of said resist layer, - exposing said second portions of said resist layer to a light source, - removing the mask, - bringing the resist layer in contact with a developer comprising potassium, maintaining the contact with said developer until said resist portions that have been exposed are removed, and characterized by continuing the contact with said developer until the surface of at least the top layer of said stack is texturized by wet etching said surface at room temperature and without photoelectrochemical etching, in the areas situated underneath said resist portions that have been removed, said texturization being provided for enhancing light extraction from the surface of the GaNLED device.
A method of controlling gas flow in a convective cooling loop within a cryostat, comprising: actuating a valve in a gas flow path of the convective cooling loop between a closed position and an open position via a magnetic field generated by at least one electrically conductive coil disposed within the cryostat, wherein actuation of the valve controls flow of the gas disposed within the convective cooling loop. actuating a valve in a gas flow path of the convective cooling loop between a closed position and an open position via a magnetic field generated by at least one electrically conductive coil disposed within the cryostat, wherein actuation of the valve controls flow of the gas disposed within the convective cooling loop.
A nucleic acid encoding an AAV capsid, the nucleic acid comprising an AAV capsid coding sequence that is at least 96% identical to: (a) the nucleotide sequence of SEQ ID NO:1; or (b) a nucleotide sequence encoding one of SEQ ID NOS:2-4; wherein the capsid exhibits a dominant tropism for oligodendrocytes. (a) the nucleotide sequence of SEQ ID NO:1; or (b) a nucleotide sequence encoding one of SEQ ID NOS:2-4;
A radio frequency coil configured for use with a magnetic resonance imaging guided radiation therapy apparatus, the radio frequency coil comprising: a first conductive loop; a second conductive loop; and a plurality of conductive rungs, each of the plurality of conductive rungs disposed between the first and second conductive loops and electrically connected to the first and second conductive loops, wherein at least one of the plurality of conductive rungs includes a first conductive rung section, a second conductive rung section, and a third conductive rung section, the second conductive rung section being disposed between the first and third conductive rung sections (151a, 151b), characterized in that the second conductive rung section has a thickness along the radial direction of the radio frequency coil that is substantially thinner than a thickness of the first and third conductive rung sections (151a, 151b) along the radial direction of the radio frequency coil such that, when the radio frequency coil is used with the MRI guided radiation therapy apparatus, such that the second conductive rung section coincides with the position at which a radiation beam emitted from the radiation therapy apparatus penetrates from the outside of the radio frequency coil into the inner cylindrical volume of the radio frequency coil, the resulting beam attenuation by the second conductive rung section is reduced compared to an attenuation of the radiation beam if the radiation beam would be emitted through the first conductive rung section or through the third conductive rung section. a first conductive loop; a second conductive loop; and a plurality of conductive rungs, each of the plurality of conductive rungs disposed between the first and second conductive loops and electrically connected to the first and second conductive loops, wherein at least one of the plurality of conductive rungs includes a first conductive rung section, a second conductive rung section, and a third conductive rung section, the second conductive rung section being disposed between the first and third conductive rung sections (151a, 151b), characterized in that the second conductive rung section has a thickness along the radial direction of the radio frequency coil that is substantially thinner than a thickness of the first and third conductive rung sections (151a, 151b) along the radial direction of the radio frequency coil such that, when the radio frequency coil is used with the MRI guided radiation therapy apparatus, such that the second conductive rung section coincides with the position at which a radiation beam emitted from the radiation therapy apparatus penetrates from the outside of the radio frequency coil into the inner cylindrical volume of the radio frequency coil, the resulting beam attenuation by the second conductive rung section is reduced compared to an attenuation of the radiation beam if the radiation beam would be emitted through the first conductive rung section or through the third conductive rung section.
An autogyro plane having a fuselage with a cockpit having a pilot position, a tractor propeller mounted at the front of the fuselage, a mast connected to the fuselage at a connection region and projecting upwardly from the fuselage for supporting rotor blades, the pilot position being in front of the connection region, characterised in that said mast incorporates a rudder.
A multicable lockout device comprising: a housing including at least two cable end securement points, the housing having a base section and cover section that is movable relative to the base section between an opened position and a closed position; a stationary cleat fixed relative to the base section of the housing; at least two rotatable cleats (20,22) attached to the base section, in which each of the respective rotatable cleats is positioned adjacent to the stationary cleat with a respective cable-receiving pathway (114,116) being defined between the stationary cleat and each of the respective rotatable cleats (20,22), the respective rotatable cleats each having a tip biased towards the stationary cleat to facilitate one-way gripping action of a cable along the respective cable-receiving pathway; and wherein, when in the closed position, the respective cable-receiving pathways between the stationary cleat and each respective rotatable cleat are securably covered by the cover section and the cover section is lockable relative to base section to prevent the cover section from being taken out of the closed position while locked. a housing including at least two cable end securement points, the housing having a base section and cover section that is movable relative to the base section between an opened position and a closed position; a stationary cleat fixed relative to the base section of the housing; at least two rotatable cleats (20,22) attached to the base section, in which each of the respective rotatable cleats is positioned adjacent to the stationary cleat with a respective cable-receiving pathway (114,116) being defined between the stationary cleat and each of the respective rotatable cleats (20,22), the respective rotatable cleats each having a tip biased towards the stationary cleat to facilitate one-way gripping action of a cable along the respective cable-receiving pathway; and wherein, when in the closed position, the respective cable-receiving pathways between the stationary cleat and each respective rotatable cleat are securably covered by the cover section and the cover section is lockable relative to base section to prevent the cover section from being taken out of the closed position while locked.
A viral vector having a vector genome comprising a retinaldehyde binding protein 1 (RLBP1) coding sequence, wherein said vector is adapted to direct expression of an RLBP1 coding sequence in retinal pigment epithelial cells and Müller cells of the retina, wherein said vector comprises an adeno-associated virus serotype 2 or 8 capsid, and said vector genome comprises in the 5' to 3' direction: (i) a 5' ITR; (ii) a recombinant nucleotide sequence comprising in the 5' to 3' direction: a promoter; an RLBP1 coding sequence; and an SV40 polyA sequence; wherein the promoter is operably linked to the RLBP1 coding sequence; and (iii) a 3' ITR; wherein the vector genome comprises in the 5' to 3' direction nucleic acid sequences: a) SEQ ID NO: 2, 10, 5, 6, 8, and 9; or b) SEQ ID NO: 2, 3, 4, 5, 6, 8, 23, and 9. (i) a 5' ITR; (ii) a recombinant nucleotide sequence comprising in the 5' to 3' direction: a promoter; an RLBP1 coding sequence; and an SV40 polyA sequence; wherein the promoter is operably linked to the RLBP1 coding sequence; and (iii) a 3' ITR; a) SEQ ID NO: 2, 10, 5, 6, 8, and 9; or b) SEQ ID NO: 2, 3, 4, 5, 6, 8, 23, and 9.
An intraosseous access system, comprising: a housing; a needle assembly extending from a distal end of the housing and including an obturator extending along a longitudinal axis and disposed within a lumen of a needle; an aspiration system disposed within the housing and including one of a syringe or a vacutainer, the aspiration system configured to slide the obturator relative to the needle and selectively provide a vacuum in fluid communication with the needle lumen; and a drive train disposed within the housing and configured to rotate the needle assembly and one of a syringe barrel of said syringe or a vacutainer canister of said vacutainer about the longitudinal axis a housing; a needle assembly extending from a distal end of the housing and including an obturator extending along a longitudinal axis and disposed within a lumen of a needle; an aspiration system disposed within the housing and including one of a syringe or a vacutainer, the aspiration system configured to slide the obturator relative to the needle and selectively provide a vacuum in fluid communication with the needle lumen; and a drive train disposed within the housing and configured to rotate the needle assembly and one of a syringe barrel of said syringe or a vacutainer canister of said vacutainer about the longitudinal axis
Method for radio transmission of message symbols (12, 12'), which radio transmission involves a UWB transmitter emitting a pulse-phase-modulated transmission signal that comprises isolated pulses (14, 14'), each of which has a time offset, in relation to a time pattern, that is dependent on a message symbol (12, 12') that the pulse (14, 14') represents, and all in all the transmission signal (s) has a line spectrum having a multiplicity of frequency lines (30, 32) wherein the method involves the transmission signal being received by a receiver, characterized in that the receiver: - obtains a narrowband signal from a modulated frequency line of the line spectrum, wherein all in all the narrowband signal comprises a bandwidth that corresponds to less than twice a pattern frequency (frep) of the time pattern, - a phase (F(n,t)) of the narrowband signal is ascertained at predetermined instants, and - the respectively ascertained phase (F(n,t)) is associated with one of a plurality of predetermined message symbols (12, 12'). - obtains a narrowband signal from a modulated frequency line of the line spectrum, wherein all in all the narrowband signal comprises a bandwidth that corresponds to less than twice a pattern frequency (frep) of the time pattern, - a phase (F(n,t)) of the narrowband signal is ascertained at predetermined instants, and - the respectively ascertained phase (F(n,t)) is associated with one of a plurality of predetermined message symbols (12, 12').