mhurhangee/ep-ind-claims huggingface dataset:
An engine control system comprising: a power unit that includes an engine; and a controller configured to activate the engine via an engine activation signal and control the engine using an engine control software, the controller including a relay connected to the power unit, wherein the controller is configured to detect an unauthorized modification event, wherein the controller is configured to send the engine activation signal to the relay, wherein the controller is configured to send an engine implementation signal to the relay when the controller does not detect the unauthorized modification event, wherein the relay is configured to prevent the engine activation signal from passing to the power unit when the relay does not receive the engine implementation signal when the controller detects the unauthorized modification event, and wherein the power unit includes a stop solenoid, the relay is connected to the stop solenoid, and the relay is configured to send the engine activation signal to the stop solenoid when the relay receives the engine implementation signal. a power unit that includes an engine; and a controller configured to activate the engine via an engine activation signal and control the engine using an engine control software, the controller including a relay connected to the power unit, wherein the controller is configured to detect an unauthorized modification event, wherein the controller is configured to send the engine activation signal to the relay, wherein the controller is configured to send an engine implementation signal to the relay when the controller does not detect the unauthorized modification event, wherein the relay is configured to prevent the engine activation signal from passing to the power unit when the relay does not receive the engine implementation signal when the controller detects the unauthorized modification event, and wherein the power unit includes a stop solenoid, the relay is connected to the stop solenoid, and the relay is configured to send the engine activation signal to the stop solenoid when the relay receives the engine implementation signal.
Wire-mesh welding machine, having a device for infeeding the transverse wires that are deposited in the proximity of the welding position to a group of the parallel longitudinal wires of the mesh that lie in the horizontal operating plane, wherein the transverse wires and the longitudinal wires at their contact points are welded together at the infeeding cycle rate of the transverse wires, and the group of the longitudinal wires is longitudinally indexed at this cycle rate in a stepwise manner in the production-flow direction, wherein the transverse-wire infeed device has a plurality of parallel wire-gripping arms that are fastened so as to be spaced apart on a horizontal operating beam and are movable along an approximately elliptic path and by means of which the transverse wires from a position proximal to the welding position are individually and sequentially acquirable and, for the purpose of subsequent welding, depositable at a permanent location that is lateral to said position, characterized in that the operating beam that supports the wire-gripping arms, by means of an eccentric that is rotatable by a fixedly mounted shaft and by means of a push rod, is horizontally movable by way of a closed system of mutually articulated levers (11 to 14) that is articulated at a fixed point, a vertical-motion installation for establishing the elliptic path acting on the levers (11 to 14), in that a further push rod for the vertical motion, which by way of a further eccentric is driven by the same drive shaft, acts on one of the levers (11 to 14), and in that a vertical, resilient, length-adjustable spring element, for example in the form of a pneumatic cylinder, which pushes the operating beam upwards or downwards, respectively, and thus, depending on the diameter of the transverse wires, enables an additional slight vertical motion of the operating beam that supports the wire-gripping arms, is articulated on the system of levers (11 to 14).
A method for braking a motor (24,25) in a high lift system of an aircraft, the high lift system comprising a central power drive unit for moving high lift surfaces arranged at a wing through providing rotational power by means of a transmission shaft (30,32) to a plurality of drive stations operably coupled with the high lift surfaces; which power drive unit is operatively coupled to a controller and comprises at least one electric motor (24,25) coupled therewith; the method comprising: determining a braking requirement for the at least one electric motor (24,25); measuring a magnitude of a current of a motor command signal and a direction of the at least one electric motor (24,25); based on the braking requirement, applying a braking command to the at least one electric motor (24,25), the braking command comprising a command of substantially equivalent magnitude of the motor command signal that will drive the at least one electric motor in an opposite direction; and reducing the braking command as the at least one electric motor (24,25) comes to rest. determining a braking requirement for the at least one electric motor (24,25); measuring a magnitude of a current of a motor command signal and a direction of the at least one electric motor (24,25); based on the braking requirement, applying a braking command to the at least one electric motor (24,25), the braking command comprising a command of substantially equivalent magnitude of the motor command signal that will drive the at least one electric motor in an opposite direction; and reducing the braking command as the at least one electric motor (24,25) comes to rest.
Implant having a multilayered coating, said implant comprising a porous titanium-based layer on the implant, an interface titania layer on and/or in the porous titanium-based layer and a bioactive glass layer, wherein the bioactive glass layer is in or on and in the porous structure formed by the titanium-based layer and the titania layer.
Biogas container with a cone- or dome-shaped air supported roof, wherein the air supported roof contains a gas-tight and, if necessary, also liquid-tight exterior film that can in particular be applied on the open upper side of a container shell with in particular circular or angular basic shape, wherein below the exterior film a spaced insulating film is provided, characterized in that the insulating film, that is in particular cone- or dome-shaped, is gas-tight with the exception of a multitude of biogas passage openings in its peripheral area, and wherein it is supported on a support post and/or support frame.
An ultrasonic sensor, comprising: a cylindrical casing having a bottom portion and a side wall forming an inner space and an opening portion; a piezoelectric element formed on an inner bottom surface of the casing; a terminal (22a, 22b) electrically connected to the piezoelectric element; and a substrate to which the terminal (22a,22b) is fixed, wherein the substrate is attached to an outermost end face of the side wall with a damping member provided therebetween such that the substrate is not in direct contact with the casing, the damping member suppressing transmission of vibration, characterised in that the damping member is disposed between the outermost end face of the side wall and a principal surface of the substrate, wherein the substrate and damping member have a diameter larger than the inner diameter of the casing so as to cover the opening portion of the casing; wherein the inner space of the casing is filled with a foamable resin. a cylindrical casing having a bottom portion and a side wall forming an inner space and an opening portion; a piezoelectric element formed on an inner bottom surface of the casing; a terminal (22a, 22b) electrically connected to the piezoelectric element; and a substrate to which the terminal (22a,22b) is fixed, wherein the substrate is attached to an outermost end face of the side wall with a damping member provided therebetween such that the substrate is not in direct contact with the casing, the damping member suppressing transmission of vibration, characterised in that the damping member is disposed between the outermost end face of the side wall and a principal surface of the substrate, wherein the substrate and damping member have a diameter larger than the inner diameter of the casing so as to cover the opening portion of the casing; wherein the inner space of the casing is filled with a foamable resin.
A composition for the use in the treatment of alcohol hangover disturbances resulting from excessive alcohol intake and subsequent metabolism comprising: a) methylsulfonylmethane, b) vitamin C, c) an organic salt of zinc, d) vitamin B1. a) methylsulfonylmethane, b) vitamin C, c) an organic salt of zinc, d) vitamin B1.
A process for thermally spraying metal oxide coated ceramic particles onto a substrate comprising: obtaining a plurality of metal oxide coated particles of silicon carbide, silicon nitride, boron carbide or boron nitride wherein the metal oxide coating forms at least 5 wt% of the coated particle weight; and (ii) thermally spraying the particles of step onto a substrate; wherein the metal oxide is yttrium aluminium garnet and wherein the coating forms a complete, continuous coating around the ceramic particle. obtaining a plurality of metal oxide coated particles of silicon carbide, silicon nitride, boron carbide or boron nitride wherein the metal oxide coating forms at least 5 wt% of the coated particle weight; and (ii) thermally spraying the particles of step onto a substrate;
A nonaqueous electrolyte battery comprising: a positive electrode comprising a positive electrode active material containing Li x Ni 1-a-b Co a Mn b M c O 2 (0.9 < x ≤ 1.25, 0 < a ≤ 0.4, 0 ≤ b ≤ 0.45, 0 ≤ c ≤ 0.1, and M represents at least one element selected from the group consisting of Mg, Al, Si, Ti, Zn, Zr, Ca, and Sn); a negative electrode; a separator, disposed between the positive electrode and the negative electrode, comprising polyester, in which a pore volume in a pore size distribution according to a mercury intrusion porosimetry is in a range of 0.9 cm 3 /g to 3 cm 3 /g, and an air permeability value according to a Gurley method (JIS-P-8117) is in a range of 2 sec/100 ml to 15 sec/100 ml; and a nonaqueous electrolyte. a positive electrode comprising a positive electrode active material containing Li x Ni 1-a-b Co a Mn b M c O 2 (0.9 < x ≤ 1.25, 0 < a ≤ 0.4, 0 ≤ b ≤ 0.45, 0 ≤ c ≤ 0.1, and M represents at least one element selected from the group consisting of Mg, Al, Si, Ti, Zn, Zr, Ca, and Sn); a negative electrode; a separator, disposed between the positive electrode and the negative electrode, comprising polyester, in which a pore volume in a pore size distribution according to a mercury intrusion porosimetry is in a range of 0.9 cm 3 /g to 3 cm 3 /g, and an air permeability value according to a Gurley method (JIS-P-8117) is in a range of 2 sec/100 ml to 15 sec/100 ml; and a nonaqueous electrolyte.
An instrument for locating an axis of a blocking screw, the instrument comprising: a mount having a barrel portion and a neck portion, the barrel portion adapted to connect to an intramedullary device; a frame removably attached to the neck portion of the mount, the frame having a first leg and a second leg; a pilot member removably attached to the frame at the first leg or at the second leg; and a cartridge received within the pilot member, the cartridge having at least one locating hole, and wherein the cartridge moves within the pilot member in a direction parallel to an imaginary long axis of the intramedullary device. a mount having a barrel portion and a neck portion, the barrel portion adapted to connect to an intramedullary device; a frame removably attached to the neck portion of the mount, the frame having a first leg and a second leg; a pilot member removably attached to the frame at the first leg or at the second leg; and a cartridge received within the pilot member, the cartridge having at least one locating hole, and wherein the cartridge moves within the pilot member in a direction parallel to an imaginary long axis of the intramedullary device.
A method of manufacturing a sound transducer, comprising: depositing a first metal layer onto a substrate; applying a photo resist layer to the first metal layer; exposing portions of the photo resist layer to electromagnetic radiation; developing the photo resist layer; removing portions of the first metal layer; wet etching portions of the substrate above which the first metal layer has been removed; and depositing a second metal layer onto the substrate. depositing a first metal layer onto a substrate; applying a photo resist layer to the first metal layer; exposing portions of the photo resist layer to electromagnetic radiation; developing the photo resist layer; removing portions of the first metal layer; wet etching portions of the substrate above which the first metal layer has been removed; and depositing a second metal layer onto the substrate.
A furniture hinge for pivotally connecting a first furniture part to a second furniture part, comprising: - a first fitting portion configured to be fixed to the first furniture part, - a second fitting portion configured to be fixed to the second furniture part, the second fitting portion being pivotally connected to the first fitting portion via at least one hinge axis, - wherein the first fitting portion includes a base plate configured to be fixed to the first furniture part, and a coupling member pivotally supported about the hinge axis, the coupling member being configured to be releasably connected to the second fitting portion, - wherein the second fitting portion includes at least one guide device for guiding the coupling member, the coupling member being configured to be releasably connected to the second fitting portion by a second locking device after sliding or pushing the coupling member onto the guide device, characterized in that - a first locking device is provided for releasably locking the coupling member in a predefined pivoting position relative to the base plate, and that - the first locking device being configured to be unlocked so as to release the predefined pivoting position of the coupling member relative to the base plate by connecting the coupling member to the second fitting portion. - a first fitting portion configured to be fixed to the first furniture part, - a second fitting portion configured to be fixed to the second furniture part, the second fitting portion being pivotally connected to the first fitting portion via at least one hinge axis, - wherein the first fitting portion includes a base plate configured to be fixed to the first furniture part, and a coupling member pivotally supported about the hinge axis, the coupling member being configured to be releasably connected to the second fitting portion, - wherein the second fitting portion includes at least one guide device for guiding the coupling member, the coupling member being configured to be releasably connected to the second fitting portion by a second locking device after sliding or pushing the coupling member onto the guide device, characterized in that - a first locking device is provided for releasably locking the coupling member in a predefined pivoting position relative to the base plate, and that - the first locking device being configured to be unlocked so as to release the predefined pivoting position of the coupling member relative to the base plate by connecting the coupling member to the second fitting portion.
An aerosol product providing stability for the formulation against discoloration, and fragrance stability against change in scent character comprising in combination (a) steel can with aerosol dispensing top, body and base, wherein said steel can has an interior surface having thereon a lining, which is an organic coating or a polymeric laminate, and, optionally a tin coating, wherein when the tin coating is present, the lining is provided over top of said tin coating; and (b) a composition comprising (i) water in an amount greater than 80 wt.% but less than 100 wt.%, (ii) compressed gas propellant, (iii) fragrance component, (iv) pH adjuster component in an amount sufficient to provide said composition with a pH of 8 to less than 10, (v) corrosion inhibitor component in an amount greater than 0, but equal to or less than 0.5 wt.%, (vi) surfactant component which is either at least one nonionic surfactant or a blend of at least one nonionic surfactant and at least one cationic surfactant, (vii) optionally a solvent selected from a group consisting of alcohols and glycols, (viii) optionally a buffer component, and (ix) optionally a preservative component; wherein said composition is contained in said steel can; and wherein said composition excludes anionic, amphoteric and zwitterionic surfactants. (a) steel can with aerosol dispensing top, body and base, wherein said steel can has an interior surface having thereon a lining, which is an organic coating or a polymeric laminate, and, optionally a tin coating, wherein when the tin coating is present, the lining is provided over top of said tin coating; and (b) a composition comprising (i) water in an amount greater than 80 wt.% but less than 100 wt.%, (ii) compressed gas propellant, (iii) fragrance component, (iv) pH adjuster component in an amount sufficient to provide said composition with a pH of 8 to less than 10, (v) corrosion inhibitor component in an amount greater than 0, but equal to or less than 0.5 wt.%, (vi) surfactant component which is either at least one nonionic surfactant or a blend of at least one nonionic surfactant and at least one cationic surfactant, (vii) optionally a solvent selected from a group consisting of alcohols and glycols, (viii) optionally a buffer component, and (ix) optionally a preservative component; (i) water in an amount greater than 80 wt.% but less than 100 wt.%, (ii) compressed gas propellant, (iii) fragrance component, (iv) pH adjuster component in an amount sufficient to provide said composition with a pH of 8 to less than 10, (v) corrosion inhibitor component in an amount greater than 0, but equal to or less than 0.5 wt.%, (vi) surfactant component which is either at least one nonionic surfactant or a blend of at least one nonionic surfactant and at least one cationic surfactant, at least one nonionic surfactant or a blend of at least one nonionic surfactant and at least one cationic surfactant, (vii) optionally a solvent selected from a group consisting of alcohols and glycols, (viii) optionally a buffer component, and (ix) optionally a preservative component;
A device (100, 300) for power line communication comprising: a MIMO transmitter adapted to transmit signals on at least two of a plurality of power line MIMO transmission paths (104, 106) of a power line network; a sensor adapted to determine one or a plurality of reflection parameters of one of the plurality of power line transmission paths (104, 106); and a transmission impedance matching unit adapted to match the output impedance of at least two output ports (180, 190) of the device which each couple to one of the plurality of transmission paths to the impedance of the at least two of the power line transmission paths based on the one or the plurality of reflection parameters. a MIMO transmitter adapted to transmit signals on at least two of a plurality of power line MIMO transmission paths (104, 106) of a power line network; a sensor adapted to determine one or a plurality of reflection parameters of one of the plurality of power line transmission paths (104, 106); and a transmission impedance matching unit adapted to match the output impedance of at least two output ports (180, 190) of the device which each couple to one of the plurality of transmission paths to the impedance of the at least two of the power line transmission paths based on the one or the plurality of reflection parameters.
A method for fabricating a semiconductor device (10,20,30,40,50) comprising the steps of: - placing a substrate (11,21,31,41,51) in a reaction chamber, - depositing a first active layer (12,22,32,42,52), said first active layer comprising a group III nitride semiconductor material, - depositing on said first active layer a second active layer (13,23,33,43,53) having a higher bandgap than said first active layer, thereby forming a two-dimensional electron gas layer between said first active layer and said second active layer, - depositing on said second active layer a passivation layer (14,24,34,44,54), - depositing directly on said passivation layer a source contact (15,25,35,45,55) and a drain contact (16,26,36,46,56), wherein: • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, the method being characterized in that: • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer. - placing a substrate (11,21,31,41,51) in a reaction chamber, - depositing a first active layer (12,22,32,42,52), said first active layer comprising a group III nitride semiconductor material, - depositing on said first active layer a second active layer (13,23,33,43,53) having a higher bandgap than said first active layer, thereby forming a two-dimensional electron gas layer between said first active layer and said second active layer, - depositing on said second active layer a passivation layer (14,24,34,44,54), - depositing directly on said passivation layer a source contact (15,25,35,45,55) and a drain contact (16,26,36,46,56), wherein: • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, the method being characterized in that: • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer. • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer.