mhurhangee/ep-ind-claims huggingface dataset:
A laminated glazing for a vehicle embedded with one or more data transponders comprising: a first substrate consisting an outer face and an inner face; one or more interlayers disposed on the inner face of the first substrate; a second substrate disposed on the interlayer; characterized in that at least one data transponder device (102, 104) comprising an antenna (102a, 104a) and an integrated circuit (102b, 104b) disposed on one or more interlayer, wherein one or more interlayer placed in between the first and second substrate (100a, 100b), wherein the data transponder device (102, 104) is configured to communicate data wirelessly with a detecting device or a mobile device and provide selective reading of the transponder device (102, 104), one or more heating element being provided between the first substrate and the second substrate, wherein the heating element is positioned around the data transponder device (102, 104) at a pre-defined distance therein to heat a region around the antenna (102a, 104a) and thereby improve readability of the data transponder. a first substrate consisting an outer face and an inner face; one or more interlayers disposed on the inner face of the first substrate; a second substrate disposed on the interlayer; characterized in that at least one data transponder device (102, 104) comprising an antenna (102a, 104a) and an integrated circuit (102b, 104b) disposed on one or more interlayer, wherein one or more interlayer placed in between the first and second substrate (100a, 100b), wherein the data transponder device (102, 104) is configured to communicate data wirelessly with a detecting device or a mobile device and provide selective reading of the transponder device (102, 104), one or more heating element being provided between the first substrate and the second substrate, wherein the heating element is positioned around the data transponder device (102, 104) at a pre-defined distance therein to heat a region around the antenna (102a, 104a) and thereby improve readability of the data transponder.
A thin padlock with simple and convenient operation, comprising a lock hook, a lock buckle, and a lock cylinder module capable of locking the padlock, and the lock buckle being fixed to an opening and closing side of a box, the lock cylinder module is embedded into another opening and closing side of the box, characterized in that during an unlock process of the padlock, the lock cylinder module is capable of sliding in an embedding direction with respect to the box to drive the lock cylinder module to move the lock hook until the lock hook is separated from the lock buckle.
A breakable spout comprising a spout body and a cover that covers an outer circumference of the spout body, the spout body and the cover being individually manufactured and assembled into the breakable spout, wherein the spout body comprises a cylindrical part and a breakable part, the cylindrical part has a center hole that serves as a flow channel, the breakable part is integrally formed at a tip end of the cylindrical part such that one end of the flow channel is closed, and the breakable part is breakable at the tip end such that the one end of the flow channel is open, the breakable spout being characterised in that the spout body comprises a heat deformable annular part that is formed such that a side wall of the annular part protrudes from the breakable part toward a side opposite to the cylindrical part; a center hole of the annular part is a communication hole that communicates with the flow channel through the breakable part, wherein the communication hole is a hole that is closed by deforming the annular part; the cover is configured to cover the spout body, including the annular part, from a tip end side of the cylindrical part; the cylindrical part has a first protrusion on an outer circumferential surface thereof; the cover has a second protrusion on an inner circumferential surface thereof, wherein the second protrusion engages the first protrusion when the cover is fitted to the spout body such that the spout body, including the annular part, is covered with the cover from the tip end side of the cylindrical part; the cover covers the spout body and is secured when the first protrusion engages the second protrusion; the cover has an opening at a portion that corresponds to the communication hole of the annular part when the cover is fitted to the spout body and covers the spout body; the cover comprises a window that allows access to the annular part in order to deform the annular part when the cover is fitted to the spout body and covers the spout body; and the window is open at a portion of the cover that corresponds to a side surface of the annular part when the cover covers the spout body.
Method for optimizing the vibration behavior in an internal combustion engine with three cylinders (1, 2, 3), the internal combustion engine having a crankshaft rotating about an axis of rotation, with three cranks which succeed one another in the axial direction with respect to the axis of rotation and are distributed at angular intervals of 120°, a counterweight arrangement with at least two counterweights (21, 22) being provided for at least partial compensation of the inertia forces caused by rotating masses on the crankshaft, characterized in that the method has the following steps: a) calculation of the amount of the angular acceleration occurring during the rotation of the crankshaft for different values of the angle between one of the two counterweights (21, 22) and an assigned crank plane; and b) arrangement of the respective counterweight in a position for which the lowest value of the angular acceleration was determined in step a). a) calculation of the amount of the angular acceleration occurring during the rotation of the crankshaft for different values of the angle between one of the two counterweights (21, 22) and an assigned crank plane; and b) arrangement of the respective counterweight in a position for which the lowest value of the angular acceleration was determined in step a).
A rotation angle detecting apparatus for detecting a rotation angle of a rotating member, the rotation angle detecting apparatus comprising: the rotating member that is disposed so as to be rotatable relative to a housing; a fixing member for fixing a magnet to the rotating member; and a sensor, fixed to the housing, for detecting a rotation angle of the magnet, wherein the rotating member has an abutting part with which the magnet abuts in a direction of a rotation axis of the rotating member, and asupporting part, wherein the supporting part is configured to face the abutting part with the magnet interposed therebetween to support the fixing member located between the magnet and the supporting part, wherein the fixing member is configured to press the magnet against the abutting part by coming into contact with the supporting part and the magnet without allowing a section contacting the supporting part and a section contacting the magnet to overlap with each other in the direction of the rotation axis, wherein the rotating member has an internal space in which the magnet, the fixing member and the sensor are disposed. the rotating member that is disposed so as to be rotatable relative to a housing; a fixing member for fixing a magnet to the rotating member; and a sensor, fixed to the housing, for detecting a rotation angle of the magnet, wherein the rotating member has an abutting part with which the magnet abuts in a direction of a rotation axis of the rotating member, and asupporting part, wherein the supporting part is configured to face the abutting part with the magnet interposed therebetween to support the fixing member located between the magnet and the supporting part, wherein the fixing member is configured to press the magnet against the abutting part by coming into contact with the supporting part and the magnet without allowing a section contacting the supporting part and a section contacting the magnet to overlap with each other in the direction of the rotation axis, wherein the rotating member has an internal space in which the magnet, the fixing member and the sensor are disposed.
An electronic device (110; 200) comprising: a mobile high-definition link, MHL, module; at least one processor operatively coupled to the MHL module, the at least one processor being configured to execute a normal operating system configured to control a content service, and a secure operating system configured to receive information for controlling a digital rights management, DRM, service using DRM content from the MHL module; and a control interface through which the at least one processor is coupled to the MHL module, the control interface being configured to limit access of the normal operating system to the MHL module; wherein the secure operating system controls the DRM service using the information received from the MHL module through the control interface. a mobile high-definition link, MHL, module; at least one processor operatively coupled to the MHL module, the at least one processor being configured to execute a normal operating system configured to control a content service, and a secure operating system configured to receive information for controlling a digital rights management, DRM, service using DRM content from the MHL module; and a control interface through which the at least one processor is coupled to the MHL module, the control interface being configured to limit access of the normal operating system to the MHL module; wherein the secure operating system controls the DRM service using the information received from the MHL module through the control interface.
A brake rotor for a bicycle comprising: a circumferential brake track disposed about an axis of rotation of the brake rotor, the circumferential brake track comprising a first surface and a second surface that face axially outward away from one another and that are on axially opposed sides of the brake rotor, the two surfaces defining a thickness therebetween; and an outer peripheral edge circumferentially around the brake rotor, the outer peripheral edge comprising: an edge surface (260,270) facing radially outward on the outer peripheral edge, and a transition between each of the two surfaces and the edge surface; wherein at least a portion of the transition of the outer peripheral edge (272,274) is not perpendicular to the two surfaces in an axial direction of the brake rotor, wherein the edge surface is rounded or curved in the axial direction between the two surfaces, or wherein the edge surface includes a central curved section between two flanking chamfers in the axial direction. a circumferential brake track disposed about an axis of rotation of the brake rotor, the circumferential brake track comprising a first surface and a second surface that face axially outward away from one another and that are on axially opposed sides of the brake rotor, the two surfaces defining a thickness therebetween; and an outer peripheral edge circumferentially around the brake rotor, the outer peripheral edge comprising: an edge surface (260,270) facing radially outward on the outer peripheral edge, and a transition between each of the two surfaces and the edge surface; an edge surface (260,270) facing radially outward on the outer peripheral edge, and a transition between each of the two surfaces and the edge surface; wherein at least a portion of the transition of the outer peripheral edge (272,274) is not perpendicular to the two surfaces in an axial direction of the brake rotor, wherein the edge surface is rounded or curved in the axial direction between the two surfaces, or wherein the edge surface includes a central curved section between two flanking chamfers in the axial direction.
A subsynchronous oscillation suppression method for controlling a converter, comprising: acquiring an electric energy fluctuation parameter generated by a subsynchronous oscillation of a power transmission system (S 11); acquiring a compensation parameter of a current setting for an active axis according to the electric energy fluctuation parameter, wherein the active axis is an axis having a same direction as a d-axis obtained through a Park transformation; and controlling the converter to suppress the subsynchronous oscillation according to the compensation parameter of the current setting for the active axis, wherein the electric energy fluctuation parameter is a current fluctuation parameter, and the current setting for the active axis comprises a current setting for a torque axis at a generator side and a current setting for an active axis at a grid side; the acquiring a compensation parameter of a current setting for an active axis according to the electric energy fluctuation parameter comprises: multiplying the current fluctuation parameter by a first preset coefficient to acquire a compensation parameter of the current setting for the torque axis at the generator side; and multiplying the current fluctuation parameter by a second preset coefficient to acquire a compensation parameter of the current setting for the active axis at the grid side. acquiring an electric energy fluctuation parameter generated by a subsynchronous oscillation of a power transmission system (S 11); acquiring a compensation parameter of a current setting for an active axis according to the electric energy fluctuation parameter, wherein the active axis is an axis having a same direction as a d-axis obtained through a Park transformation; and controlling the converter to suppress the subsynchronous oscillation according to the compensation parameter of the current setting for the active axis, wherein the electric energy fluctuation parameter is a current fluctuation parameter, and the current setting for the active axis comprises a current setting for a torque axis at a generator side and a current setting for an active axis at a grid side; the acquiring a compensation parameter of a current setting for an active axis according to the electric energy fluctuation parameter comprises: multiplying the current fluctuation parameter by a first preset coefficient to acquire a compensation parameter of the current setting for the torque axis at the generator side; and multiplying the current fluctuation parameter by a second preset coefficient to acquire a compensation parameter of the current setting for the active axis at the grid side. multiplying the current fluctuation parameter by a first preset coefficient to acquire a compensation parameter of the current setting for the torque axis at the generator side; and multiplying the current fluctuation parameter by a second preset coefficient to acquire a compensation parameter of the current setting for the active axis at the grid side.
Method for testing the whole of the protection chain in a gas-insulation medium-voltage electrical protection appliance, said appliance comprising a circuit breaker, characterized in that it consists in placing upstream and downstream of the circuit breaker an upstream disconnector and a downstream disconnector respectively, said disconnectors (2,3) being mounted in series with the circuit breaker, said circuit breaker including, downstream, a protection current sensor, then in a first step, after having opened the three devices, in connecting injecting means of a source of current at a so-called first electrical connection point (p) of the electrical circuit of the so-called upstream disconnector, then in a second step, after having closed the circuit breaker, in injecting a current at this first connection point (p), this current being intended to flow through the main circuit of the circuit breaker, then in a third step, at the same time as the current is injected in measuring the current flowing between this first connection point and a second connection point (q) situated on the electrical circuit of the second, so-called downstream, disconnector, the current during this test, flowing directly through this protection current sensor over its primary circuit, and finally in ensuring that the circuit breaker does indeed open at the desired value.
Assembly for the adjustable attachment of a linear operating element on a superordinate structure, comprising: - the linear operating element, having a housing and a pressure rod element extending out of the housing and being displaceable with respect to the housing in a displacement direction, wherein the housing has a circular cylindrical projection, which projects in a direction perpendicular to the displacement direction of the pressure rod element to the outside; - at least one wall element (14a, 14b) assigned to the superordinate structure, which has a circular through hole and at least one mounting point; characterized by: - at least one excentre element with a circular cylindrical body section with a cylinder axis, wherein the circumference of the body section is matched to the circular through hole of the at least one wall element (14a, 14b), and excentric to the cylinder axis there is provided a receiving opening for the at least one circular cylindrical projection of the housing of the operating element, wherein the excentre element further has an attachment section which is adapted to facilitate an attachment thereof in a plurality of angular positions on the at least one mounting point of the at least one wall element (14, 14b) by means of at least one attachment element. - the linear operating element, having a housing and a pressure rod element extending out of the housing and being displaceable with respect to the housing in a displacement direction, wherein the housing has a circular cylindrical projection, which projects in a direction perpendicular to the displacement direction of the pressure rod element to the outside; - at least one wall element (14a, 14b) assigned to the superordinate structure, which has a circular through hole and at least one mounting point; characterized by: - at least one excentre element with a circular cylindrical body section with a cylinder axis, wherein the circumference of the body section is matched to the circular through hole of the at least one wall element (14a, 14b), and excentric to the cylinder axis there is provided a receiving opening for the at least one circular cylindrical projection of the housing of the operating element, - at least one excentre element with a circular cylindrical body section with a cylinder axis,
A solder alloy comprising Ag: 3.1 to 4.0% by mass, Cu: 0.6 to 0.8% by mass, Bi: 1.5 to 5.5% by mass, Sb: 1.0 to 6.0% by mass, Co: 0.001 to 0.030% by mass, Fe: 0.02 to 0.05% by mass, optionally 0.002 to 0.250% by mass of As, optionally 0.004 to 0.250% of Zr, and a balance Sn and unavoidable impurities.
Safety screw assembly and operating key (9; 90) thereof comprising said screw formed of a body and a head, the head being movable between a first position where it rotates integrally with the body and a second position where it rotates freely, the head being provided on one face with an opening or with a relief having a shape complementary to a relief (10; 100) or an imprint made on a part of said operating key (9; 90), where one end of the body of the screw comprises a first part (4, 18, 20, 21, 22, 23) called the stator, and a second part, movable in rotation, called the rotor, the head of the screw defining a housing for receiving the rotor, and where the assembly comprises a securing member, which is movable in translation, said securing member being movable between a first securing position, called idle, where the head is free to rotate and the rotor and the stator (4, 18, 20, 21, 22, 23) rotate together and a second position, called blocked, where at least the head and the stator (4, 18, 20, 21, 22, 23) rotate together and where the key (9; 90) is provided with at least one member (11; 110) for rotating the rotor.
A device for conducting air, in particular an inlet air distributor pipe, for an internal combustion engine with a plurality of cylinder heads, having: a pipe body comprising: an air distribution channel with a plurality of outlet openings for connection to a plurality of inlet channels of the plurality of cylinder heads; a plurality of single venting channels for connection to a plurality of coolant chambers of the plurality of cylinder heads for venting the plurality of coolant chambers; a collective venting channel, the plurality of single venting channels discharging therein; and a venting outlet channel which is connected to the collective venting channel and can be connected to a collection container, wherein steam from the coolant chambers of the cylinder heads can be conducted away into the collection container by means of the venting outlet channel. a pipe body comprising: an air distribution channel with a plurality of outlet openings for connection to a plurality of inlet channels of the plurality of cylinder heads; a plurality of single venting channels for connection to a plurality of coolant chambers of the plurality of cylinder heads for venting the plurality of coolant chambers; a collective venting channel, the plurality of single venting channels discharging therein; and a venting outlet channel which is connected to the collective venting channel and can be connected to a collection container, wherein steam from the coolant chambers of the cylinder heads can be conducted away into the collection container by means of the venting outlet channel. an air distribution channel with a plurality of outlet openings for connection to a plurality of inlet channels of the plurality of cylinder heads; a plurality of single venting channels for connection to a plurality of coolant chambers of the plurality of cylinder heads for venting the plurality of coolant chambers; a collective venting channel, the plurality of single venting channels discharging therein; and a venting outlet channel which is connected to the collective venting channel and can be connected to a collection container, wherein steam from the coolant chambers of the cylinder heads can be conducted away into the collection container by means of the venting outlet channel.
A major facilitator superfamily permease variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein histidine, which is an amino acid corresponding to position 377 of SEQ ID NO: 3, is substituted with glutamine.
A method for transmitting frame data between a near-end device and a remote device, characterized by comprising: generating, by the near-end device, a base frame in a user-defined frame format; the base frame comprising a first number of super groups; the super group comprising a second number of base groups; and the base group comprising media access control, MAC, frame structure data and an interframe gap; matching duration of the MAC frame structure data and the interframe gap with an output timing sequence of a physical layer, PHY, converting chip built in the near-end device; and converting the base frame into an optical fiber signal by way of the physical layer, PHY, converting chip, and sending the optical fiber signal to the remote device. generating, by the near-end device, a base frame in a user-defined frame format; the base frame comprising a first number of super groups; the super group comprising a second number of base groups; and the base group comprising media access control, MAC, frame structure data and an interframe gap; matching duration of the MAC frame structure data and the interframe gap with an output timing sequence of a physical layer, PHY, converting chip built in the near-end device; and converting the base frame into an optical fiber signal by way of the physical layer, PHY, converting chip, and sending the optical fiber signal to the remote device.