mhurhangee/patent-ind-claim-en huggingface dataset:
Swivel axis for an aircraft engine attachment, comprising: - a tubular main axis which has, at a first end (74.1), a head and, at a second end (74.2), a threaded portion , - a first nut configured to be screwed onto the threaded portion from the main axis , - a fail-safe axis configured to be mounted to swivel inside the main axis and having, at a first end (76.1), a head and, at a second end (76.2), a threaded portion , and - a second nut configured to be screwed onto the threaded portion of the fail-safe axis , characterized in that the fail-safe axis and the first nut are linked by an axial link configured to translationally immobilize relative to one another the fail-safe axis and the first nut , while allowing a rotational movement of one relative to the other of the first nut and of the fail-safe axis . - a tubular main axis which has, at a first end (74.1), a head and, at a second end (74.2), a threaded portion , - a first nut configured to be screwed onto the threaded portion from the main axis , - a fail-safe axis configured to be mounted to swivel inside the main axis and having, at a first end (76.1), a head and, at a second end (76.2), a threaded portion , and - a second nut configured to be screwed onto the threaded portion of the fail-safe axis ,
An integrated circuit comprising: a first metal layer ; a dielectric layer ; and a second metal layer capacitively coupled to the first metal layer through the dielectric layer , wherein the second metal layer comprises a bulk electron portion , and an adjacent portion acting as electrical ground, the bulk electron portion and the adjacent portion of the second metal layer separated by an intermediate portion which includes an electron leakage path, characterised in that the electron leakage path comprises at least one metal stringer connecting the bulk electron portion to the adjacent portion and providing for leakage of charge from the bulk electron portion to the adjacent portion in a predetermined leak time period. a first metal layer ; a dielectric layer ; and a second metal layer capacitively coupled to the first metal layer through the dielectric layer , wherein the second metal layer comprises a bulk electron portion , and an adjacent portion acting as electrical ground, the bulk electron portion and the adjacent portion of the second metal layer separated by an intermediate portion which includes an electron leakage path, characterised in that the electron leakage path comprises at least one metal stringer connecting the bulk electron portion to the adjacent portion and providing for leakage of charge from the bulk electron portion to the adjacent portion in a predetermined leak time period.
An audio signal processing method for encoding a vector, the method comprising: forming (s602) a weighting factor; for each element of the vector: - forming (s604) an intra-frame prediction of the vector element; - forming (s606) an inter-frame prediction of the vector element; - combining (s608) said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming (s610) a prediction residual using said vector element and said combined prediction; - encoding (s612) the prediction residual with a variable bit rate scheme; and transmitting (s616) the encoded prediction residual. forming (s602) a weighting factor; for each element of the vector: - forming (s604) an intra-frame prediction of the vector element; - forming (s606) an inter-frame prediction of the vector element; - combining (s608) said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming (s610) a prediction residual using said vector element and said combined prediction; - encoding (s612) the prediction residual with a variable bit rate scheme; and transmitting (s616) the encoded prediction residual. - forming (s604) an intra-frame prediction of the vector element; - forming (s606) an inter-frame prediction of the vector element; - combining (s608) said intra-frame prediction and said inter-frame prediction using the weighting factor into a combined prediction; - forming (s610) a prediction residual using said vector element and said combined prediction; - encoding (s612) the prediction residual with a variable bit rate scheme; and transmitting (s616) the encoded prediction residual.
A brush cutter having a drive shaft bearing comprising a ball bearing , a cylindrical holder , and an elastic ring , wherein the holder is formed by combining two members divided parallel to an axial direction, and is assembled in a state where an outer peripheral part of the bearing is stored in an inner groove formed on an inner peripheral surface of the holder in a peripheral direction, and the elastic ring is stored in an outer groove formed on an outer peripheral surface of the holder in the peripheral direction.
A method for testing software applications in a system under test, SUT, comprising: building a reference model of the SUT , the reference model comprising a computer-based neural network ; training the reference model using input data and corresponding output data generated by the SUT ; selecting an output value within a domain of possible output values of the SUT , the selected output value representing an output that is not represented in the output data used to train the reference model; applying the selected output value to the reference model and tracing the selected output through the reference model to identify test input values that, when input to the reference model, produce the selected output value; and using the identified test input values to test the system under test . building a reference model of the SUT , the reference model comprising a computer-based neural network ; training the reference model using input data and corresponding output data generated by the SUT ; selecting an output value within a domain of possible output values of the SUT , the selected output value representing an output that is not represented in the output data used to train the reference model; applying the selected output value to the reference model and tracing the selected output through the reference model to identify test input values that, when input to the reference model, produce the selected output value; and using the identified test input values to test the system under test .
A light control unit comprising: a light control sheet that includes a light control layer and is bondeable to a surface of a transparent plate having an edge that is held in a window frame; and a buffer member that has a portion having a higher indentation hardness and a larger thickness than the light control sheet and is located outside an edge of the light control sheet at the edge of the transparent plate on the surface of the transparent plate , wherein while the transparent plate is held in the window frame, the buffer member is in contact with the window frame, and wherein the light control sheet includes a pair of transparent conductive layers that sandwich the light control layer , and a sealing section that is located outside a multilayer including the light control layer and the pair of transparent conductive layers and seals an edge surface of the multilayer , characterized in that a gap (G) is formed between the sealing section and the buffer member . a light control sheet that includes a light control layer and is bondeable to a surface of a transparent plate having an edge that is held in a window frame; and a buffer member that has a portion having a higher indentation hardness and a larger thickness than the light control sheet and is located outside an edge of the light control sheet at the edge of the transparent plate on the surface of the transparent plate , wherein while the transparent plate is held in the window frame, the buffer member is in contact with the window frame, and wherein the light control sheet includes a pair of transparent conductive layers that sandwich the light control layer , and a sealing section that is located outside a multilayer including the light control layer and the pair of transparent conductive layers and seals an edge surface of the multilayer , characterized in that a gap (G) is formed between the sealing section and the buffer member .
A doser adapted for spraying a fluid, the doser comprising a doser body and an electrical connector , wherein the doser body encloses an electro-actuator and is provided with an aperture in which the electrical connector is inserted, and the electro-actuator comprises a connector block and electrically connecting pins protruding from the connector block ; and the electrical connector is adapted to be arranged at the end of an electrical cable (C) for complementary connection of an electro-actuator , the electrical connector having a connector body and several electrical terminals for receiving the electrically connecting pins of the electro-actuator, the connector body defining a passage for the cable (C) and a recess for arranging the terminals and characterized in that the connector further comprises two opposing resilient arms extending from a base of the connector body to define a space therebetween, and a hook adapted to mechanically engage with the connector block , wherein the space comprises the recess and a downward portion for receiving the connector block , the downward portion being wider than the recess ; and each arm defines at its end a spur oriented toward the opposite arm and having a sloped outer face configured such that the distance (H0) between the opposing outer faces is smaller than a width of the connector block , the spurs defining the hook , wherein during engagement of the connector said resilient arms deflect from a rest position and, when the connector is fully engaged said resilient arms self-return to said rest position. the doser body encloses an electro-actuator and is provided with an aperture in which the electrical connector is inserted, and the electro-actuator comprises a connector block and electrically connecting pins protruding from the connector block ; and the electrical connector is adapted to be arranged at the end of an electrical cable (C) for complementary connection of an electro-actuator , the electrical connector having a connector body and several electrical terminals for receiving the electrically connecting pins of the electro-actuator, the connector body defining a passage for the cable (C) and a recess for arranging the terminals and characterized in that the connector further comprises two opposing resilient arms extending from a base of the connector body to define a space therebetween, and a hook adapted to mechanically engage with the connector block , wherein the space comprises the recess and a downward portion for receiving the connector block , the downward portion being wider than the recess ; and each arm defines at its end a spur oriented toward the opposite arm and having a sloped outer face configured such that the distance (H0) between the opposing outer faces is smaller than a width of the connector block , the spurs defining the hook , wherein during engagement of the connector said resilient arms deflect from a rest position and, when the connector is fully engaged said resilient arms self-return to said rest position.
A method of fabricating a plate denture, comprising: creating a denture plate having a concave socket formed thereon and a vertical groove formed on a bottom surface of the socket ; applying an adhesive material to the socket and the vertical groove ; embedding a reinforcing structure in the vertical groove to which the adhesive material is applied; and arranging an artificial tooth in the socket to which the adhesive material is applied. creating a denture plate having a concave socket formed thereon and a vertical groove formed on a bottom surface of the socket ; applying an adhesive material to the socket and the vertical groove ; embedding a reinforcing structure in the vertical groove to which the adhesive material is applied; and arranging an artificial tooth in the socket to which the adhesive material is applied.
Self-propelled synchronous rotating electrical machine of the brushless motor type with a rotor , the periphery of which is covered with permanent magnets , and provided with a device for braking and immobilizing the rotor , the device for braking and immobilizing the rotor comprising at least one permanent magnet which is fixedly mounted with respect to the stator in the vicinity of one end of the rotor , characterized in that the permanent magnets fitted on the periphery of the rotor comprise extension pieces projecting from the stator in a direction parallel to the axis of rotation of the rotor , in the vicinity of which extension pieces at least one permanent magnet of the device for braking and immobilizing the rotor is fixed, each permanent magnet of the device for braking and immobilizing the rotor being accommodated in a housing fixed against a front face of a polar magnetic yoke of the stator surrounding the stator coils . comprising at least one permanent magnet which is fixedly mounted with respect to the stator in the vicinity of one end of the rotor , characterized in that the permanent magnets fitted on the periphery of the rotor comprise extension pieces projecting from the stator in a direction parallel to the axis of rotation of the rotor , in the vicinity of which extension pieces at least one permanent magnet of the device for braking and immobilizing the rotor is fixed, each permanent magnet of the device for braking and immobilizing the rotor being accommodated in a housing fixed against a front face of a polar magnetic yoke of the stator surrounding the stator coils .
A controller for a vehicle, the controller comprising: a main processing module having one or more processors and at least one memory, the main processing module being configured to process one or more command inputs to generate one or more main functions for the vehicle; and a safety processing module having one or more processors and at least one memory, the safety processing module being configured to process the one or more command inputs to generate one or more safety functions; wherein the safety processing module is independent of the main processing module , and is configured to perform the one or more safety functions separately and independently of the main processing module ; wherein the one or more safety functions comprise generating an expected command output value based on the one or more command inputs, and comparing the expected command output value with an actual command output value generated by the main processing module ; wherein the one or more safety functions further comprise generating a safety control signal when a difference between the expected command output value and the actual command output value is greater than a defined tolerance; wherein the safety control signal activates a safety shutdown switch that returns an electromechanical actuator to a fail-safe state; wherein there is no direct communication between the safety processing module and the main processing module . a main processing module having one or more processors and at least one memory, the main processing module being configured to process one or more command inputs to generate one or more main functions for the vehicle; and a safety processing module having one or more processors and at least one memory, the safety processing module being configured to process the one or more command inputs to generate one or more safety functions; wherein the safety processing module is independent of the main processing module , and is configured to perform the one or more safety functions separately and independently of the main processing module ; wherein the one or more safety functions comprise generating an expected command output value based on the one or more command inputs, and comparing the expected command output value with an actual command output value generated by the main processing module ; wherein the one or more safety functions further comprise generating a safety control signal when a difference between the expected command output value and the actual command output value is greater than a defined tolerance; wherein the safety control signal activates a safety shutdown switch that returns an electromechanical actuator to a fail-safe state; wherein there is no direct communication between the safety processing module and the main processing module .
An apparatus for monitoring a rotational movement of a rotary encoder, wherein the apparatus has: a first input configured to receive a first rotary signal of the rotary encoder; a second input configured to receive a second rotary signal of the rotary encoder; a plurality of first comparators configured to compare the first rotary signal with a plurality of first switching thresholds in order to obtain a plurality of first comparison results ; a plurality of second comparators configured to compare the second rotary signal with a plurality of second switching thresholds in order to obtain a plurality of second comparison results ; and a plurality of logic switching elements configured to link the plurality of first comparison results and the plurality of second comparison results in order to obtain a monitoring result . a first input configured to receive a first rotary signal of the rotary encoder; a second input configured to receive a second rotary signal of the rotary encoder; a plurality of first comparators configured to compare the first rotary signal with a plurality of first switching thresholds in order to obtain a plurality of first comparison results ; a plurality of second comparators configured to compare the second rotary signal with a plurality of second switching thresholds in order to obtain a plurality of second comparison results ; and a plurality of logic switching elements configured to link the plurality of first comparison results and the plurality of second comparison results in order to obtain a monitoring result .
Torque transmission arrangement for an arrangement with an electric machine in a drive module of a hybrid vehicle or electric vehicle, for the transmission of a torque from an output shaft , in particular a motor output shaft, to a drive shaft , in particular a transmission input shaft, - the drive shaft having, furthermore, at least one fluid conducting duct , in which a fluid can be conducted in the direction of the output shaft , and - the torque transmission apparatus having a torsional vibration damper in a region radially outside the output shaft , characterized - in that a fluid conducting element (22; 24; 56) is provided on the output shaft , which fluid conducting element (22; 24; 56) conducts fluid from the fluid conducting duct of the drive shaft into the region radially outside the output shaft , and - in that the fluid which is conducted by the fluid conducting element (22; 24; 56) from the fluid conducting duct of the drive shaft into the region radially outside the output shaft can be conducted into an interior space of the torsional vibration damper , in particular into a spring space with damper springs . - the drive shaft having, furthermore, at least one fluid conducting duct , in which a fluid can be conducted in the direction of the output shaft , and - the torque transmission apparatus having a torsional vibration damper in a region radially outside the output shaft , characterized - in that a fluid conducting element (22; 24; 56) is provided on the output shaft , which fluid conducting element (22; 24; 56) conducts fluid from the fluid conducting duct of the drive shaft into the region radially outside the output shaft , and - in that the fluid which is conducted by the fluid conducting element (22; 24; 56) from the fluid conducting duct of the drive shaft into the region radially outside the output shaft can be conducted into an interior space of the torsional vibration damper , in particular into a spring space with damper springs .
A cleaning brush for a toilet bowl or a urinal, with at least one handle part and a brush head , wherein the brush head is mounted movably to the handle part , wherein the brush head has at least one frame element circumferential in a plane, from the surface of which a plurality of cleaning bristles project, wherein the frame element forms a trapezoidal or triangular shape, characterized in that the movability of the brush head at the handle part is realized by a pivoting motion lockable in predetermined pivot angles, wherein two retention arms symmetrically aligned with respect to a longitudinal axis of the handle part are provided at the handle part , at the mutually facing ends of which the brush head is accommodated pivotably around a pivot axis transversely aligned with respect to the longitudinal axis of the handle part , wherein the pivoting motion is lockable by a fixing element in predetermined pivot angles.
A microelectronic package comprising: an active microelectronic device in contact with a package body ; and a passive microelectronic device disposed within a cavity formed in the package body ; wherein the active microelectronic device and the passive microelectronic device are electrically connected by conductive routes formed on the package body , wherein the package body comprises a support plate and a dielectric encapsulant , wherein a dielectric encapsulant first surface is defined adjacent the support plate and a dielectric encapsulant second surface is defined opposing the encapsulant first surface , wherein a back surface of the active microelectronic device is adhered to the support plate and wherein the active microelectronic device is embedded in the dielectric encapsulant with a portion of the dielectric encapsulant extending over the active microelectronic device active surface ; wherein the conductive routes are formed in a redistribution layer formed on the dielectric encapsulant second surface ; and wherein the cavity extends through the redistribution layer, through the dielectric encapsulant, and partially into the support plate. an active microelectronic device in contact with a package body ; and a passive microelectronic device disposed within a cavity formed in the package body ; wherein the active microelectronic device and the passive microelectronic device are electrically connected by conductive routes formed on the package body , wherein the package body comprises a support plate and a dielectric encapsulant , wherein a dielectric encapsulant first surface is defined adjacent the support plate and a dielectric encapsulant second surface is defined opposing the encapsulant first surface , wherein a back surface of the active microelectronic device is adhered to the support plate and wherein the active microelectronic device is embedded in the dielectric encapsulant with a portion of the dielectric encapsulant extending over the active microelectronic device active surface ; wherein the conductive routes are formed in a redistribution layer formed on the dielectric encapsulant second surface ; and wherein the cavity extends through the redistribution layer, through the dielectric encapsulant, and partially into the support plate.