mhurhangee/ep-ind-claims huggingface dataset:
A bearing for a wheel, the bearing comprising: a fixed ring, a rotating ring, a plurality of rolling members rollably arranged in a circumferential direction between the fixed ring and the rotating ring, and a magnetic encoder, wherein the magnetic encoder comprises a magnet portion substantially in a circular ring shape magnetized in multipoles in a circumferential direction and a fixed member fixed to the rotating ring, and the magnet portion includes a magnetic member and a thermoplastic resin and is bonded to the fixed member by an adhering agent, characterized in that the adhering agent is baked to the fixed member in a semicured state and a curing reaction of the adhering agent is progressed in a process of forming the magnet portion by insert molding. a fixed ring, a rotating ring, a plurality of rolling members rollably arranged in a circumferential direction between the fixed ring and the rotating ring, and a magnetic encoder, wherein the magnetic encoder comprises a magnet portion substantially in a circular ring shape magnetized in multipoles in a circumferential direction and a fixed member fixed to the rotating ring, and the magnet portion includes a magnetic member and a thermoplastic resin and is bonded to the fixed member by an adhering agent, characterized in that the adhering agent is baked to the fixed member in a semicured state and a curing reaction of the adhering agent is progressed in a process of forming the magnet portion by insert molding.
Motor vehicle comprising a motor vehicle body delimited by two body sides (2a, 2b) and a vehicle floor, a wall fixed laterally to the body sides (2a, 2b) and transversely to the vehicle floor and designed to separate the passenger compartment of the vehicle from an engine compartment, and an upper firewall crossbeam having a cross section which opens toward the passenger compartment of the vehicle and which is closed by the wall, characterized in that the upper firewall crossbeam is omega-shaped, comprising a first portion designed to be fixed to the wall and a second portion designed to be fixed to the wall, the first and second portions (8a, 8b) being connected via swaged portions (8c, 8d, 8e, 8f), the first portion extending toward the engine compartment of the vehicle via a first swaged portion which is inclined relative to a longitudinal axis of the vehicle and in that the upper crossbeam comprises orifices capable of cooperating with means for fixing the windshield wiper crankpins.
A water outlet terminal with a function of purified water outlet, comprising: a body and a mandrel disposed in the body, an end surface of the mandrel is provided with a raw water outlet hole and a purified water outlet hole; the mandrel is provided with a raw water inlet cavity and a purified water inlet cavity which are independent of each other; one end of the raw water inlet cavity and the purified water inlet cavity is communicated with the raw water outlet hole and the purified water outlet hole, respectively, and the other end is a raw water inlet hole and a purified water inlet hole; the water outlet terminal is further provided with a purified water opening member which is switched between a first position and a second position so that the purified water inlet hole is in the open state or closed state; further comprising a cover assembly, wherein a purified water outlet passage is provided in the geometric center of the cover assembly for communication with the fluid in the purified water inlet cavity, wherein each of the raw water inlet cavity and the purified water inlet cavity are provided, on the same side of the mandrel, with a respective open end (231, 241), wherein the open ends (231, 241) are provided along the water flow direction, the rest of the raw water inlet cavity and purified water inlet cavity is a sealing portion, the periphery of the open ends is welded to a weld tab to seal the open ends. the mandrel is provided with a raw water inlet cavity and a purified water inlet cavity which are independent of each other; one end of the raw water inlet cavity and the purified water inlet cavity is communicated with the raw water outlet hole and the purified water outlet hole, respectively, and the other end is a raw water inlet hole and a purified water inlet hole; the water outlet terminal is further provided with a purified water opening member which is switched between a first position and a second position so that the purified water inlet hole is in the open state or closed state; further comprising a cover assembly, wherein a purified water outlet passage is provided in the geometric center of the cover assembly for communication with the fluid in the purified water inlet cavity, wherein each of the raw water inlet cavity and the purified water inlet cavity are provided, on the same side of the mandrel, with a respective open end (231, 241), wherein the open ends (231, 241) are provided along the water flow direction, the rest of the raw water inlet cavity and purified water inlet cavity is a sealing portion, the periphery of the open ends is welded to a weld tab to seal the open ends.
Method for the heat treatment of coated semi-finished steel products, comprising at least one heatable continuous furnace with at least one conveyer device for the semi-finished steel products, wherein the conveyer device has conveyer elements and the semi-finished steel products rest on the conveyer elements in the continuous furnace, wherein at least one decoupling portion of the continuous furnace has at least two conveyer element groups (6, 7), each conveyer element group (6, 7) has at least one conveyer element, and, in the decoupling portion, the semi-finished steel product rests either on the conveyer elements of the conveyer element group or on the conveyer elements of the second conveyer element group, Characterized in that AlSi-coated semi-finished steel products rest on the conveyer elements of the first conveyer element group and semi-finished steel products coated with a further coating system on an organic or inorganic basis and which are suitable for the heat forming rest on the conveyer elements of the second conveyer element group.
A plate for a labelling machine with a carrousel, comprising: - a disk-shaped support for in use supporting a container to be labelled, the disk-shaped support being associable with a bottom of the container and being rotatable about an axis of rotation that is a central axis of the disk-shaped support; characterized by - at least three hooking teeth (41, 42, 43, 44) which are arranged on a teeth-holding member in positions spaced along an arc of a circle that is centred on the axis of rotation, each hooking tooth (41, 42, 43, 44) being intended in use for being inserted in a respective recess (961, 962, 963, 964) made in the bottom of the container supported by the disk-shaped support; the teeth-holding member being movable relative to the disk-shaped support along an axial line parallel to the axis of rotation, so that the at least three hooking teeth (41, 42, 43, 44) are movable relative to the disk-shaped support between an engaged position, in which in use the at least three hooking teeth (41, 42, 43, 44) are inserted in said respective recesses (961, 962, 963, 964) of the container thereby hooking the container, and a disengaged position, in which in use the at least three hooking teeth (41, 42, 43, 44) are not associated with said respective recesses (961, 962, 963, 964) of the container; the disk-shaped support being angularly shiftable relative to the teeth-holding member, whereby in use the container supported by the disc-shaped support is angularly shiftable relative to the at least three hooking teeth (41, 42, 43, 44) for positioning the at least three hooking teeth (41, 42, 43, 44) at said respective recesses (961, 962, 963, 964) of the container; the at least three hooking teeth (41, 42, 43, 44) being in positions that are angularly spaced from one another and that overall do not have rotary symmetry relative to the axis of rotation, whereby in use, with respective recesses (961, 962, 963, 964) in the bottom of the container that are spaced at corresponding angular distances from each other, the at least three hooking teeth (41, 42, 43, 44) are simultaneously insertable in the respective recesses (961, 962, 963, 964) for a single mutual angular position of the container relative to the at least three hooking teeth (41, 42, 43, 44). - a disk-shaped support for in use supporting a container to be labelled, the disk-shaped support being associable with a bottom of the container and being rotatable about an axis of rotation that is a central axis of the disk-shaped support; characterized by - at least three hooking teeth (41, 42, 43, 44) which are arranged on a teeth-holding member in positions spaced along an arc of a circle that is centred on the axis of rotation, each hooking tooth (41, 42, 43, 44) being intended in use for being inserted in a respective recess (961, 962, 963, 964) made in the bottom of the container supported by the disk-shaped support;
A method of providing information indicative of an updated location, or motion, of an anatomical feature or landmark of an imaging subject during delivery of a radiotherapy treatment, wherein during the radiotherapy treatment a radiation therapy source is rotated around the imaging subject, the method comprising: receiving reference imaging information; generating a two-dimensional projection image using imaging information obtained via nuclear magnetic resonance imaging, the 2D projection image corresponding to a specified projection direction, the two-dimensional projection image being generated based on imaging information acquired according to the specified projection direction via nuclear magnetic resonance projection imaging; the specified projection direction including a path traversing at least a portion of an imaging subject, wherein the specified projection direction is a future radiotherapy beam direction, such that the 2D projection image contains imaging information corresponding to a temporally-advanced beam's eye view of the radiation therapy source, the temporally-advanced BEV being offset from a current BEV; and determining a change between the generated 2D projection image and the reference imaging information. receiving reference imaging information; generating a two-dimensional projection image using imaging information obtained via nuclear magnetic resonance imaging, the 2D projection image corresponding to a specified projection direction, the two-dimensional projection image being generated based on imaging information acquired according to the specified projection direction via nuclear magnetic resonance projection imaging; the specified projection direction including a path traversing at least a portion of an imaging subject, wherein the specified projection direction is a future radiotherapy beam direction, such that the 2D projection image contains imaging information corresponding to a temporally-advanced beam's eye view of the radiation therapy source, the temporally-advanced BEV being offset from a current BEV; and determining a change between the generated 2D projection image and the reference imaging information.
A communication device (100, 200), comprising: a Radio Frequency, RF, module (110, 210); an antenna structure (120, 220), coupled to the RF module (110, 210), wherein the antenna structure (120, 220) comprises a first radiation element (130, 230) and a second radiation element (140, 240); a first switch element (150, 250), coupled to the first radiation element (130, 230); a plurality of first impedance elements (160, 260), wherein the first switch element (150, 250) is switchable between the first impedance elements (160, 260); a second switch element (170, 270), coupled to the second radiation element (140, 240); a plurality of second impedance elements (180, 280), wherein the second switch element (170, 270) is switchable between the second impedance elements (180, 280); and a Printed Circuit Board, PCB, providing a ground voltage, wherein the second radiation element (140, 240) is disposed between the first radiation element (130, 230) and the PCB; wherein the antenna structure (120, 220) covers a first frequency band, a second frequency band, a third frequency band, and a fourth frequency band; wherein a length of the second radiation element (140, 240) is substantially equal to 0.5 wavelength of the second frequency band. a Radio Frequency, RF, module (110, 210); an antenna structure (120, 220), coupled to the RF module (110, 210), wherein the antenna structure (120, 220) comprises a first radiation element (130, 230) and a second radiation element (140, 240); a first switch element (150, 250), coupled to the first radiation element (130, 230); a plurality of first impedance elements (160, 260), wherein the first switch element (150, 250) is switchable between the first impedance elements (160, 260); a second switch element (170, 270), coupled to the second radiation element (140, 240); a plurality of second impedance elements (180, 280), wherein the second switch element (170, 270) is switchable between the second impedance elements (180, 280); and a Printed Circuit Board, PCB, providing a ground voltage, wherein the second radiation element (140, 240) is disposed between the first radiation element (130, 230) and the PCB; wherein the antenna structure (120, 220) covers a first frequency band, a second frequency band, a third frequency band, and a fourth frequency band; wherein a length of the second radiation element (140, 240) is substantially equal to 0.5 wavelength of the second frequency band.
A method of generating chlorine dioxide from a chlorine-containing chemical, which is a chlorite salt, comprising contacting, in an aqueous medium, a chlorite salt and a complex comprising one or more iron ions and one or more polydentate ligands, which are chelants capable of chelating at least one iron ion through at least three nitrogen atoms, with the proviso that the complex does not comprise a porphyrin ligand.
A non-transitory computer-accessible medium having stored thereon computer-executable instructions for ablating at least one tissue, wherein, when a computer hardware arrangement executes the instructions, the computer arrangement is configured to perform procedures comprising: establishing particular parameters for electric pulses based on at least one characteristic of at least one tissue; controlling an application of the electric pulses via at least one electrode to the at least one tissue for a plurality of automatically controlled and separated time periods to ablate the at least one tissue such that an electroporation of a majority of the at least one tissue is at least one of prevented or reduced; and characterized by controlling a time between at least two of the separated time periods based on a further time period for the duration of which at least one particular cell of the at least one tissue regains at least one resting membrane potential value before being at least one of hyperpolarized or depolarized such that the time between the at least two of the separated time periods is sufficient to facilitate the cell to regain the resting membrane potential value before being hyperpolarized or depolarized again. establishing particular parameters for electric pulses based on at least one characteristic of at least one tissue; controlling an application of the electric pulses via at least one electrode to the at least one tissue for a plurality of automatically controlled and separated time periods to ablate the at least one tissue such that an electroporation of a majority of the at least one tissue is at least one of prevented or reduced; and characterized by controlling a time between at least two of the separated time periods based on a further time period for the duration of which at least one particular cell of the at least one tissue regains at least one resting membrane potential value before being at least one of hyperpolarized or depolarized such that the time between the at least two of the separated time periods is sufficient to facilitate the cell to regain the resting membrane potential value before being hyperpolarized or depolarized again.
Method for controlling a flow rate in a cooling circuit, wherein the cooling circuit is assigned to an electrically operated drive train of a motor vehicle and has at least a first pump for delivering a coolant and at least one component exposed to the coolant, wherein the method comprises at least the following steps: a) operating the first pump and delivering the coolant through the cooling circuit; b) measuring a differential pressure of the coolant acting on the component; c) ascertaining a flow rate, correlating with the measured differential pressure, on the basis of a characteristic map stored in a control device and d) controlling the first pump by the control device on the basis of the flow rate determined by way of the measured differential pressure. a) operating the first pump and delivering the coolant through the cooling circuit; b) measuring a differential pressure of the coolant acting on the component; c) ascertaining a flow rate, correlating with the measured differential pressure, on the basis of a characteristic map stored in a control device and d) controlling the first pump by the control device on the basis of the flow rate determined by way of the measured differential pressure.
Method for associating a screwing curve describing a screwing process with a screwing program controlling the screwing curve in a screwing system in which multiple screwing curves and/or multiple screwing programs can be operated at the same time, characterized in that an apparatus used to operate the method has a determining module, the determining module is used to associate a screwing program and a screwing system configuration of the screwing system with a screwing curve that was used to screw in a screw, in order to restore the state of the screwing system at an arbitrary time and in order to infer the screwing curve used to screw in the screw, the screwing system configuration being uniquely associated with a combination of software-based setting parameters to which the screwing system was set for screwing in the screw using the screwing program, the association of the determining module is used to allow versioning of the screwing program and of the screwing system configuration for a unique association of the screwing program and of the screwing system configuration with the screwing curve, and the screwing curve is reproduced in uniquely versioned form from a storage medium of the determining module.
An electronic control system in a controlled-ignition, carburettor-supplied, internal combustion engine of a motor vehicle, of the type comprising a central control unit wherein control strategies are implemented to drive at least an electrovalve device, characterized in that said electrovalve device is for the adjustment of the emulsion air in secondary emulsion air circuit of a carburettor which determines the air/fuel ratio of the fuel mixture, and said control strategies are implemented also to drive an adjustable spark advance ignition device, wherein said control strategies are integrated and performed according to a basic mapping, function of signals representing the position of the engine shaft over time, and to correction mappings (A%), function at least of secondary parameters being the temperature in correspondence of the engine (Teng) and the position of the throttle adjusting device, said correction mappings (A%) being recalculated at discrete intervals, at most every 10 engine revolutions, and the input value of said secondary parameters being considered in discrete steps.
A guided transcoder (100, 110, 120) configured to encode delta quantized coefficients of a pixel block in a picture in a first representation of a video sequence based on information derived from estimated quantized coefficients for said pixel block, said delta quantized coefficients representing a difference between actual quantized coefficients of said pixel block derived by encoding at least a portion of said picture in said first representation of said video sequence and said estimated quantized coefficients, said estimated quantized coefficients representing a difference between a reconstructed block of a corresponding picture in a second representation of said video sequence and a prediction block obtained based on intra mode information and/or inter motion information derived by encoding said picture in said first representation of said video sequence, characterized in that said guided transcoder (100, 110, 120) is configured to use an adjusted scanning pattern determined based on said estimated quantized coefficients to encode said delta quantized coefficients, wherein the adjusted scanning pattern defining first processing of delta quantized coefficients occupying positions in said pixel block corresponding to positions of non-zero estimated quantized coefficients in said pixel block followed by processing delta quantized coefficients occupying remaining positions in said pixel block.
A flow rate sensor, comprising: a housing made from a resin material and having a bottom base portion and a side wall, at least one surface side of the housing being open; a cover made from a resin material, covering the one surface side of the housing, welded to an upper surface of the side wall of the housing, and defining, with the bottom base portion and the side wall of the housing, an auxiliary passage within which a gas to be measured flows that is taken in from a main passage; a flow rate detection unit disposed within the auxiliary passage; and a throttling portion that is provided on the cover and faces the flow rate detection unit within the auxiliary passage; wherein: a protruding portion for height control is provided to one of the housing and the cover at least in a vicinity of the side wall around the flow rate detection unit so as to suppress sinking in of the cover during welding; and the throttling portion has a triangular shape formed with a sloping surface toward the upstream side of the auxiliary passage that is more gently inclined than a sloping surface toward the downstream side of the auxiliary passage. a housing made from a resin material and having a bottom base portion and a side wall, at least one surface side of the housing being open; a cover made from a resin material, covering the one surface side of the housing, welded to an upper surface of the side wall of the housing, and defining, with the bottom base portion and the side wall of the housing, an auxiliary passage within which a gas to be measured flows that is taken in from a main passage; a flow rate detection unit disposed within the auxiliary passage; and a throttling portion that is provided on the cover and faces the flow rate detection unit within the auxiliary passage; wherein: a protruding portion for height control is provided to one of the housing and the cover at least in a vicinity of the side wall around the flow rate detection unit so as to suppress sinking in of the cover during welding; and the throttling portion has a triangular shape formed with a sloping surface toward the upstream side of the auxiliary passage that is more gently inclined than a sloping surface toward the downstream side of the auxiliary passage.