mhurhangee/ep-ind-claims huggingface dataset:
A handle device for a vehicle, comprising: a handle body; a latch release lever; a door latch device in a door; an electric actuator; and a push portion forming member, wherein the handle body is configured to be driven from an initial position to a pop-up position by the electric actuator and is manually operated to a latch operation position beyond the pop-up position, and the handle device is configured such that a latch of the door latch device is released by the latch release lever being rotationally driven to a latch release position, wherein the push portion forming member is configured to move from an initial corresponding position to a latch operation corresponding position in accordance with an operation of the handle body, the initial corresponding position corresponding to the initial position of the handle body and the latch operation corresponding position corresponding to the latch operation position of the handle body, wherein the push portion forming member has a lever push portion configured to, at the latch operation corresponding position, push the latch release lever and rotate the latch release lever to the latch release position, characterized in that the push portion forming member has a restriction wall, and wherein the restriction wall prevents the latch release lever from rotating toward the latch release position within a region from the initial corresponding position to a pop-up corresponding position corresponding to the pop-up position of the handle body. a handle body; a latch release lever; a door latch device in a door; an electric actuator; and a push portion forming member, wherein the handle body is configured to be driven from an initial position to a pop-up position by the electric actuator and is manually operated to a latch operation position beyond the pop-up position, and the handle device is configured such that a latch of the door latch device is released by the latch release lever being rotationally driven to a latch release position, wherein the push portion forming member is configured to move from an initial corresponding position to a latch operation corresponding position in accordance with an operation of the handle body, the initial corresponding position corresponding to the initial position of the handle body and the latch operation corresponding position corresponding to the latch operation position of the handle body, wherein the push portion forming member has a lever push portion configured to, at the latch operation corresponding position, push the latch release lever and rotate the latch release lever to the latch release position, characterized in that the push portion forming member has a restriction wall, and wherein the restriction wall prevents the latch release lever from rotating toward the latch release position within a region from the initial corresponding position to a pop-up corresponding position corresponding to the pop-up position of the handle body.
A radiant burner comprising at least one radiant burner plate and a screen enclosed by a peripheral band associated with a body defining a premixing chamber for said burner, said peripheral band comprising an upper flange, said burner further comprising an insulation lying under and extending downwardly from said upper flange of said peripheral band, said insulation having an internal peripheral structure permitting limited movement of said radiant screens, characterised in that said screen comprises at least two screen layers and in that said insulation is a multilayer insulation structure comprising more than one insulation layer, each insulation layer engaging and supporting at least one screenlayer.
A method, performed by a NodeB, for closed loop transmit diversity, the method comprising: receiving data and control channels of a test frame from user equipment UE, that was transmitted using multiple transmit antennas (408a; 408b); selecting a new transmit antenna (408a; 408b) for the UE, wherein the selecting is based on channel strength metrics of the test frame associated with each transmit antenna (408a; 408b); determining a new cycle period for the UE; and sending a new transmit antenna index, based on the selected new transmit antenna, and a testing indication based on the new cycle period to the UE, wherein the testing indication indicates whether the user equipment should transmit a next frame as a non-test frame comprising the data and control channels using only the selected antenna (408a; 408b) or as a test frame using said multiple antennas including the selected antenna and a non-selected antenna (408a, 408b). receiving data and control channels of a test frame from user equipment UE, that was transmitted using multiple transmit antennas (408a; 408b); selecting a new transmit antenna (408a; 408b) for the UE, wherein the selecting is based on channel strength metrics of the test frame associated with each transmit antenna (408a; 408b); determining a new cycle period for the UE; and sending a new transmit antenna index, based on the selected new transmit antenna, and a testing indication based on the new cycle period to the UE, wherein the testing indication indicates whether the user equipment should transmit a next frame as a non-test frame comprising the data and control channels using only the selected antenna (408a; 408b) or as a test frame using said multiple antennas including the selected antenna and a non-selected antenna (408a, 408b).
Compact flotation unit for separating hydrocarbons from water, comprising an essential cylindrical vertical tank with an upper compartment, a lower compartment and at least one barrier element, wherein the tank in the upper compartment comprises at least one tangential feed inlet (11,11') and a first reject outlet, wherein the tank in the lower compartment comprises a second reject outlet and a cleaned fluid outlet, wherein the at least one barrier element comprises a downward spiral shaped channel with a channel inlet opening in the upper compartment, and a channel outlet opening in the lower compartment, wherein the downward spiral shaped channel provides for fluid communication between the upper compartment and the lower compartment, and characterized in that the downward spiral shaped channel comprises at least one channel gas inlet for mixing gas into a fluid passing from the upper compartment to the lower compartment of the tank, and wherein the at least one channel gas inlet is arranged to inject gas co-currently with a fluid stream travelling downward the downward spiral shaped channel.
Method for operating an ignition device for an internal combustion engine, in particular of a motor vehicle, having a laser device which has a laser-active solid body with passive Q-switching and generates a laser pulse for radiation into a combustion chamber, and having a pumping light source which makes available a pumping light for the laser-active solid body of the laser device, characterized in that an ignition time (tZ) at which the laser pulse is generated is regulated to a predefineable setpoint value in that radiation intensity of the pumping light and/or a pumping period (t_pump) and/or a pumping start time and/or a wavelength of the pumping light are/is set.
An apparatus for slowing, disabling, immobilizing and/or restricting a land vehicle traveling along a roadway, comprising: a strap package comprising a plurality of sections connected via a flexible linkage between adjacent sections, each section having a generally polygonal cross-section; a projectile connected at a distal end of the plurality of sections, wherein launching the projectile pulls the sections, thus deploying the strap package to overlay the roadway; and a launcher coupled to the projectile, wherein activating the launcher causes the projectile to pull the sections, thus deploying the strap package, characterized in that each section includes a plurality of penetrators having a plurality of relative orientations therein and is configured to breach a ground engaging traction device of the land vehicle, such that each section is omni-directional in that each section is capable of engaging the ground engaging traction device of the land vehicle irrespective of which side of the section is in contact with the roadway upon launch. a strap package comprising a plurality of sections connected via a flexible linkage between adjacent sections, each section having a generally polygonal cross-section; a projectile connected at a distal end of the plurality of sections, wherein launching the projectile pulls the sections, thus deploying the strap package to overlay the roadway; and a launcher coupled to the projectile, wherein activating the launcher causes the projectile to pull the sections, thus deploying the strap package, characterized in that each section includes a plurality of penetrators having a plurality of relative orientations therein and is configured to breach a ground engaging traction device of the land vehicle, such that each section is omni-directional in that each section is capable of engaging the ground engaging traction device of the land vehicle irrespective of which side of the section is in contact with the roadway upon launch.
Machine tool device, in particular for hand-held machine tools, having at least one signal switching unit, which has at least one signal switching element that can be actuated at least to activate a drive unit for a machine tool, having at least one operating mode selection unit, which has at least one operating mode selection element that can be actuated to select an operating mode, including a hammer drill operating mode, of the drive unit, having at least one locking unit, which has at least one lock actuating element at least for locking the signal switching element, and having at least one electronic unit, which is provided for the open-loop and/or closed-loop control of the drive unit at least depending on an evaluation of a position characteristic variable of the lock actuating element, wherein the electronic unit is provided to deactivate the drive unit when the hammer drill operating mode is selected and the signal switching element is locked, characterized in that the locking unit is provided to lock the signal switching element when the signal switching element is not actuated, wherein the locking unit is provided to maintain the locking of the signal switching element irrespective of the operating mode.
Method for determining a tyre profile depth of a vehicle, having at least one sensor which is arranged in or on the vehicle tyre, characterized in that the tyre profile depth is determined as a function of the change in the ratio of a tyre contact duration detected by the sensor to a tyre revolution duration.
A vehicular headlamp (1L, 1R) characterized by comprising: a plurality of semiconductor light emitting element chips; and a reflector that has a reflection surface with a paraboloid shape, and that reflects, by the reflection surface, light from the semiconductor light emitting element chips so as to send the light in a headlamp beam direction of the vehicular headlamp (1L, 1R), wherein the plurality of semiconductor light emitting element chips are arranged along a plane perpendicular to the headlamp beam direction, and a focal point of the reflection surface of the reflector is disposed in or near an area between two semiconductor light emitting element chips that are next to each other, wherein of the plurality of semiconductor light emitting element chips, at least the two semiconductor light emitting element chips adjacent to the area are each provided with a light emitting surface whose edge adjacent to the area is straight extending along the headlamp beam direction. a plurality of semiconductor light emitting element chips; and a reflector that has a reflection surface with a paraboloid shape, and that reflects, by the reflection surface, light from the semiconductor light emitting element chips so as to send the light in a headlamp beam direction of the vehicular headlamp (1L, 1R), wherein the plurality of semiconductor light emitting element chips are arranged along a plane perpendicular to the headlamp beam direction, and a focal point of the reflection surface of the reflector is disposed in or near an area between two semiconductor light emitting element chips that are next to each other, wherein of the plurality of semiconductor light emitting element chips, at least the two semiconductor light emitting element chips adjacent to the area are each provided with a light emitting surface whose edge adjacent to the area is straight extending along the headlamp beam direction.
Device that can be used in an enhanced oil recovery method by injection, by means of an injection pump, of a solution of water soluble polymer and brine having a viscosity below 1000 cps, said device successively including: - an on-line mixer; - a viscosimeter comprising a calibrated tube working by measurement of a pressure drop in the calibrated tube at a constant rate of flow; the viscosimeter including: ∘ a pump, the flow rate thereof being controlled by a speed variator or a regulation valve, ∘ a calibrated tube creating a pressure drop, ∘ a flow meter, ∘ a high-precision differential pressure measurement device resistant to both corrosion and line pressures, characterized in that: - it is placed downstream of the injection pump, - the viscosimeter works at a pressure between 50 and 250 bars (10 5 Pa), at a temperature below or equal to 120 °C, - the flow meter is a precision Coriolis effect mass flow meter or an oval wheel flow meter, - the high-precision differential pressure measurement device is for mesuring in the range 0 -10 bars (10 5 Pa). - an on-line mixer; - a viscosimeter comprising a calibrated tube working by measurement of a pressure drop in the calibrated tube at a constant rate of flow; the viscosimeter including: ∘ a pump, the flow rate thereof being controlled by a speed variator or a regulation valve, ∘ a calibrated tube creating a pressure drop, ∘ a flow meter, ∘ a high-precision differential pressure measurement device resistant to both corrosion and line pressures, ∘ a pump, the flow rate thereof being controlled by a speed variator or a regulation valve, ∘ a calibrated tube creating a pressure drop, ∘ a flow meter, ∘ a high-precision differential pressure measurement device resistant to both corrosion and line pressures, - it is placed downstream of the injection pump, - the viscosimeter works at a pressure between 50 and 250 bars (10 5 Pa), at a temperature below or equal to 120 °C, - the flow meter is a precision Coriolis effect mass flow meter or an oval wheel flow meter, - the high-precision differential pressure measurement device is for mesuring in the range 0 -10 bars (10 5 Pa).
A method of manufacturing a rotor core assembly, the method comprising: a first step of: providing an assembly comprising a magnet, a first end cap located at one end of the magnet, a second end cap located at an opposite end of the magnet, a bore (8,12,13) that extends through the end caps and the magnet for receiving a shaft, securing the end caps to the magnet such that the outer diameter of the magnet is concentric with the inner diameters of the end caps; a second subsequent step of providing a sleeve surrounding the magnet and the ends caps, the sleeve forming an interference fit with each of the end caps; introducing an adhesive into a clearance between the magnet and the sleeve; and curing the adhesive. a first step of: providing an assembly comprising a magnet, a first end cap located at one end of the magnet, a second end cap located at an opposite end of the magnet, a bore (8,12,13) that extends through the end caps and the magnet for receiving a shaft, securing the end caps to the magnet such that the outer diameter of the magnet is concentric with the inner diameters of the end caps; a second subsequent step of providing a sleeve surrounding the magnet and the ends caps, the sleeve forming an interference fit with each of the end caps; introducing an adhesive into a clearance between the magnet and the sleeve; and curing the adhesive.
A set of floor panels (1, 1', 3), comprising a first a second and a third floor panel, the first floor panel comprising first connecting device comprising an integrated combination lock at a first and a second adjacent edge of a first floor panel, the combination lock is configured to connect the first floor panel to the second and the third floor panel (1', 3), so that upper joint edges of the floor panels in the connected state define a vertical plane, whereby the combination lock comprises an upwardly directed locking element configured to cooperate with a locking groove of an adjacent second connecting device at a first edge of the second floor panel and of an adjacent third connecting device at a first edge of the third floor panel for connecting the first and second edge of the first floor panel with said second and third floor panel in a horizontal direction perpendicular to said vertical plane, whereby the combination lock comprises a flexible tongue, in a displacement groove, the flexible tongue is configured to cooperate with a tongue groove of the second connecting device for connecting the first edge of the first panel and the first edge of the second floor panel together in a vertical direction parallel to the vertical plane, characterised in that the displacement groove and the displaceable tongue of the combination lock at the second edge of the first panel is configured to cooperate with a tongue of the third connecting device at the first edge of the third panel, for connecting the second edge of the first panel and first edge of the third panel in the vertical direction parallel to the vertical plane and that the flexible tongue is displaceable via the tongue of the third panel and positioned, in a connected position of the first and the third panel, via the tongue inside the second edge of the first panel and inside the displacement groove.
A power supply, comprising a bottom case, a top cover, a circuit board and a heat-dissipating fan, wherein said bottom case and said top cover are fitted together to delimit an accommodating space, said circuit board is mounted on said bottom case and located within said accommodating space, and said circuit board is provided thereon with a plurality of electronic components which are combined as at least a power calibration circuit or an electric power conversion circuit, said heat-dissipating fan includes a driving module and a fan blade set covering said driving module and being driven by said driving module to rotate; characterized in that said circuit board comprises a plurality of heat-dissipating elements, each of said plurality of heat-dissipating elements is provided correspondingly to one of said plurality of electronic components and allowed to conduct heat, respectively, and each of said plurality of heat-dissipating elements is provided with a mounting hole; and said heat-dissipating fan includes a supporting frame, said supporting frame comprises a main body, the main body comprises a flat portion provided for said driving module and said fan blade set to be installed, said supporting frame further comprises a plurality of connecting ribs extending from the edge of the flat portion, each of the plurality of connecting ribs is respectively connected to one of said mounting holes, and said heat-dissipating fan is not provided with a barrier wall around said fan blade set.
A method for providing an Augmented Reality AR service in a mobile communication terminal, the method comprising: receiving a sound signal, through a microphone, the sound signal including an audible frequency band and an inaudible frequency band; detecting additional information related to the AR service in the inaudible frequency band; extracting the detected additional information from the sound signal; acquiring data for providing the AR service based on the extracted additional information; and displaying an AR service screen based on the acquired data. receiving a sound signal, through a microphone, the sound signal including an audible frequency band and an inaudible frequency band; detecting additional information related to the AR service in the inaudible frequency band; extracting the detected additional information from the sound signal; acquiring data for providing the AR service based on the extracted additional information; and displaying an AR service screen based on the acquired data.
A magnetic pole sensor structure in an assist unit such as the assist unit mounted on a power-assisted bicycle, said assist unit comprising a unit casing, a brushless motor placed in the unit casing, a pinion gear which attaches itself to the motor shaft of the brushless motor so as to transmit the driving force of the brushless motor to the rear wheel of the power-assisted bicycle through the assist unit, further comprising magnetic pole sensor means attached to the motor shaft of the brushless motor to detect the angle of rotation of the rotor of the brushless motor, and driver means to control the current flowing into the brushless motor according to the angle of rotation of the rotor which has been detected by the magnetic pole sensor means, with the magnetic pole sensor means being arranged between the pinion gear and the rotor, wherein the magnetic pole sensor means comprising a magnetic pole magnet which rotates integrally with the rotor and a sensor which detects the rotation of the magnetic pole magnet, the magnetic pole magnet comprising a magnetic pole magnet proper, a magnet attached to the magnetic pole magnet proper, an extending part which extends from the magnetic pole magnet proper toward the tooth surface of the pinion gear, and seal means which is in contact with the periphery in the radial direction of the extending part, the sensor faces the magnet from the outside in the radial direction of the magnetic pole magnet, and the magnetic pole sensor means is arranged such that the magnetic pole magnet proper and the seal means are close to each other in the axial direction of the motor shaft.
A system for radio frequency, RF, anomaly or interference detection in an environment, comprising: an unmanned vehicle which is configured to move through the environment; at least one RF receiver which is mounted to the unmanned vehicle and which is configured to record RF spectral data at different locations in the environment; at least one RF machine learning unit, RFMLU, wherein the RFMLU is configured to analyze the RF spectral data in order to detect RF anomalies or interferences; wherein, in case of detecting an RF anomaly or interference with the RFMLU, the RF receiver is configured to record a baseband signal of an RF environment at the location of the detected RF anomaly or interference; wherein the system is operable in a learning mode in which the RF receiver is configured to record spectral training data, and in which the RFMLU is trained based on said spectral training data using a supervised and/or an unsupervised learning technique; and wherein, in the learning mode, the unmanned vehicle is configured to move through the environment and thereby to generate or update a map of the environment. an unmanned vehicle which is configured to move through the environment; at least one RF receiver which is mounted to the unmanned vehicle and which is configured to record RF spectral data at different locations in the environment; at least one RF machine learning unit, RFMLU, wherein the RFMLU is configured to analyze the RF spectral data in order to detect RF anomalies or interferences; wherein, in case of detecting an RF anomaly or interference with the RFMLU, the RF receiver is configured to record a baseband signal of an RF environment at the location of the detected RF anomaly or interference; wherein the system is operable in a learning mode in which the RF receiver is configured to record spectral training data, and in which the RFMLU is trained based on said spectral training data using a supervised and/or an unsupervised learning technique; and wherein, in the learning mode, the unmanned vehicle is configured to move through the environment and thereby to generate or update a map of the environment.