mhurhangee/ep-ind-claims huggingface dataset:
A device for making security marks positionable on a sheet of paper comprising a supporting main rotary cylinder for backing said sheet of paper, wherein said supporting main rotary cylinder includes retention means (20, 21) of said sheet of paper, and a rotary grinding wheel adjacent to the perimeter of said supporting main rotary cylinder with a distance of approach (g) adjustable regarding said supporting main rotary cylinder, wherein said device is characterized by further comprising: at least one simultaneously backing and printing die comprising a free face with a pre-designed image, which is mounted on said perimeter of said supporting main rotary cylinder, said free face with a pre-designed image of said simultaneously backing and printing die has height differences in the free face itself between different points of the same, wherein said distance of approach (g) is the distance between the perimeter of said grinding wheel and the point of lowest height of said free face and is lower than the thickness of said sheet of paper, therefore said at least one simultaneously backing and printing die is configured for backing said sheet of paper against said grinding wheel at the distance of approach (g) between said free face and the peripheral surface of said rotary grinding wheel that is sufficient to wear out only the front of said sheet of paper without passing through it and matching said pre-designed image, and is configured for printing simultaneously said pre-designed image with ink on the reverse of said sheet of paper, and at least one first inking roller train comprising at least one first applicator roller of said ink and that is positioned so as to contact said free face with said pre-designed image of the simultaneously backing and printing die. at least one simultaneously backing and printing die comprising a free face with a pre-designed image, which is mounted on said perimeter of said supporting main rotary cylinder, said free face with a pre-designed image of said simultaneously backing and printing die has height differences in the free face itself between different points of the same, wherein said distance of approach (g) is the distance between the perimeter of said grinding wheel and the point of lowest height of said free face and is lower than the thickness of said sheet of paper, therefore said at least one simultaneously backing and printing die is configured for backing said sheet of paper against said grinding wheel at the distance of approach (g) between said free face and the peripheral surface of said rotary grinding wheel that is sufficient to wear out only the front of said sheet of paper without passing through it and matching said pre-designed image, and is configured for printing simultaneously said pre-designed image with ink on the reverse of said sheet of paper, and at least one first inking roller train comprising at least one first applicator roller of said ink and that is positioned so as to contact said free face with said pre-designed image of the simultaneously backing and printing die.
An electric power tool comprising: a brushless motor including a motor shaft and a stator coil provided on an outer periphery of an intermediate portion of the motor shaft, wherein one end of the motor shaft is supported by a first bearing and the other end of the motor shaft is supported by a second bearing; a tip tool adapted to be driven by the rotational output of the brushless motor as transmitted via the motor shaft; an inverter circuit board with an inverter circuit for driving the brushless motor, wherein the inverter circuit board is arranged substantially orthogonal to the motor shaft and the inverter circuit is provided with switching elements (3a; Q1 to Q6); a cooling fan provided on the motor shaft and using it as a rotation shaft; a housing including a motor housing portion that houses along the direction of the motor shaft, from the one end of the motor shaft to the other end of the motor shaft, the first bearing, the inverter circuit board, the brushless motor and the stator coil, the cooling fan, and the second bearing; and an air inlet ventilation port provided on the housing; characterized in that at least one of the switching elements (3a; Q1 to Q6) is provided so as to overlap with the first bearing in a direction of the motor shaft inside the housing; and the air inlet ventilation port is located on a side portion of the housing in transverse direction and in proximity to the inverter circuit board. a brushless motor including a motor shaft and a stator coil provided on an outer periphery of an intermediate portion of the motor shaft, wherein one end of the motor shaft is supported by a first bearing and the other end of the motor shaft is supported by a second bearing; a tip tool adapted to be driven by the rotational output of the brushless motor as transmitted via the motor shaft; an inverter circuit board with an inverter circuit for driving the brushless motor, wherein the inverter circuit board is arranged substantially orthogonal to the motor shaft and the inverter circuit is provided with switching elements (3a; Q1 to Q6); a cooling fan provided on the motor shaft and using it as a rotation shaft; a housing including a motor housing portion that houses along the direction of the motor shaft, from the one end of the motor shaft to the other end of the motor shaft, the first bearing, the inverter circuit board, the brushless motor and the stator coil, the cooling fan, and the second bearing; and an air inlet ventilation port provided on the housing; characterized in that at least one of the switching elements (3a; Q1 to Q6) is provided so as to overlap with the first bearing in a direction of the motor shaft inside the housing; and the air inlet ventilation port is located on a side portion of the housing in transverse direction and in proximity to the inverter circuit board.
A water heater and thermostatic control device for a lavatory faucet, comprising: a hot water tank having a reservoir (110, 302) and a heating element disposed within the reservoir (110, 302), the heating element configured to heat ambient temperature water received by the reservoir (110, 302) to produce hot water; a mixing valve configured to mix hot water received from the hot water tank with ambient temperature water to produce mixed temperature water; a temperature control unit; said mixing valve and temperature control unit being configured to control the temperature of said mixed temperature water; characterised by a shut off valve (240, 500) configured to permit flow of said mixed temperature water to the lavatory faucet; and said temperature control unit being configured to communicate with the lavatory faucet, wherein the temperature control unit is further configured to open the shut off valve (240, 500) when instructed by the lavatory faucet, wherein the hot water tank, the mixing valve, the shut off valve (240, 500) and the temperature control unit are arranged within a body of the device, wherein the temperature control unit is arranged within a lower section of the device, and wherein the lower section is disposed under the reservoir (110, 302). a hot water tank having a reservoir (110, 302) and a heating element disposed within the reservoir (110, 302), the heating element configured to heat ambient temperature water received by the reservoir (110, 302) to produce hot water; a mixing valve configured to mix hot water received from the hot water tank with ambient temperature water to produce mixed temperature water; a temperature control unit; said mixing valve and temperature control unit being configured to control the temperature of said mixed temperature water; characterised by a shut off valve (240, 500) configured to permit flow of said mixed temperature water to the lavatory faucet; and said temperature control unit being configured to communicate with the lavatory faucet, wherein the temperature control unit is further configured to open the shut off valve (240, 500) when instructed by the lavatory faucet, wherein the hot water tank, the mixing valve, the shut off valve (240, 500) and the temperature control unit are arranged within a body of the device, wherein the temperature control unit is arranged within a lower section of the device, and wherein the lower section is disposed under the reservoir (110, 302).
A device for controlling an internal combustion engine, comprising a device for trapping particulate matter in exhaust gas in an exhaust passage; means for supplying ozone to said particulate matter trapping device from the upstream thereof; means for interrupting the fuel injection of said internal combustion engine upon the execution of ozone supply by said ozone supply means; and means for forecasting whether or not a temperature of said particulate matter trapping device abnormally rises when the fuel injection is interrupted by said fuel injection interrupting means, wherein said fuel injection interrupting means executes the interruption of the fuel injection when the abnormal temperature rise of said particulate matter trapping device is not forecast by said forecasting means.
Rotor for a squirrel-cage asynchronous rotating electrical machine, comprising two compaction elements (6, 21) clamping a cylindrical magnetic mass, short-circuit disks inserted between the magnetic mass and the compaction elements, and conductive bars housed in housings of the magnetic mass and evenly distributed over at least one diameter of the magnetic mass, so that the short-circuit disks and the conductive bars form a squirrel-cage, at least one of the compaction elements and the short-circuit disks comprising insertion holes (8a, 12, 22) each disposed facing a housing, characterised in that retention means are inserted into each insertion hole to retain the conductive bars in the housings.
Configuration of two cyclones (1,2) for separation of solids from a solids-gas mixture wherein the gas outlet of a first cyclone is fluidly connected to an outlet conduit provided with a gas outlet opening and the gas inlet of the second cyclone is connected to an inlet conduit provided with a gas inlet opening, wherein the outlet conduit and inlet conduit are arranged co-axial such that gas leaving the outlet opening of the outlet conduit enters the inlet opening of the inlet conduit and gas from the exterior of the cyclone configuration can enter the gas inlet opening of the inlet conduit, wherein the gas outlet opening and the gas inlet opening are axially spaced away from each other and wherein the interior of the gas outlet tube is provided with means to decrease the swirling motion of the gas passing said outlet conduit.
A process for producing a semiconductor device comprising a layer of a crystalline material, which process comprises producing the layer of a crystalline material by disposing on a substrate: a first precursor compound comprising a first cation and a sacrificial anion, which first cation is a metal or metalloid cation and which sacrificial anion comprises two or more atoms; and a second precursor compound comprising a second anion and a second cation, which second cation can together with the sacrificial anion form a first volatile compound, wherein: the sacrificial anion is an organic anion; and the second cation is an organic cation or NH 4 +. a first precursor compound comprising a first cation and a sacrificial anion, which first cation is a metal or metalloid cation and which sacrificial anion comprises two or more atoms; and a second precursor compound comprising a second anion and a second cation, which second cation can together with the sacrificial anion form a first volatile compound, wherein: the sacrificial anion is an organic anion; and the second cation is an organic cation or NH 4 +. the sacrificial anion is an organic anion; and the second cation is an organic cation or NH 4 +.
A balancing device, in particular a balancing head or a balancing ring, for an electromechanical balancing system for rotating units, in particular for spindles of machine tools, comprising at least one balancing mass which is adjustable for compensation of an imbalance of the unit; a drive unit, in particular an electric motor, for adjusting the balancing mass; and a positioning device by which a plurality of rotational positions are predefined into which the balancing mass can be adjusted, wherein the positioning device comprises a device (19, 37), rotating with the unit during operation, for measuring the rotational positions by which the respective absolute rotational position of the balancing mass in a coordinate system fixed with respect to the balancing device is predefined or can be determined, characterized in that the rotating device (19, 37) comprises two components (19, 37) rotatable relative to one another, with a rotational movement of the one component relative to the other component being associated with an adjustment movement of the balancing mass, and with the absolute rotational position of the balancing mass being predefined or able to be determined by the relative position of the two components (19, 37).
An integrated multi-pivot hinge assembly comprising: a set of radially arranged sequential frames (210A, 210B, 210C, 210D, 210E) configured to rotate around individual frame axes, each frame of the set of radially arranged sequential frames including a plurality of kinematic components for controlling a degree of rotation about each frame axis; a set of rotational control elements interposed between adjacent frames, the set of rotational control elements configured to control a relative sequence of rotation of the individual sequential frames; and a set of friction components integrated with the set of radially arranged sequential frames, the friction components including one or more shafts (204A, 204B, 204C, 204D) configured to rotatably secure adjacent frames together defining the individual frame axes of adj acent frames; wherein each individual frame of the set of radially arranged sequential frames includes opposing offset regions that fit together with corresponding inset regions of an adjacent frame, and each offset region includes a central opening that when individual adjacent frames are coupled together creates a passageway for one shaft of the one or more shafts; wherein the rotational control elements comprise a plurality of sequencing pins (206A, 206B, 206C), each sequencing pin configured to engage cam surfaces (216, 221, 217) defined on adjacent sequential frames; and wherein a relative position of an individual sequencing pin relative to a first and a second cam surfaces on adjacent sequential frames determines whether a frame can rotate relative to an adjacent frame. a set of radially arranged sequential frames (210A, 210B, 210C, 210D, 210E) configured to rotate around individual frame axes, each frame of the set of radially arranged sequential frames including a plurality of kinematic components for controlling a degree of rotation about each frame axis; a set of rotational control elements interposed between adjacent frames, the set of rotational control elements configured to control a relative sequence of rotation of the individual sequential frames; and a set of friction components integrated with the set of radially arranged sequential frames, the friction components including one or more shafts (204A, 204B, 204C, 204D) configured to rotatably secure adjacent frames together defining the individual frame axes of adj acent frames; wherein each individual frame of the set of radially arranged sequential frames includes opposing offset regions that fit together with corresponding inset regions of an adjacent frame, and each offset region includes a central opening that when individual adjacent frames are coupled together creates a passageway for one shaft of the one or more shafts; wherein the rotational control elements comprise a plurality of sequencing pins (206A, 206B, 206C), each sequencing pin configured to engage cam surfaces (216, 221, 217) defined on adjacent sequential frames; and wherein a relative position of an individual sequencing pin relative to a first and a second cam surfaces on adjacent sequential frames determines whether a frame can rotate relative to an adjacent frame.
Light module for fitting into a luminaire, comprising a light emitting diode arranged on an electrically conductive surface, optical means consisting of transparent plastic having a light directing unit for directing the luminous flux generated by the LED, wherein the optical means are designed at least partially heat conductive, the optical means comprises a bar (4B, 4C), the bar (4B, 4C) comprises several metallic surfaces functioning as heat sinks, the bar (4B, 4C) is surrounded by metallic surfaces, and wherein besides of the top and bottom horizontal surfaces the vertical surface on the side also comprises a cooling metallic surface or a metallic member, resp.
A building system for operating a building and managing private building information, the building system comprising a processing circuit configured to: - receive a request for information for a building entity of a building entity database from a requesting device, the request being associated with multiple access values, wherein the building entity database comprises the building entity, a plurality of mask templates, and a relational link between the building entity and the plurality of mask templates, wherein each of the plurality of mask templates provides different access to private information of the building entity and is linked to one combination of a plurality of access values; - select one of the plurality of mask templates from the building entity database based on the plurality of access values associated with the requesting device and the relational link between the building entity and the plurality of mask templates; - retrieve the private information for the building entity in response to a reception of the request for the information; and - generate a masked information data structure based on the private information and the one of the plurality of mask templates. - receive a request for information for a building entity of a building entity database from a requesting device, the request being associated with multiple access values, wherein the building entity database comprises the building entity, a plurality of mask templates, and a relational link between the building entity and the plurality of mask templates, wherein each of the plurality of mask templates provides different access to private information of the building entity and is linked to one combination of a plurality of access values; - select one of the plurality of mask templates from the building entity database based on the plurality of access values associated with the requesting device and the relational link between the building entity and the plurality of mask templates; - retrieve the private information for the building entity in response to a reception of the request for the information; and - generate a masked information data structure based on the private information and the one of the plurality of mask templates.
A radio frequency system comprising: a phase reversal amplitude shift keying (PR-ASK) signal generator configured to produce a fully modulated AM signal representing a sequence of symbols; characterized by an in-phase and/or quadrature phase controlled orthogonal offset generator configured to produce an in-phase and/or quadrature phase offset signal orthogonal to the PR-ASK signal; wherein the controlled offset signal is summed into the PR-ASK signal to shift a trajectory of the fully modulated AM signal away from an origin thereby producing a new modulation format, an amplitude and phase modulated offset PR-ASK (OPR-ASK) signal with continuous phase modulation and a modulation depth reduced by the controlled orthogonal offset as compared to PR-ASK signal modulation. a phase reversal amplitude shift keying (PR-ASK) signal generator configured to produce a fully modulated AM signal representing a sequence of symbols; characterized by an in-phase and/or quadrature phase controlled orthogonal offset generator configured to produce an in-phase and/or quadrature phase offset signal orthogonal to the PR-ASK signal; wherein the controlled offset signal is summed into the PR-ASK signal to shift a trajectory of the fully modulated AM signal away from an origin thereby producing a new modulation format, an amplitude and phase modulated offset PR-ASK (OPR-ASK) signal with continuous phase modulation and a modulation depth reduced by the controlled orthogonal offset as compared to PR-ASK signal modulation.
A method of cross-lingual voice conversion performed by a machine learning system, the method comprising: receiving, by a voice feature extractor, a first voice audio segment in a first language and a second voice audio segment in a second language; extracting, by the voice feature extractor respectively from the first voice audio segment and second voice audio segment, audio features comprising first-voice, speaker-dependent acoustic features and second-voice, speaker-independent linguistic features; generating, via a generator of a generative adversarial network, GAN, system from a trained data set, a third voice candidate having the first-voice, speaker-dependent acoustic features and the second-voice, speaker-independent linguistic features, wherein the third voice candidate speaks the second language; comparing, via one or more discriminators of the GAN system, the third voice candidate with ground truth data comprising the first-voice, speaker-dependent acoustic features and second-voice, speaker-independent linguistic features; and providing results of the comparing step back to the generator for refining the third voice candidate. receiving, by a voice feature extractor, a first voice audio segment in a first language and a second voice audio segment in a second language; extracting, by the voice feature extractor respectively from the first voice audio segment and second voice audio segment, audio features comprising first-voice, speaker-dependent acoustic features and second-voice, speaker-independent linguistic features; generating, via a generator of a generative adversarial network, GAN, system from a trained data set, a third voice candidate having the first-voice, speaker-dependent acoustic features and the second-voice, speaker-independent linguistic features, wherein the third voice candidate speaks the second language; comparing, via one or more discriminators of the GAN system, the third voice candidate with ground truth data comprising the first-voice, speaker-dependent acoustic features and second-voice, speaker-independent linguistic features; and providing results of the comparing step back to the generator for refining the third voice candidate.
A method for controlling a biped robot, comprising: acquiring a support phase of the biped robot in a current state; acquiring a current forward speed and a current lateral speed of a center of mass of the biped robot at an end of the support phase; acquiring a torque vector of an ankle joint of a support leg of the biped robot according to the current forward speed and the current lateral speed; acquiring a target torque vector according to the torque vector and a preset Quadratic Programming model; and controlling the biped robot to move according to the target torque vector. acquiring a support phase of the biped robot in a current state; acquiring a current forward speed and a current lateral speed of a center of mass of the biped robot at an end of the support phase; acquiring a torque vector of an ankle joint of a support leg of the biped robot according to the current forward speed and the current lateral speed; acquiring a target torque vector according to the torque vector and a preset Quadratic Programming model; and controlling the biped robot to move according to the target torque vector.