mhurhangee/ep-ind-claims huggingface dataset:
An array substrate, including a base substrate, a thin film transistor and a data signal line provided on the base substrate, and a pixel electrode and a common electrode which are successively provided in this order above the thin film transistor and are insulated from each other, wherein the thin film transistor includes an active layer, a source electrode, a drain electrode and a gate electrode, the source electrode, the drain electrode and the data signal line are provided in the same layer, and the pixel electrode is electrically connected to the drain electrode, and wherein the array substrate further includes: a first shield electrode, which is insulated from the pixel electrode, wherein the orthographic projection of the first shield electrode on the base substrate covers the orthographic projection of the data signal line on the base substrate, characterised in that the first shield electrode is provided in the same layer as the pixel electrode.
An electric power steering apparatus that calculates a current command value based on a steering torque and a vehicle speed, drives a motor based on said current command value and assist-controls a steering system by a driving-control of said motor, comprising: a handle-returning control section that is configured to: calculate a target steering angular velocity by using a steering angle, said vehicle speed, said steering torque and said current command value, characterised by calculate a handle-returning control current by using a limit-target steering angular velocity which is obtained by limiting said target steering angular velocity depending on a steering angular velocity, and drive said motor by a compensated current command value which is obtained by adding said handle-returning control current to said current command value. calculate a target steering angular velocity by using a steering angle, said vehicle speed, said steering torque and said current command value, characterised by calculate a handle-returning control current by using a limit-target steering angular velocity which is obtained by limiting said target steering angular velocity depending on a steering angular velocity, and drive said motor by a compensated current command value which is obtained by adding said handle-returning control current to said current command value.
Roller crusher having a rotatable crushing roller and having a movable sieving installation, characterized in that the sieving installation is supported on a locationally fixed counterbearing, on the one hand, and on at least one support face of the crushing roller, on the other hand, wherein a movement of the crushing roller causes a shaking motion of the sieving installation which is supported on the support face.
A transport member for transporting plate-shaped substrates, such as those used for solar cells, which substrates are to be electrolytically galvanized in a bath, comprising a carrier belt which in operation extends along an endless horizontal track, with resilient wire-shaped first contact members fastened thereto which each have a first contact portion that is designed for contacting, in an electrically conducting manner, a first side of a substrate under prestress in an active position of the first contact member and for being clear of the substrate in an inactive position of the first contact member, characterized in that the transport member further comprises resilient wire-shaped second contact members fastened to the carrier belt, which second contact members each have a second contact portion that is designed for contacting, in an electrically conducting manner, a second side of the same substrate under prestress in an active position of the second contact member and for being clear of said same substrate in an inactive position of the second contact member, while the transport member further comprises blocking means for blocking the first contact members and the second contact members in the inactive positions thereof during the electrolytic galvanizing process.
A system (1,21) for adjusting a delay setting based on user input, said system (1,21) comprising: at least one input interface (3,23); at least one control interface (4,24); and at least one processor (5,25) configured to: - control, via said at least one control interface (4,24), playback of an audio segment, said audio segment being played back at a playback moment, - control, via said at least one control interface (4,24), a light source to render a light effect, said light effect being rendered at a rendering moment, a difference between said playback moment and said rendering moment depending on a value of said delay setting, said delay setting causing said rendering of said light effect or said playback of said audio segment to be delayed, characterised in that said audio segment comprises a spoken description of said light effect, and in that: said at least one processor (5, 25) is further configured to: - receive, via said at least one input interface (3,23), said user input in response to said playback of said audio segment and said rendering of said light effect, and - adjust said delay setting based on said user input. at least one input interface (3,23); at least one control interface (4,24); and at least one processor (5,25) configured to: - control, via said at least one control interface (4,24), playback of an audio segment, said audio segment being played back at a playback moment, - control, via said at least one control interface (4,24), a light source to render a light effect, said light effect being rendered at a rendering moment, a difference between said playback moment and said rendering moment depending on a value of said delay setting, said delay setting causing said rendering of said light effect or said playback of said audio segment to be delayed, characterised in that said audio segment comprises a spoken description of said light effect, and in that: - control, via said at least one control interface (4,24), playback of an audio segment, said audio segment being played back at a playback moment, - control, via said at least one control interface (4,24), a light source to render a light effect, said light effect being rendered at a rendering moment, a difference between said playback moment and said rendering moment depending on a value of said delay setting, said delay setting causing said rendering of said light effect or said playback of said audio segment to be delayed, characterised in that said audio segment comprises a spoken description of said light effect, and in that: - receive, via said at least one input interface (3,23), said user input in response to said playback of said audio segment and said rendering of said light effect, and - adjust said delay setting based on said user input.
A toner cartridge comprising: (i) a casing including (i-i) toner accommodation chamber accommodating toner, and (i-ii) a discharge opening capable of discharging the toner; (ii) a pump including (ii-i) a movable portion and a (ii-ii) a connecting portion mounted on the casing, the pump being configured to discharge the toner through the discharge opening by reciprocation of the movable portion; (iii) a drive input member for receiving a rotational force for driving the pump; and (iv) a rotatable member rotatable about an axis thereof and configured to reciprocate the movable portion of the pump by rotation thereof, the rotatable member including (iv-i) a gear portion configured to receive a rotational force from the drive input member, wherein the movable portion of the pump effects reciprocating motion in a direction of the axis of the rotatable member, characterized in that the gear portion of the rotatable member surrounds the connecting portion of the pump, and as viewed in the direction of the axis of the rotatable member, the gear portion of the rotatable member and the movable portion of the pump at least partly overlap with each other. (i) a casing including (i-i) toner accommodation chamber accommodating toner, and (i-ii) a discharge opening capable of discharging the toner; (ii) a pump including (ii-i) a movable portion and a (ii-ii) a connecting portion mounted on the casing, the pump being configured to discharge the toner through the discharge opening by reciprocation of the movable portion; (iii) a drive input member for receiving a rotational force for driving the pump; and (iv) a rotatable member rotatable about an axis thereof and configured to reciprocate the movable portion of the pump by rotation thereof, the rotatable member including (iv-i) a gear portion configured to receive a rotational force from the drive input member, wherein the movable portion of the pump effects reciprocating motion in a direction of the axis of the rotatable member, characterized in that the gear portion of the rotatable member surrounds the connecting portion of the pump, and as viewed in the direction of the axis of the rotatable member, the gear portion of the rotatable member and the movable portion of the pump at least partly overlap with each other.
A method comprising: (i) admixing a methylnicotinate of Formula: wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula: and (ii) admixing the naphthyridinone of Formula with methoxyethanol, a base, and a copper catalyst, under conditions sufficient to form 3-(2-methoxyethoxy)-1,6-naphthyridin-5 -one ("NAPH"): (i) admixing a methylnicotinate of Formula: wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula: and wherein R 3 is Cl, Br, or I, and R 4 is alkyl; with 1,3,5-triazine, and a base, under conditions sufficient to form a naphthyridinone of Formula: and (ii) admixing the naphthyridinone of Formula with methoxyethanol, a base, and a copper catalyst, under conditions sufficient to form 3-(2-methoxyethoxy)-1,6-naphthyridin-5 -one ("NAPH"):
A method for producing, transporting and installing insulating lamellae of mineral wool, in which method is first produced a mineral wool sheet or mat, and the sheet or mat is supplied to a production line, where, at a cutting stage, narrow lamella parts are longitudinally cut from it, wherein the cutting between at least two adjacent lamella parts is carried out partially so that said at least two adjacent lamella parts remain attached to one another by a thin neck, which attached lamella parts are then conveyed to a packing stage by a conveying part, wherein the conveying part comprises conveyor means and at the cutting stage, the partial cutting between at least two adjacent lamella parts is carried out so that the attached lamella parts form a lamella unit, and the packed lamellae are subsequently conveyed to the site of use, characterised in that the fibres of the sheet or mat are mainly parallel with the main surfaces of the sheet; the lamella parts correspond in width to the desired insulation thickness; the lamellae are installed in the site of use turned by 90° with respect to the plane determined by the sheet or mat in such a way that adjacently installed lamellae form an insulation layer, in which the fibres settle essentially perpendicularly to the plane formed by the main surfaces of the insulation layer; the conveyor means (C1-C10) extending in the longitudinal direction of the production line at a transverse distance from one another; the width of the lamella units is greater than the transverse distance between two adjacent conveyor means (C1-C10), and the attached lamella parts are detached completely from one another before packing them, or not until close to the site of use, and are installed in place individually at the site of use.
A system to convert heat into electricity, characterised in that the system comprises: a metamaterial having a surface that comprises a plurality of holes with dimensions and spacing to cause the surface to generate an enhanced electric field at a desired frequency; and a rectenna placed over each of the holes, at a distance to interact with the generated electric field, and to produce electricity from the generated electric field. a metamaterial having a surface that comprises a plurality of holes with dimensions and spacing to cause the surface to generate an enhanced electric field at a desired frequency; and a rectenna placed over each of the holes, at a distance to interact with the generated electric field, and to produce electricity from the generated electric field.
Sheet, provided with multiple sensors comprising a resistive sensor, a capacitive sensor and/or an inductive sensor, said sensors being embedded in the sheet for measuring one or more physical characteristics or changes in physical characteristics in the sheet, whereby the sensors are suitable for generating or influencing an electrical signal as a function of a measured physical characteristic or a change in a physical characteristic, whereby the sheet also comprises at least one connector to connect the sheet with a signal processing unit conceived for processing the electrical signal supplied to the signal processing unit from the sensors, said electrical signal providing a measure for at least a characteristic including a vibration frequency in the sheet.
A pedicle screw system comprising: a polyaxial screw having a screw head including a spherical lower portion and an upper portion with a central projection and a plurality of secondary projections; and a polyaxial screwdriver (20, 80, 90) including a shaft with a screw engaging end including a cylindrical portion having alternating first surfaces and second surfaces positioned at the periphery of the cylindrical portion, wherein the first surfaces and the second surfaces of the cylindrical portion of the polyaxial screwdriver are adapted to engage the plurality of secondary projections of the polyaxial screw; the polyaxial screwdriver further including: a sleeve slidable over the shaft; Characterized in that the polyaxial screwdriver further includes: a locking mechanism including a ratchet attached to the sleeve, the ratchet having a button, the ratchet being in engagement with gear teeth formed on an outside of the shaft, and the locking mechanism including a spring for applying a force to the ratchet to keep the ratchet in engagement with the gear teeth, wherein the ratchet locks the shaft and prevents the polyaxial screwdriver (20, 80, 90) from unthreading from a tulip (50, 92) of the screw head, and wherein the button is pressed to disengage the ratchet from the gear teeth and thereby allow the shaft to be rotated in a reverse direction. a polyaxial screw having a screw head including a spherical lower portion and an upper portion with a central projection and a plurality of secondary projections; and a polyaxial screwdriver (20, 80, 90) including a shaft with a screw engaging end including a cylindrical portion having alternating first surfaces and second surfaces positioned at the periphery of the cylindrical portion, wherein the first surfaces and the second surfaces of the cylindrical portion of the polyaxial screwdriver are adapted to engage the plurality of secondary projections of the polyaxial screw; the polyaxial screwdriver further including: a sleeve slidable over the shaft;
An electronic device comprising: a wireless communication module; a phase matching module; at least one processor operatively connected to the phase matching module and the wireless communication module; and at least one memory operatively connected to the at least one processor, wherein the at least one memory stores instructions that, when executed, cause the at least one processor to: control the wireless communication module to transmit a wireless communication signal to an external object, control the wireless communication module to receive a signal returned based on the transmitted wireless signal being reflected from the external object, acquire a first distance to the external object based on a transmission time point of the transmitted signal and a reception time point of the received signal, acquire a second distance to the external object based on the wavelength and phases of the transmitted signal and the received signal by controlling the phase matching module, and estimate a distance to the external object based on the first distance and the second distance. a wireless communication module; a phase matching module; at least one processor operatively connected to the phase matching module and the wireless communication module; and at least one memory operatively connected to the at least one processor, wherein the at least one memory stores instructions that, when executed, cause the at least one processor to: control the wireless communication module to transmit a wireless communication signal to an external object, control the wireless communication module to receive a signal returned based on the transmitted wireless signal being reflected from the external object, acquire a first distance to the external object based on a transmission time point of the transmitted signal and a reception time point of the received signal, acquire a second distance to the external object based on the wavelength and phases of the transmitted signal and the received signal by controlling the phase matching module, and estimate a distance to the external object based on the first distance and the second distance. control the wireless communication module to transmit a wireless communication signal to an external object, control the wireless communication module to receive a signal returned based on the transmitted wireless signal being reflected from the external object, acquire a first distance to the external object based on a transmission time point of the transmitted signal and a reception time point of the received signal, acquire a second distance to the external object based on the wavelength and phases of the transmitted signal and the received signal by controlling the phase matching module, and estimate a distance to the external object based on the first distance and the second distance.
Composition comprising a random copolymer prepared by controlled radical polymerization comprising the following monomers: - styrene, from 28% to 45% by weight, limits included; - methacrylic acid, from 10% to 40% by weight, limits included; - acrylic acid, from 0.5% to 5% by weight, limits included; - butyl acrylate, from 18% to 35% by weight, limits included. - styrene, from 28% to 45% by weight, limits included; - methacrylic acid, from 10% to 40% by weight, limits included; - acrylic acid, from 0.5% to 5% by weight, limits included; - butyl acrylate, from 18% to 35% by weight, limits included.
A method for calibrating an optical detector in a diffuse optical spectroscopy device, the method comprising: measuring a first sample with the optical detector to determine a measured power response; determining an inverse response based on the measured power response and a predetermined power response of the first sample by fitting the measured power response to the predetermined power response of the first sample; characterized in that the method further comprises: measuring a second sample with the optical detector to determine a first frequency response; adjusting the first frequency response based on the inverse response to determine a second frequency response; determining a third frequency response based on predetermined absorption and scattering coefficients of the second sample; and determining a plurality of correction factors based on the second frequency response and the third frequency response, wherein the plurality of correction factors represent corrections for non-linear amplitude changes at different signal levels for the optical detector. measuring a first sample with the optical detector to determine a measured power response; determining an inverse response based on the measured power response and a predetermined power response of the first sample by fitting the measured power response to the predetermined power response of the first sample; characterized in that the method further comprises: measuring a second sample with the optical detector to determine a first frequency response; adjusting the first frequency response based on the inverse response to determine a second frequency response; determining a third frequency response based on predetermined absorption and scattering coefficients of the second sample; and determining a plurality of correction factors based on the second frequency response and the third frequency response, wherein the plurality of correction factors represent corrections for non-linear amplitude changes at different signal levels for the optical detector. measuring a second sample with the optical detector to determine a first frequency response; adjusting the first frequency response based on the inverse response to determine a second frequency response; determining a third frequency response based on predetermined absorption and scattering coefficients of the second sample; and determining a plurality of correction factors based on the second frequency response and the third frequency response, wherein the plurality of correction factors represent corrections for non-linear amplitude changes at different signal levels for the optical detector.
Electrical circuit (9, 14, 20) for an energy store of a vehicle or an electrical energy source of a charging station, having an electrical contact (3; 4) for producing an electrical connection between the energy store and the external energy source, in order to supply the energy store with energy, wherein the electrical circuit (9, 14, 20) is embodied in such a way that, before the electrical connection between the vehicle and the charging station is set up or disconnected, the electrical voltage and/or the current between the energy store and the charging station is adapted in such a way that when the electrical connection is set up or disconnected little current or no current flows across the electrical contact (3, 4), wherein the electrical circuit (9, 20) is embodied in such a way that, before the electrical connection between the vehicle and the charging station is set up, it raises the electrical voltage on the side of the energy store above the voltage on the side of the energy source, or, before the electrical connection between the vehicle and the charging station is set up, it lowers the electrical voltage on the side of the energy source below the voltage on the side of the energy store, and wherein a diode is provided as a current limiting means (13, 14) which at least limits a flow of current after the electrical connection from the energy store to the energy source is set up.