mhurhangee/ep-ind-claims huggingface dataset:
An electronic device capable of capturing and directing electro-static discharge comprising: a printed circuit board including electronics positioned thereon and including a ground connection; a rocker having an actuation surface configured to be contacted to actuate the electronic device; an electro static discharge device comprising a frame positioned adjacent to said actuation surface, said electro static discharge device including a pair of legs (126, 126') extending generally perpendicular to the frame and generally parallel to each other, each leg (126, 126') having a proximal end coupled to the frame and a distal end that is positioned adjacent to one of a pair of ground points (114, 114') on said printed circuit board, each leg (126, 126') further including a pair of arms comprising proximal ends coupled to each leg (126, 126'), said arms extending generally parallel to each other and extending generally perpendicular from the legs (126, 126'), said arms extending along a length of said actuation surface, and wherein said electro static discharge device is spaced apart from said printed circuit board by an air gap, whereby relative pivoting movement is allowed therebetween; wherein said ground points (114, 114') on said printed circuit board are electrically connected to said ground connection; wherein in the event an object contacts said actuation surface and an electro static discharge occurs, the electro static discharge is drawn down at least one of the pair of legs (126, 126') and jumps across the air gap to at least one of the ground points (114, 114') on said printed circuit board. a printed circuit board including electronics positioned thereon and including a ground connection; a rocker having an actuation surface configured to be contacted to actuate the electronic device; an electro static discharge device comprising a frame positioned adjacent to said actuation surface, said electro static discharge device including a pair of legs (126, 126') extending generally perpendicular to the frame and generally parallel to each other, each leg (126, 126') having a proximal end coupled to the frame and a distal end that is positioned adjacent to one of a pair of ground points (114, 114') on said printed circuit board, each leg (126, 126') further including a pair of arms comprising proximal ends coupled to each leg (126, 126'), said arms extending generally parallel to each other and extending generally perpendicular from the legs (126, 126'), said arms extending along a length of said actuation surface, and wherein said electro static discharge device is spaced apart from said printed circuit board by an air gap, whereby relative pivoting movement is allowed therebetween; wherein said ground points (114, 114') on said printed circuit board are electrically connected to said ground connection; wherein in the event an object contacts said actuation surface and an electro static discharge occurs, the electro static discharge is drawn down at least one of the pair of legs (126, 126') and jumps across the air gap to at least one of the ground points (114, 114') on said printed circuit board.
A brushless AC generator for a vehicle comprising: front side and rear side brackets holding a shaft through bearings (8, 9); a stator core having a stator coil held between the brackets; a rotor assembled body fixed to the shaft so as to be faced to the stator core, the rotor assembled body being formed into the shape of a cylinder from a first rotor pole having plural claw poles in a circumferential direction at even intervals and a second rotor pole having plural claw poles provided between the former plural claw poles in a circumferential direction at even intervals, the first and second rotor poles being united into one body; a cylindrical excitation core provided in the rotor assembled body and fixed to an inner surface of the rear side bracket; an excitation coil wound around the excitation core; an external fan fixed to a shaft outside the front side bracket; and an internal fan fixed to the rotor assembled body on a side surface faced to the front side bracket, the internal fan having a fan blade provided in a valley part between the claw poles of the first rotor pole, the brushless AC generator for a vehicle characterized in that interaction of the external fan with the internal fan is achieved to generate an air flow passing from the rear side bracket to the front side bracket in the same direction and the air flow is used for cooling at least the stator core, the rotor assembled body, the excitation core and the excitation coil. front side and rear side brackets holding a shaft through bearings (8, 9); a stator core having a stator coil held between the brackets; a rotor assembled body fixed to the shaft so as to be faced to the stator core, the rotor assembled body being formed into the shape of a cylinder from a first rotor pole having plural claw poles in a circumferential direction at even intervals and a second rotor pole having plural claw poles provided between the former plural claw poles in a circumferential direction at even intervals, the first and second rotor poles being united into one body; a cylindrical excitation core provided in the rotor assembled body and fixed to an inner surface of the rear side bracket; an excitation coil wound around the excitation core; an external fan fixed to a shaft outside the front side bracket; and an internal fan fixed to the rotor assembled body on a side surface faced to the front side bracket, the internal fan having a fan blade provided in a valley part between the claw poles of the first rotor pole, the brushless AC generator for a vehicle characterized in that interaction of the external fan with the internal fan is achieved to generate an air flow passing from the rear side bracket to the front side bracket in the same direction and the air flow is used for cooling at least the stator core, the rotor assembled body, the excitation core and the excitation coil.
A video decoding method performed by a decoding apparatus, the method comprising: obtaining video information comprising prediction mode information for a current chroma block; deriving a top cross-component linear model, CCLM, prediction mode as an intra prediction mode of the current chroma block based on the prediction mode information; deriving a sample number of top neighboring chroma samples of the current chroma block based on a width of the current chroma block and a specific value; deriving the top neighboring chroma samples of the sample number; deriving down sampled top neighboring luma samples corresponding to the top neighboring chroma samples and down sampled luma samples of a current luma block; deriving CCLM parameters based on the top neighboring chroma samples and the down sampled top neighboring luma samples; deriving prediction samples for the current chroma block based on the CCLM parameters and the down sampled luma samples of the current luma block; and generating reconstructed samples for the current chroma block based on the prediction samples, wherein the specific value is derived as 2, wherein the width of the current chroma block is N, characterized in that based on 2N being less than or equal to twice the specific value, the sample number of the top neighboring chroma samples is derived as 2N, and based on the 2N being greater than twice the specific value, the sample number of the top neighboring chroma samples is derived as 4. obtaining video information comprising prediction mode information for a current chroma block; deriving a top cross-component linear model, CCLM, prediction mode as an intra prediction mode of the current chroma block based on the prediction mode information; deriving a sample number of top neighboring chroma samples of the current chroma block based on a width of the current chroma block and a specific value; deriving the top neighboring chroma samples of the sample number; deriving down sampled top neighboring luma samples corresponding to the top neighboring chroma samples and down sampled luma samples of a current luma block; deriving CCLM parameters based on the top neighboring chroma samples and the down sampled top neighboring luma samples; deriving prediction samples for the current chroma block based on the CCLM parameters and the down sampled luma samples of the current luma block; and generating reconstructed samples for the current chroma block based on the prediction samples, wherein the specific value is derived as 2, wherein the width of the current chroma block is N, characterized in that based on 2N being less than or equal to twice the specific value, the sample number of the top neighboring chroma samples is derived as 2N, and based on the 2N being greater than twice the specific value, the sample number of the top neighboring chroma samples is derived as 4.
A method for tuning an oscillator circuit, the method comprising: comparing, with a comparison circuit, an output of a second oscillator circuit with an external clock signal to generate a sampled value; storing the sampled value in a memory; comparing, with a comparison circuit, an output of a first oscillator circuit with an output of the second oscillator circuit to generate a comparison value, the comparison value based on a frequency of the output of the first oscillator circuit and a frequency of the output of the second oscillator circuit; comparing the comparison value with the sampled value stored in memory; providing a tune value to the first oscillator circuit to tune the frequency of the output the first oscillator circuit, wherein the tune value is based on the comparing of the comparison value with the sampled value. comparing, with a comparison circuit, an output of a second oscillator circuit with an external clock signal to generate a sampled value; storing the sampled value in a memory; comparing, with a comparison circuit, an output of a first oscillator circuit with an output of the second oscillator circuit to generate a comparison value, the comparison value based on a frequency of the output of the first oscillator circuit and a frequency of the output of the second oscillator circuit; comparing the comparison value with the sampled value stored in memory; providing a tune value to the first oscillator circuit to tune the frequency of the output the first oscillator circuit, wherein the tune value is based on the comparing of the comparison value with the sampled value.
A process for producing acetic acid comprising: separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream, wherein the reaction medium comprises water in an amount from 0.1 to 4.1 wt.%; distilling the vapor product stream in a first column to obtain a side stream, a low boiling overhead vapor stream comprising water in an amount of greater than or equal to 5 wt.%, and a residuum stream optionally comprising acetic acid in an amount greater than or equal to 95 wt.% and water in an amount less than or equal to 5 wt.%; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; maintaining a water concentration in the side stream from 1 to 3 wt.% and a hydrogen iodide concentration in the side stream in an amount of less than or equal to 50 wppm, based on the total weight of the side stream, by controlling a recycle rate of the light liquid phase to the reactor; and distilling the side stream in a second column to obtain a purified acetic acid product. separating a reaction medium formed in a reactor in a flash vessel to form a liquid recycle and a vapor product stream, wherein the reaction medium comprises water in an amount from 0.1 to 4.1 wt.%; distilling the vapor product stream in a first column to obtain a side stream, a low boiling overhead vapor stream comprising water in an amount of greater than or equal to 5 wt.%, and a residuum stream optionally comprising acetic acid in an amount greater than or equal to 95 wt.% and water in an amount less than or equal to 5 wt.%; condensing the low boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; maintaining a water concentration in the side stream from 1 to 3 wt.% and a hydrogen iodide concentration in the side stream in an amount of less than or equal to 50 wppm, based on the total weight of the side stream, by controlling a recycle rate of the light liquid phase to the reactor; and distilling the side stream in a second column to obtain a purified acetic acid product.
Method for manufacturing an abrasive body, in particular a grinding brush or a grinding stone, comprising the following steps: - providing a pulverulent sinter material, - providing abrasive particles, - producing a mixture of the sinter material and the abrasive particles, - producing a solidified sintered body comprising a carrier section and one or more abrasive sections by means of the repeated melting or sintering of the sinter material layer by layer, wherein the abrasive sections comprise, parallel to the carrier section, a honeycomb structure which comprises an elastic and/or plastic deformability, by means of which the hardness of the abrasive body can be regulated vertically to the plane of the carrier section, or wherein the abrasive sections comprise a web-form or a sponge-form, wherein - the abrasive particles are encapsulated or embedded in or on the solidified sintered body and - the layer by layer melting or sintering is continued until the sintered body assumes the desired shape of the abrasive body. - providing a pulverulent sinter material, - providing abrasive particles, - producing a mixture of the sinter material and the abrasive particles, - producing a solidified sintered body comprising a carrier section and one or more abrasive sections by means of the repeated melting or sintering of the sinter material layer by layer, wherein the abrasive sections comprise, parallel to the carrier section, a honeycomb structure which comprises an elastic and/or plastic deformability, by means of which the hardness of the abrasive body can be regulated vertically to the plane of the carrier section, or - the abrasive particles are encapsulated or embedded in or on the solidified sintered body and - the layer by layer melting or sintering is continued until the sintered body assumes the desired shape of the abrasive body.
A structure that moves at high speed through a fluid, the structure comprising: a first surface area on the structure, the first surface area being positioned on the structure to be a first surface on the structure to move at high speed through a fluid before any other surface of the structure during operation of the structure; and, a plurality of grooves having straight parallel side edges (28, 30) defining width dimensions, rounded first and second edges (24, 26) defining length dimensions and depth dimensions between top openings and opposite bottom surfaces, wherein the plurality of grooves being recessed into the first surface area and being positioned in the first surface area where with the first surface area moving at high speed through the fluid the grooves alter a flow direction of the fluid contacting the grooves and contacting the first surface area and thereby reduce erosion of the first surface area by the fluid, characterised in that a cross-sectional configuration across the length dimension of the grooves has one of the following shapes: rectangular forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves; or square forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves; or semicircular forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves. a first surface area on the structure, the first surface area being positioned on the structure to be a first surface on the structure to move at high speed through a fluid before any other surface of the structure during operation of the structure; and, a plurality of grooves having straight parallel side edges (28, 30) defining width dimensions, rounded first and second edges (24, 26) defining length dimensions and depth dimensions between top openings and opposite bottom surfaces, wherein the plurality of grooves being recessed into the first surface area and being positioned in the first surface area where with the first surface area moving at high speed through the fluid the grooves alter a flow direction of the fluid contacting the grooves and contacting the first surface area and thereby reduce erosion of the first surface area by the fluid, characterised in that a cross-sectional configuration across the length dimension of the grooves has one of the following shapes: rectangular forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves; or square forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves; or semicircular forming an angle of 90° at each of the side edges (28, 30) defining a transition area between the first surface area and the grooves.
A powered banding device comprising: a housing having a feed slot along a top surface; a plurality of gears (134, 136) within the housing and configured to pull a tail end of a band through the feed slot as the plurality of gears (134, 136) rotate; an electric motor coupled to and configured to cause rotation of the plurality of gears (134, 136) to pull the band between the plurality of gears (134, 136); characterized by torque circuitry coupled to the electric motor and configured to calculate a torque using a motor current of the electric motor to determine when to stop rotating the plurality of gears (134, 136); a buckle clamp configured to hold a buckle of the band when pulling the tail end of the band through the housing; a roller slot formed in the housing between the feed slot and the plurality of gears (134, 136), the roller slot having a first horizontal portion and a second downward curved portion; a roller pin within the roller slot; and a cutter blade positioned behind the roller pin within the roller slot; wherein the roller pin is configured to move through the roller slot when the electric motor stops pulling to form a fold in the band as the roller pin moves to an end of the second downward curved portion, and the cutter blade follows the roller pin and cuts the band above the roller pin as the cutter blade extends across the second downward curved portion of the roller slot. a housing having a feed slot along a top surface; a plurality of gears (134, 136) within the housing and configured to pull a tail end of a band through the feed slot as the plurality of gears (134, 136) rotate; an electric motor coupled to and configured to cause rotation of the plurality of gears (134, 136) to pull the band between the plurality of gears (134, 136); characterized by torque circuitry coupled to the electric motor and configured to calculate a torque using a motor current of the electric motor to determine when to stop rotating the plurality of gears (134, 136); a buckle clamp configured to hold a buckle of the band when pulling the tail end of the band through the housing; a roller slot formed in the housing between the feed slot and the plurality of gears (134, 136), the roller slot having a first horizontal portion and a second downward curved portion; a roller pin within the roller slot; and a cutter blade positioned behind the roller pin within the roller slot; wherein the roller pin is configured to move through the roller slot when the electric motor stops pulling to form a fold in the band as the roller pin moves to an end of the second downward curved portion, and the cutter blade follows the roller pin and cuts the band above the roller pin as the cutter blade extends across the second downward curved portion of the roller slot.
Suction conveyor for transporting flat parts, specifically sheets of paper, preferably on the way from a cutting station (20, 24) to a stacking station in a plant of the paper-processing industry, with a suction arrangement comprising a suction side, on which a low pressure is created, and an endlessly rotating, flexible conveyor arrangement consisting of flexible flat material furnished with holes and comprising an inner side, with which the conveyor arrangement on the suction side of the suction arrangement can be moved along, and an external side to receive the flat parts in the operating area of the suction side of the suction arrangement, where the conveyor arrangement moves in the direction of transport, wherein the suction arrangement and the conveyor arrangement are formed such that at least one conveyor track with a width transverse to the direction of transport is defined in the operating area of the suction side of the suction arrangement, wherein the conveyor arrangement is formed by an endlessly rotating, single, one-piece, flexible conveyor, whose two side margins both running in the direction of transport have a distance from each other that is at least as large as the entire width of the conveyor track, such that the single, one-piece, flexible conveyor extends at least over the entire width of the conveyor track, with whose suction conveyor a deflection means to deflect the conveyor arrangement around a deflection axis is provided respectively at an inlet side being positioned upstream and viewed in the direction of transport and at an outlet side being positioned downstream and the suction side of the suction arrangement is located between these two deflection means, characterised by means to produce a curvature being directed towards the external side and running approximately transverse to the direction of transport in the single, one-piece flexible conveyor at least in sections in the operating area of the suction side of the suction arrangement, wherein at least one deflection means comprises a multitude of rolls (42-i, 42-o) running next to one another across the entire width of the conveyor track and substantially transverse to the direction of transport and forming the means to produce the curvature with a rotary axis running transversely or angularly to the direction of transport, wherein the arrangement and formation of the rolls (42-i, 42-o) is made such that the interval at least of one circumferential section of the deflection axis (42-a) of the exterior rolls (42-o) is less than of the interior rolls (42-i).