mhurhangee/ep-ind-claims huggingface dataset:
A method for the controlled and automated dosing and mixing of filiform elements (4, 4') with different features, characterised by: - loading said filiform elements (4, 4') vertically disposed on at least two channels (2, 2') feeding at least two dosing units of a dosing station, - pushing said filiform elements (4, 4') so that they slide along said channels (2, 2') towards their downstream end, which is faced by a respective rotating toothed wheel pertaining to said dosing unit, - causing said rotating toothed wheel of one dosing unit to withdraw a predetermined quantity of said filiform elements (4, 4') from said feed channel (2, 2') and convey it towards an exit channel (36, 38) of said dosing unit until it meets a predetermined quantity of said filiform elements (4, 4') originating from the other feed channel (2, 2') and withdrawn from the toothed wheel of the other dosing unit, to form a single stream of different filiform elements (4, 4') which is made to advance along a single channel, - striking said single stream of said filiform elements (4, 4') advancing along said channel with opposing transverse jets of compressed air to hence cause mixing of said different types of filiform elements (4, 4'). - loading said filiform elements (4, 4') vertically disposed on at least two channels (2, 2') feeding at least two dosing units of a dosing station, - pushing said filiform elements (4, 4') so that they slide along said channels (2, 2') towards their downstream end, which is faced by a respective rotating toothed wheel pertaining to said dosing unit, - causing said rotating toothed wheel of one dosing unit to withdraw a predetermined quantity of said filiform elements (4, 4') from said feed channel (2, 2') and convey it towards an exit channel (36, 38) of said dosing unit until it meets a predetermined quantity of said filiform elements (4, 4') originating from the other feed channel (2, 2') and withdrawn from the toothed wheel of the other dosing unit, to form a single stream of different filiform elements (4, 4') which is made to advance along a single channel, - striking said single stream of said filiform elements (4, 4') advancing along said channel with opposing transverse jets of compressed air to hence cause mixing of said different types of filiform elements (4, 4').
A lubricant oil pouring structure for an internal combustion engine employed in a cylinder head cover including a head cover body, the structure comprising: a pouring pipe, which projects upward from the head cover body and has a pouring port for lubricant oil at an upper end of the pouring pipe, wherein a filler cap is detachably attached to the pouring pipe from above such that the pouring port is selectively closed and opened; and an outer wall, which is arranged between an outer circumferential surface of the pouring pipe and the head cover body and surrounds at least part in a circumferential direction of the outer circumferential surface of the pouring pipe with a hollow portion in between, wherein at least part of a lower end of the pouring pipe and at least part of a lower end of the hollow portion are open to an internal space of the head cover body, the lubricant oil pouring structure for the engine being characterized in that a communicating portion, which allows communication between an internal space of the pouring pipe and the hollow portion, is formed in at least a lower portion of a section of the pouring pipe that is surrounded by the outer wall. a pouring pipe, which projects upward from the head cover body and has a pouring port for lubricant oil at an upper end of the pouring pipe, wherein a filler cap is detachably attached to the pouring pipe from above such that the pouring port is selectively closed and opened; and an outer wall, which is arranged between an outer circumferential surface of the pouring pipe and the head cover body and surrounds at least part in a circumferential direction of the outer circumferential surface of the pouring pipe with a hollow portion in between, wherein at least part of a lower end of the pouring pipe and at least part of a lower end of the hollow portion are open to an internal space of the head cover body, the lubricant oil pouring structure for the engine being characterized in that a communicating portion, which allows communication between an internal space of the pouring pipe and the hollow portion, is formed in at least a lower portion of a section of the pouring pipe that is surrounded by the outer wall.
A screening device for a pivot window comprising an openable sash, comprising a top element defining a first longitudinal direction and two side rails (13, 14) extending at right angles to the top element in a second longitudinal direction, each of said side rails being connected to the top element in a hinge connection between the respective side rail and the top element at the top element, each side rail being formed in one piece that remains straight during the opening movement of the sash, whereby the hinge connection is provided by a set of hinge parts (30, 50) having mutually cooperating engagement surfaces allowing positive engagement between the hinge parts (30, 50) in a predefined angle interval, and in that the engagement between the mutually cooperating engagement surfaces is releasable outside said predefined angle interval.
Filler composition comprising a) a filler, b) a cationic organic compound which is a cationic organic polymer having a weight average molecular weight up to 700,000 and a charge density at least 1 meq/g, and c) an anionic polysaccharide, wherein the filler is present in an amount of at least 1 % by weight, based on the total weight of the composition, the cationic organic compound is present in an amount of up to 30 kg/ton, based on the weight of filler, and the anionic polysaccharide has a degree of substitution of net anionic groups of up to 0.50. a) a filler, b) a cationic organic compound which is a cationic organic polymer having a weight average molecular weight up to 700,000 and a charge density at least 1 meq/g, and c) an anionic polysaccharide,
A method of forming an isosorbide-containing polycarbonate composition, the method comprising the steps of: combining a polycarbonate comprising repeat units derived from isosorbide with a polycarbonate-property-modifying additive to form a polycarbonate composition, adding a pH stabilizing agent to the polycarbonate composition to form a pH stabilized polycarbonate composition wherein the pH stabilizing agent is added to the polycarbonate composition in an amount such that a sample of the pH stabilized polycarbonate composition dissolved in dichloromethane forms a 10 wt% polycarbonate composition solution which has a non-aqueous pH that is in a range of equal to or between 0.8 below and 0.5 above the non-aqueous pH of dichloromethane, thereby forming an isosorbide-containing polycarbonate composition, and wherein the polycarbonate-property-modifying additive is present in an amount of 0.1 wt% to 20.0 wt% based on the total composition. combining a polycarbonate comprising repeat units derived from isosorbide with a polycarbonate-property-modifying additive to form a polycarbonate composition, adding a pH stabilizing agent to the polycarbonate composition to form a pH stabilized polycarbonate composition wherein the pH stabilizing agent is added to the polycarbonate composition in an amount such that a sample of the pH stabilized polycarbonate composition dissolved in dichloromethane forms a 10 wt% polycarbonate composition solution which has a non-aqueous pH that is in a range of equal to or between 0.8 below and 0.5 above the non-aqueous pH of dichloromethane, thereby forming an isosorbide-containing polycarbonate composition,
A flat light emitting diode lighting device comprising: a flat LED light source having a plurality of LED devices, a diffuser to scatter a light from the plurality of LED devices, the diffuser spaced apart from the plurality of LED devices; a glare preventive member for preventing a side glare, the glare preventive member including a transparent plate and a plurality of micro-lenses on the transparent plate for changing a distribution of the light; and an air gap provided between the diffuser and the transparent plate, characterized in that the plurality of micro-lenses is coupled to the transparent plate by UV resin, wherein the diffuser has a refractive index greater than the refractive index of the air, and wherein the transparent plate has a refractive index greater than the refractive index of the air to guide the light from the diffuser to the plurality of micro-lenses. a flat LED light source having a plurality of LED devices, a diffuser to scatter a light from the plurality of LED devices, the diffuser spaced apart from the plurality of LED devices; a glare preventive member for preventing a side glare, the glare preventive member including a transparent plate and a plurality of micro-lenses on the transparent plate for changing a distribution of the light; and an air gap provided between the diffuser and the transparent plate, characterized in that the plurality of micro-lenses is coupled to the transparent plate by UV resin, wherein the diffuser has a refractive index greater than the refractive index of the air, and wherein the transparent plate has a refractive index greater than the refractive index of the air to guide the light from the diffuser to the plurality of micro-lenses.
A device comprising: an input for receiving image data captured by a camera, the image data comprising an image of a light source; a coded light detection module for detecting a coded light signal modulated into the light from the light source, configured to retrieve one or more physical dimensions of the light source based on the coded light signal from said light source; and an image analysis module configured to determine a distance of the camera from the light source, by performing a geometric perspective calculation to compare the one or more retrieved physical dimensions with one or more apparent dimensions of the image of the light source. an input for receiving image data captured by a camera, the image data comprising an image of a light source; a coded light detection module for detecting a coded light signal modulated into the light from the light source, configured to retrieve one or more physical dimensions of the light source based on the coded light signal from said light source; and an image analysis module configured to determine a distance of the camera from the light source, by performing a geometric perspective calculation to compare the one or more retrieved physical dimensions with one or more apparent dimensions of the image of the light source.
Method for controlling a hydraulic drive of a pressing bar and a drive of a cutter bar of a cutting machine such as a paper cutting machine, where in a hydraulic pressing circuit a fluid such as oil is supplied into a circuit by means of a first pump via a first press valve and via a second press valve connected in parallel to said first press valve and where in a hydraulic cutting circuit a fluid such as oil is supplied into a circuit by means of a second pump via a first coupling valve and via a second coupling valve connected parallel to said first coupling valve, where to start a pressing cycle the first press valve and the second press valve are activated in order to generate a pressing power inside a compression area of the hydraulic drive to drive the pressing bar, and where to start a cutting cycle the coupling valves (Y50, Y51) are activated in order to generate a pressing power inside a hydraulic coupling cylinder coupled to the drive of the cutter bar, wherein to start the pressing cycle the first and the second press valves (Y60, Y61), and earlier the first or the second coupling valve (Y50, Y51), are activated; to start the cutting cycle the second or first coupling valve (Y51, Y50) is activated to initiate the movement of the cutter bar additionally to the already activated first or second coupling valve (Y50, Y51); to end the pressing/cutting cycle the first or second press valve (Y60, Y61) and the first and second cutting valves (Y50, Y51) are switched off; the second or first press valve (Y61, Y60) is switched off with a time-lag relative to the switch-off time of the first or second press valve (Y60, Y61); during a test cycle in which only one of the press valves (Y60, Y61) or coupling valves (Y50, Y51) is activated the occurrence or non-occurrence of an expected reaction is monitored; and if the expected reaction does not happen a hazardous movement of the pressing bar or of the cutter bar or its continuation is prevented by the use of the other press valve (Y60, Y61) or coupling valve (Y50, Y51) respectively.
A gasket for providing electrical connectivity between a substrate and a connector having a plurality of pins extending from a mounting surface, the gasket comprising: a deformable contact region configured to provide compressive contact between the mounting surface of the connector and a grounded surface of the substrate; a fastener region extending from the deformable contact region and configured to align with a mounting region of the connector; a keep-out zone adjacent to the deformable contact region or the fastener region, the keep-out zone configured to allow the pins of the connector to pass therethrough. a deformable contact region configured to provide compressive contact between the mounting surface of the connector and a grounded surface of the substrate; a fastener region extending from the deformable contact region and configured to align with a mounting region of the connector; a keep-out zone adjacent to the deformable contact region or the fastener region, the keep-out zone configured to allow the pins of the connector to pass therethrough.
Electrically rechargeable redox flow battery having a first chamber and a second chamber, wherein the first chamber is separated from the second chamber by means of a membrane, wherein the first chamber comprises a cathode and the second chamber comprises an anode and wherein a first planar surface of the cathode and/or a second planar surface of the anode has raised regions to enlarge the surface area and these raised regions are suitable for forming flow channels for a first and/or second electrolyte of the redox flow battery, wherein the cathode and/or the anode comprise at least one first material comprising lead or bismuth, wherein the first material comprises lead or bismuth in a proportion by weight of at least 20%.
A wound drainage device flow control apparatus, the wound drainage device for withdrawing fluid from a wound including a conduit (22,66) to be connected at one end to a wound to receive fluid from the wound and to deliver said fluid to a container (10,62), the wound drainage device flow control apparatus, in use, to selectively provide communication between the conduit and container, including a valve arranged to establish communication between the conduit and the container in response to a level of vacuum in said conduit below a selected value, the valve including a diaphragm exposed to atmospheric pressure on one side and to the level of vacuum in the conduit on the other side, and an adjustable force means arranged to apply a force to the diaphragm in opposition to the atmospheric pressure, the difference between the force applied by the adjustable force means and the force generated by the atmospheric pressure providing a control force required to be applied by the level of vacuum in the conduit to close the valve to interrupt communication between the container and the conduit, and characterised in that a lock mechanism is arranged to lock the adjustable force means at a desired adjustment corresponding to a desired level of vacuum, and that the adjustable force means includes a rotatable member and has a number of lock member engagement portions for a lock member of the lock mechanism to engage one or more thereof and prevent adjustment once so engaged.
A computer-implemented blood pressure estimating method comprising: measuring (410, 510) a biosignal comprising pulse wave information of a user; determining a signal quality of the biosignal; determining whether a calibration is needed for a blood pressure estimation model based on the signal quality of the biosignal; if it is determined that a calibration is needed for the blood pressure estimation model, determining (440, 550) a calibration method for the blood pressure estimation model, the calibration method being one of a first calibration method for calibrating the blood pressure estimation model based on a blood pressure value measured using a cuff, and a second calibration method for measuring another biosignal and calibrating the blood pressure estimation model based on the measured other biosignal, wherein a type of the other biosignal is different form a type of the biosignal, the second calibration method having a lower level of calibration accuracy and requiring less time for the calibration than the first calibration method, wherein the first calibration method is determined to be used when the signal quality of the biosignal is less than or equal to a predetermined threshold and the second calibration method is determined to be used otherwise; calibrating (450, 560) the blood pressure estimation model using the determined calibration method; and estimating (460, 570) a blood pressure of the user from the biosignal using the calibrated blood pressure estimation model. measuring (410, 510) a biosignal comprising pulse wave information of a user; determining a signal quality of the biosignal; determining whether a calibration is needed for a blood pressure estimation model based on the signal quality of the biosignal; if it is determined that a calibration is needed for the blood pressure estimation model, determining (440, 550) a calibration method for the blood pressure estimation model, the calibration method being one of a first calibration method for calibrating the blood pressure estimation model based on a blood pressure value measured using a cuff, and a second calibration method for measuring another biosignal and calibrating the blood pressure estimation model based on the measured other biosignal, wherein a type of the other biosignal is different form a type of the biosignal, the second calibration method having a lower level of calibration accuracy and requiring less time for the calibration than the first calibration method, wherein the first calibration method is determined to be used when the signal quality of the biosignal is less than or equal to a predetermined threshold and the second calibration method is determined to be used otherwise; calibrating (450, 560) the blood pressure estimation model using the determined calibration method; and estimating (460, 570) a blood pressure of the user from the biosignal using the calibrated blood pressure estimation model.
A method performed by a communication device, said communication device being arranged to operate in a cellular communication system, the method comprising determining (2, 802) interference mitigation capabilities for control symbols; transmitting information about the determined interference mitigation capabilities to a network node of the cellular communication system, wherein the information includes an identification of at least one interference mitigation algorithm that the communication device is able to use; receiving one or more control symbols from a network node operating a cell of the cellular communication system and serving the communication device; determining an interference situation for the control symbol based on whether the one or more control symbols, or one or more resource elements, REs, used by reference signal collide in time or frequency with control signals, or REs used by reference signal in one or more neighbouring interfering cells; selecting an interference mitigation algorithm based on the determined interference situation; and performing the selected interference mitigation algorithm for the received one or more control symbols. determining (2, 802) interference mitigation capabilities for control symbols; transmitting information about the determined interference mitigation capabilities to a network node of the cellular communication system, wherein the information includes an identification of at least one interference mitigation algorithm that the communication device is able to use; receiving one or more control symbols from a network node operating a cell of the cellular communication system and serving the communication device; determining an interference situation for the control symbol based on whether the one or more control symbols, or one or more resource elements, REs, used by reference signal collide in time or frequency with control signals, or REs used by reference signal in one or more neighbouring interfering cells; selecting an interference mitigation algorithm based on the determined interference situation; and performing the selected interference mitigation algorithm for the received one or more control symbols.
A composition for forming a conductive pattern by electromagnetic wave irradiation, comprising polymer resin; and a non-conductive metal compound comprising a compound represented by the following Chemical Formula 1, wherein metal nuclei are formed from the non-conductive metal compound by the electromagnetic wave irradiation: [Chemical Formula 1] Cu 3-x M x P 2 O 8 in the Chemical Formula 1, M is Zn, and x is a rational number of more than 0 and less than 3.
A reactor vessel comprising: an upper inlet and a bottom discharge; a generally vertically oriented sidewall between the upper inlet and bottom discharge, wherein the sidewall defines a perimeter of an interior flow passage in the vessel; and at least two pairs of support plates, including - a first pair of support plates mounted to an interior surface of the sidewall, and - a second pair of support plates mounted to the interior surface of the side wall, wherein the second pair of support plates is at a different elevation of the vessel than the first pair of support plates in a longitudinal direction of the reactor vessel, characterized in that the first pair of support plates is mounted to the interior surface of the sidewall so as to be arranged opposite each other, and reduces a cross-sectional flow area of the flow passage in a first single direction of convergence, and the second pair of support plates is mounted to the interior surface of the side wall so as to be arranged opposite each other, and reduces a cross-sectional flow area of the flow passage in a second single direction of convergence which is angularly offset to the first single direction of convergence. an upper inlet and a bottom discharge; a generally vertically oriented sidewall between the upper inlet and bottom discharge, wherein the sidewall defines a perimeter of an interior flow passage in the vessel; and at least two pairs of support plates, including - a first pair of support plates mounted to an interior surface of the sidewall, and - a second pair of support plates mounted to the interior surface of the side wall, wherein the second pair of support plates is at a different elevation of the vessel than the first pair of support plates in a longitudinal direction of the reactor vessel, - a first pair of support plates mounted to an interior surface of the sidewall, and - a second pair of support plates mounted to the interior surface of the side wall, wherein the second pair of support plates is at a different elevation of the vessel than the first pair of support plates in a longitudinal direction of the reactor vessel, the first pair of support plates is mounted to the interior surface of the sidewall so as to be arranged opposite each other, and reduces a cross-sectional flow area of the flow passage in a first single direction of convergence, and the second pair of support plates is mounted to the interior surface of the side wall so as to be arranged opposite each other, and reduces a cross-sectional flow area of the flow passage in a second single direction of convergence which is angularly offset to the first single direction of convergence.