mhurhangee/ep-ind-claims huggingface dataset:
Method for the online determination of the viscosity of a polymer during processing, especially extrusion, in a pasty to liquid form, - wherein for the online determination of the viscosity of the polymer at least one batch, preferably a number of batches following one another at time intervals, is diverted from the polymer being processed by an extraction unit and conveyed to the measurement volume of a measuring unit, - wherein a specified volume of the respective batch is expelled from the measurement volume by subjecting the batch to a predetermined pressure through a measuring nozzle formed in the measuring unit, optionally with a piston to which a predetermined force, preferably a constant force, is applied, - wherein the time required for expelling the specified volume of the batch through the measuring nozzle is measured, and - wherein before the measurement volume is filled with the polymer to be measured, the measurement volume and optionally also the feed line for the polymer into the measurement volume is flushed at least once with a quantity of the polymer to be processed, characterised in that - the measured value determined for calculating the viscosity of the polymer is used, and - the polymer used for flushing is diverted from the measurement volume via a discharge channel connected to the measurement volume, wherein the orifice of the extraction unit formed by a pipeline and the orifice of the discharge channel are arranged at opposite ends of the measurement volume. - wherein for the online determination of the viscosity of the polymer at least one batch, preferably a number of batches following one another at time intervals, is diverted from the polymer being processed by an extraction unit and conveyed to the measurement volume of a measuring unit, - wherein a specified volume of the respective batch is expelled from the measurement volume by subjecting the batch to a predetermined pressure through a measuring nozzle formed in the measuring unit, optionally with a piston to which a predetermined force, preferably a constant force, is applied, - wherein the time required for expelling the specified volume of the batch through the measuring nozzle is measured, and - wherein before the measurement volume is filled with the polymer to be measured, the measurement volume and optionally also the feed line for the polymer into the measurement volume is flushed at least once with a quantity of the polymer to be processed, characterised in that - the measured value determined for calculating the viscosity of the polymer is used, and - the polymer used for flushing is diverted from the measurement volume via a discharge channel connected to the measurement volume, wherein the orifice of the extraction unit formed by a pipeline and the orifice of the discharge channel are arranged at opposite ends of the measurement volume.
A method for collecting particles likely to be present in an aerosol, comprising the following steps: - sucking (18, 42) the aerosol through a conduit from its inlet orifice to its outlet orifice; - charging the finest particles, downstream of the inlet orifice, by unipolar ion diffusion in a space between an electrode in the form of a gate surrounding an electrode in the form of a wire generating a corona effect, and a first conductive portion of the internal wall of the conduit; - generating an electric field without a corona effect in the space between an electrode and a second conductive portion of the internal wall of the conduit, in order to collect the finest particles charged by the diffusion charger by deposition onto a first collection zone (Zn); - generating an electric field with a corona effect in the space between the wire or the point of an electrode and a third conductive portion (34, 6) of the internal wall of the conduit, in order to collect the biggest particles not charged by the diffusion charger by deposition onto a second collection zone (Zm) distinct from the first collection zone. - sucking (18, 42) the aerosol through a conduit from its inlet orifice to its outlet orifice; - charging the finest particles, downstream of the inlet orifice, by unipolar ion diffusion in a space between an electrode in the form of a gate surrounding an electrode in the form of a wire generating a corona effect, and a first conductive portion of the internal wall of the conduit; - generating an electric field without a corona effect in the space between an electrode and a second conductive portion of the internal wall of the conduit, in order to collect the finest particles charged by the diffusion charger by deposition onto a first collection zone (Zn); - generating an electric field with a corona effect in the space between the wire or the point of an electrode and a third conductive portion (34, 6) of the internal wall of the conduit, in order to collect the biggest particles not charged by the diffusion charger by deposition onto a second collection zone (Zm) distinct from the first collection zone.
An energy dissipator comprising at least one generally loop-shaped tubular element presenting a first and a second ends (3, 4) connected to each other via a connecting element, the tubular element being intended for the passage of a cable and arranged so that a portion of the tensile energy of the cable is dissipated by deformation of the tubular element when the cable is pulled, characterized in that the first and second ends (3, 4) of the tubular element are fastened to the connecting element, so that the tubular element is deformed in an accordion pattern by buckling when the cable, intended to pass within this element, is pulled.
A method of providing augmented control of a power machine (100; 200; 300; 600), the method comprising: identifying a localized positioning system environment using a localization controller in communication with a tag device on the power machine, wherein identifying the localized positioning system environment further comprises identifying whether the power machine has entered into, or is entering into, the localized positioning system environment and automatically stopping use of a global positioning system for navigation while both satellite positioning signals and localized positioning signals are simultaneously available; identifying a current relative position of the power machine within the localized positioning system environment using the localization controller; identifying a desired destination position within the localized positioning system environment; identifying obstacles (620; 622; 624) within the localized positioning system environment; creating a power machine path from the current relative position to the desired destination position based in part upon the identified obstacles; and using an augmented operation controller to at least partially autonomously control the power machine to drive along the created power machine path from the current relative position to the desired destination position. identifying a localized positioning system environment using a localization controller in communication with a tag device on the power machine, wherein identifying the localized positioning system environment further comprises identifying whether the power machine has entered into, or is entering into, the localized positioning system environment and automatically stopping use of a global positioning system for navigation while both satellite positioning signals and localized positioning signals are simultaneously available; identifying a current relative position of the power machine within the localized positioning system environment using the localization controller; identifying a desired destination position within the localized positioning system environment; identifying obstacles (620; 622; 624) within the localized positioning system environment; creating a power machine path from the current relative position to the desired destination position based in part upon the identified obstacles; and using an augmented operation controller to at least partially autonomously control the power machine to drive along the created power machine path from the current relative position to the desired destination position.
Hooding machine for an object, comprising a fitting unit which is able to fit a hood of heat-shrinkable film with its open end over an object positioned in a hooding zone of the machine, air blowing nozzles being present for blowing air into the hood at least during the action of the fitting wherein the fitting unit comprises grippers for gripping the edge of the said open end of the hood, the blowing nozzles being directly arranged on these grippers unit, characterized in that the air flow directed towards the blowing nozzles also flows into the grippers for cooling the grippers.
Method for controlling an electric discharge machining process, wherein a tool electrode is moved relatively to a workpiece with a working gap distance, wherein the process comprises a current and at least one previous erosion cycle, the current and the previous erosion cycle each being divided into predetermined time intervals each comprising at least one discharge pulse, wherein similar working gap conditions are present within a time interval of the previous erosion cycle and of the current erosion cycle, characterised in that subsequent erosion cycles are separated by a process pause cycle to restore the working gap conditions, the method comprising the steps of: - measuring a value of a significant process parameter within a time interval of the previous erosion cycle, the significant process parameter being indicative of the working gap distance; - determining a deviation value based on the measured value and a desired value of the significant process parameter of the time interval of the previous erosion cycle; and - in the current erosion cycle, controlling the relative movement of the tool electrode in the erosion direction within the time interval of the current erosion cycle based on the deviation value determined for the time interval of the previous erosion cycle and at least one instantaneous process parameter being indicative of the instantaneous process conditions. - measuring a value of a significant process parameter within a time interval of the previous erosion cycle, the significant process parameter being indicative of the working gap distance; - determining a deviation value based on the measured value and a desired value of the significant process parameter of the time interval of the previous erosion cycle; and - in the current erosion cycle, controlling the relative movement of the tool electrode in the erosion direction within the time interval of the current erosion cycle based on the deviation value determined for the time interval of the previous erosion cycle and at least one instantaneous process parameter being indicative of the instantaneous process conditions.
An image projector, comprising: a light source unit configured to emit light; a holder having a first surface and a second surface, wherein the second surface extends toward a side of the light source unit; a first power source board attached to the first surface, the first power source board facing in a direction of the light source unit; a second power source board, the second power source board facing in a direction of the second surface; an air inlet; an exhaust outlet; a fan configured to cause air flow between the air inlet and the exhaust outlet, wherein the first surface and the second surface are arranged in an L-shape, the surface of the second power source board is perpendicular to the surface of the first power source board; wherein the first power source board, the second surface and the second power source board are mutually arranged to form three surfaces of a flow path between the air inlet and the exhaust outlet. a light source unit configured to emit light; a holder having a first surface and a second surface, wherein the second surface extends toward a side of the light source unit; a first power source board attached to the first surface, the first power source board facing in a direction of the light source unit; a second power source board, the second power source board facing in a direction of the second surface; an air inlet; an exhaust outlet; a fan configured to cause air flow between the air inlet and the exhaust outlet, wherein the first surface and the second surface are arranged in an L-shape, the surface of the second power source board is perpendicular to the surface of the first power source board; wherein the first power source board, the second surface and the second power source board are mutually arranged to form three surfaces of a flow path between the air inlet and the exhaust outlet.
A control device allocated to a charging station for charging a vehicle, wherein the control device comprises: - an interface to the vehicle, configured to receive a vehicle-side proof of authorization (JCRED1); - a near-field communication interface, configured for exchanging a terminal-side proof of authorization (JCRED2) with a mobile terminal device; - an allocation unit for establishing a control link with the mobile terminal device via the near-field communication interface after receiving the vehicle-side or the terminal-side proof of authorization (JCRED1; JCRED2) and for allocating the charging station to the vehicle after receipt and positive verification of both proofs of authorization (JCRED1;JCRED2). - an interface to the vehicle, configured to receive a vehicle-side proof of authorization (JCRED1); - a near-field communication interface, configured for exchanging a terminal-side proof of authorization (JCRED2) with a mobile terminal device; - an allocation unit for establishing a control link with the mobile terminal device via the near-field communication interface after receiving the vehicle-side or the terminal-side proof of authorization (JCRED1; JCRED2) and for allocating the charging station to the vehicle after receipt and positive verification of both proofs of authorization (JCRED1;JCRED2).
A filter element including a ring of filtration media circumscribing a central axis and defining a cavity, and an end cap at an end of the media ring; the end cap including a body defining an opening into the cavity and having a distal outer end with a non-planar geometry, and further including a sealing member along a radially outer surface of the body, the sealing member also having a non-planar geometry around the distal end of the end cap body, characterised in that the distal outer end of the end cap body has an undulating and repeating axial amplitude around the body.
Method for the automatic control of a manufacturing system of discrete manufacturing and semiprocess manufacturing, comprising the following method steps: - Acquisition of sensor data during operation of the manufacturing system - Classification of the acquired sensor data by pre-processing the acquired sensor data and, based on this, calculating a processing window with TARGET process points, each of which represents a set of process values, the application of which can produce without errors, for error-free operation of the manufacturing system, - Determining an adjustment data set as a command variable for the manufacturing system by creating test plans with probable command variables and calculating associated process values in a simulation model, which are compared with the process values of the respective previously calculated TARGET process points of the processing window and by improving the command variables step by step until the calculated associated process points are in the processing window and close to the respective calculated TARGET process points, characterized in that a material flow in the manufacturing system is controlled, wherein produced quantities are detected at machines, work stations and/or during a transport and wherein the material flow is controlled by the determined adjustment data set, comprising run times at work stations and an allocation of resources, and that the stepwise improvement of the command variables is performed according to the rule "steepest ascent". - Acquisition of sensor data during operation of the manufacturing system - Classification of the acquired sensor data by pre-processing the acquired sensor data and, based on this, calculating a processing window with TARGET process points, each of which represents a set of process values, the application of which can produce without errors, for error-free operation of the manufacturing system, - Determining an adjustment data set as a command variable for the manufacturing system by creating test plans with probable command variables and calculating associated process values in a simulation model, which are compared with the process values of the respective previously calculated TARGET process points of the processing window and by improving the command variables step by step until the calculated associated process points are in the processing window and close to the respective calculated TARGET process points,
A display device, comprising: a substrate; a display region disposed over the substrate and comprising a plurality of subpixels; and a data pad part disposed in regions other than the display region, wherein the data pad part comprises: a data signal line extended from the display region; an insulating film disposed on the data signal line and insulating the data signal line, wherein the insulating film includes a via hole which partially exposes the data signal line; a data pad electrode disposed on the insulating film and connected to the data signal line through the via hole; and an insulating pattern configured to cover the via hole, characterized in that the data pad electrode includes at least one electrode hole, the at least one electrode hole exposes the insulating film which is disposed under the data pad electrode, at least part of the at least one electrode hole overlaps the insulating pattern, and the insulating pattern comes into contact with the insulating film through the at least one electrode hole. a substrate; a display region disposed over the substrate and comprising a plurality of subpixels; and a data pad part disposed in regions other than the display region, wherein the data pad part comprises: a data signal line extended from the display region; an insulating film disposed on the data signal line and insulating the data signal line, wherein the insulating film includes a via hole which partially exposes the data signal line; a data pad electrode disposed on the insulating film and connected to the data signal line through the via hole; and an insulating pattern configured to cover the via hole, characterized in that the data pad electrode includes at least one electrode hole, the at least one electrode hole exposes the insulating film which is disposed under the data pad electrode, at least part of the at least one electrode hole overlaps the insulating pattern, and the insulating pattern comes into contact with the insulating film through the at least one electrode hole. a data signal line extended from the display region; an insulating film disposed on the data signal line and insulating the data signal line, wherein the insulating film includes a via hole which partially exposes the data signal line; a data pad electrode disposed on the insulating film and connected to the data signal line through the via hole; and an insulating pattern configured to cover the via hole, characterized in that the data pad electrode includes at least one electrode hole, the at least one electrode hole exposes the insulating film which is disposed under the data pad electrode, at least part of the at least one electrode hole overlaps the insulating pattern, and the insulating pattern comes into contact with the insulating film through the at least one electrode hole.
An impact beam for reinforcing a vehicle door, the impact beam comprising: an elongated beam having a hollow interior spanning a length of the elongated beam and an impact portion spanning the length and configured to face an exterior side of the vehicle door; wherein the elongated beam includes a cross-sectional shape having a top wall section and a bottom wall section that interconnect at a bend section of the cross-sectional shape that includes the impact portion; and wherein the top and bottom wall sections (22, 24) each include an intermediate bend to define a horizontal or planar section and an angled section on opposing sides of the intermediate bend, the intermediate bends configured to prevent inward displacement of the elongated beam from an impact force at the exterior side of the vehicle door, characterized in that the horizontal or planar sections are spaced from each other and are parallel relative to each other, wherein the bend section is rounded and includes an inside radius greater than or equal to four times a thickness of a metal sheet that forms the elongated beam. an elongated beam having a hollow interior spanning a length of the elongated beam and an impact portion spanning the length and configured to face an exterior side of the vehicle door; wherein the elongated beam includes a cross-sectional shape having a top wall section and a bottom wall section that interconnect at a bend section of the cross-sectional shape that includes the impact portion; and wherein the top and bottom wall sections (22, 24) each include an intermediate bend to define a horizontal or planar section and an angled section on opposing sides of the intermediate bend, the intermediate bends configured to prevent inward displacement of the elongated beam from an impact force at the exterior side of the vehicle door, characterized in that the horizontal or planar sections are spaced from each other and are parallel relative to each other, wherein the bend section is rounded and includes an inside radius greater than or equal to four times a thickness of a metal sheet that forms the elongated beam.