mhurhangee/patent-ind-claim-en huggingface dataset:
A fusing device comprising a melting cell , arranged for melting polymeric resins to be treated, such as for example glues; a first supply conduit arranged to contain and guide towards said melting cell said polymeric resin with a first size, for example a polymeric resin in small pieces, tiles or cylinders; a second supply conduit arranged to contain and guide towards said melting cell said polymeric resins with a second size, which is substantially smaller than said first size, for example a granular polymeric resin; and an actuator , such as, for example, a piston or another pressing device actuated by a pneumatic or hydraulic cylinder, to press and force the polymeric resin to be melted in the first and/or in the second supply conduit; said melting cell comprising a plurality of casing pieces which together form a melting duct which defines a central longitudinal axis (ACF) and along which the polymeric resin to be treated is melted, wherein each casing piece forms a portion of the inner walls of said melting duct ; wherein the fusing device is equipped with a fastening system designed to allow the reversible disassembly and reassembly of the melting duct , by separating and re-joining together two or more of the casing pieces rotating them about an axis of rotation (ARB1) substantially parallel or transversal to said central longitudinal axis (ACF); said fastening system thereby allowing the separation, cleaning and reassembly together of the two or more casing pieces while keeping them always fixed to each other and to the rest of the fusing device ; wherein one first casing piece is provided with one or more thermo-electric resistors or other heating elements , which are arranged for heating said melting cell and for melting the polymeric resin inside a first portion of said melting duct ; said first casing piece being configured to rotate about said axis of rotation (ARB1) with respect to one second casing piece placed downstream of the first casing piece to allow the separation, cleaning and reassembly together of the first and second casing pieces while keeping them always fixed to each other and to the rest of the fusing device , said second casing piece defining a second portion of the melting duct with a conical or truncated conical shape , and said first casing piece having hopper-like portions , internally shaped as a cone, which end downstream in through holes having a smaller through section.
A lighting apparatus , comprising: a first substrate including a plurality of pixels (P); an organic light emitting diode disposed in each of the plurality of pixels of the first substrate and including a first electrode , an organic light emitting layer , and a second electrode ; a plurality of conductive patterns disposed in each of the plurality of pixels and electrically connected to the first electrode; and an auxiliary electrode disposed on the first substrate and connected to the first electrode , wherein the auxiliary electrode is arranged to divide the first substrate into the plurality of pixels (P); wherein the first electrode is made of a transparent conductive material, the first electrode having a resistance of at least half of that of the organic light emitting layer in each pixel, and wherein the first electrode has a high resistance and each conductive pattern of the plurality of conductive patterns has a low resistance. a first substrate including a plurality of pixels (P); an organic light emitting diode disposed in each of the plurality of pixels of the first substrate and including a first electrode , an organic light emitting layer , and a second electrode ; a plurality of conductive patterns disposed in each of the plurality of pixels and electrically connected to the first electrode; and an auxiliary electrode disposed on the first substrate and connected to the first electrode , wherein the auxiliary electrode is arranged to divide the first substrate into the plurality of pixels (P); wherein the first electrode is made of a transparent conductive material, the first electrode having a resistance of at least half of that of the organic light emitting layer in each pixel, and wherein the first electrode has a high resistance and each conductive pattern of the plurality of conductive patterns has a low resistance.
A fill level measuring device, which operates according to a transit time method and emits electromagnetic or acoustic waves in the direction of a filling material surface for determining the position of a fill level, of a filling material and/or of an interface between two filling materials in a container, with the fill level measuring device comprising: an echo-curve acquisition device for acquiring a plurality of echo curves; an echo identification device for identifying at least two echoes in at least two echo curves; a speed determination device for determining speed values of the at least two echoes, wherein the speed value of an echo can be determined from a position shift of the echo between two different measuring cycles of the fill level measuring device; characterized in that the fill level measuring device further comprises a device for automatically calculating a length of a dome shaft of a dom, which is arranged at the apex of the container, with the use of the determined speed value of a filling material echo and an echo of a multiple reflection from the filling material surface, the container height of the container, with the use of the determined speed values of the filling material echo and a bottom echo of the container bottom, or the product of the permeability value of the filling material and the permittivity value of the filling material, with the use of the determined speed values of the filling material echo and the bottom echo. an echo-curve acquisition device for acquiring a plurality of echo curves; an echo identification device for identifying at least two echoes in at least two echo curves; a speed determination device for determining speed values of the at least two echoes, wherein the speed value of an echo can be determined from a position shift of the echo between two different measuring cycles of the fill level measuring device; characterized in that the fill level measuring device further comprises a device for automatically calculating a length of a dome shaft of a dom, which is arranged at the apex of the container, with the use of the determined speed value of a filling material echo and an echo of a multiple reflection from the filling material surface, the container height of the container, with the use of the determined speed values of the filling material echo and a bottom echo of the container bottom, or the product of the permeability value of the filling material and the permittivity value of the filling material, with the use of the determined speed values of the filling material echo and the bottom echo.
An assembly for press forming a deformable material including: a first die array including a plurality of dies , the first die array defining a first die profile; a second die array that is complementary with the first die array and including a plurality of dies , the second die array defining a second die profile that is complementary with the first die profile; and a first drive for driving the first die array and a second drive for driving the second die array ; characterized in that in use the plurality of dies of the first die array and the plurality of dies of the second die array sequentially engage the deformable material along a processing length to deform the deformable material to a predetermined profile , wherein the first die array includes a preliminary set of dies and a secondary set of dies, the preliminary set of dies and the secondary set of dies sequentially engaging the deformable material along the processing length in use, wherein the preliminary set of dies includes odd numbered dies within the first die array and the secondary set of dies includes even numbered dies within the first die array , and wherein the odd numbered dies and even numbered dies of the first die array are separately driven by the first drive means to provide sequential operation between the odd numbered dies and the even numbered dies. a first die array including a plurality of dies , the first die array defining a first die profile; a second die array that is complementary with the first die array and including a plurality of dies , the second die array defining a second die profile that is complementary with the first die profile; and a first drive for driving the first die array and a second drive for driving the second die array ; characterized in that in use the plurality of dies of the first die array and the plurality of dies of the second die array sequentially engage the deformable material along a processing length to deform the deformable material to a predetermined profile , wherein the first die array includes a preliminary set of dies and a secondary set of dies, the preliminary set of dies and the secondary set of dies sequentially engaging the deformable material along the processing length in use, wherein the preliminary set of dies includes odd numbered dies within the first die array and the secondary set of dies includes even numbered dies within the first die array , and wherein the odd numbered dies and even numbered dies of the first die array are separately driven by the first drive means to provide sequential operation between the odd numbered dies and the even numbered dies.
Interrupting apparatus for an electric current, comprising: - at least one interrupting element , each interrupting element comprising: • a fixed portion which carries fixed electrical contacts and • a movable portion which carries a movable electrical contact , the movable portion being displaceable in translation, along a displacement axis (X), between an open position and a closed position of the electrical contacts; - an actuator comprising a movable part which is displaceable in translation along the displacement axis (X) in order to displace the movable portion between its open and closed positions, each movable part comprising to this end a linking member which is fixed to the movable portion , each movable portion comprising a body which comprises a first receiver ; the interrupting apparatus being characterised in that each interrupting element further comprises: - a cage which is mounted in the first receiver , the cage being displaceable in translation along the displacement axis (X) relative to the body of the movable portion , the cage being connected to a support carrying the movable contact , and - a movable stop which limits the displacement of the cage relative to the body of the movable portion , the movable stop being displaceable, in translation relative to the body of the movable portion and along the displacement axis (X), by means of an adjusting screw . - at least one interrupting element , each interrupting element comprising: • a fixed portion which carries fixed electrical contacts and • a movable portion which carries a movable electrical contact , the movable portion being displaceable in translation, along a displacement axis (X), between an open position and a closed position of the electrical contacts; • a fixed portion which carries fixed electrical contacts and • a movable portion which carries a movable electrical contact , the movable portion being displaceable in translation, along a displacement axis (X), between an open position and a closed position of the electrical contacts; - an actuator comprising a movable part which is displaceable in translation along the displacement axis (X) in order to displace the movable portion between its open and closed positions, each movable part comprising to this end a linking member which is fixed to the movable portion , each movable portion comprising a body which comprises a first receiver ; - a cage which is mounted in the first receiver , the cage being displaceable in translation along the displacement axis (X) relative to the body of the movable portion , the cage being connected to a support carrying the movable contact , and - a movable stop which limits the displacement of the cage relative to the body of the movable portion , the movable stop being displaceable, in translation relative to the body of the movable portion and along the displacement axis (X), by means of an adjusting screw .
A current detection device comprising: a current path through which a current to be measured flows; a feedback coil ; a magnetic detection element which faces both the current path and the feedback coil ; a coil current-carrying portion adapted to control a feedback current applied to the feedback coil according to an increase or decrease in a detection output of the magnetic detection element ; and a detection portion adapted to detect an amount of current flowing through the feedback coil , wherein the feedback coil is formed in a planar pattern in which a coil line is coiled into a plurality of windings, a portion of the feedback coil forms an element facing portion in which a plurality of the coil lines face the magnetic detection element , and wherein in operation, an amount of current per unit of width in the element facing portion in a direction perpendicular to the coiling direction of the coil line is higher than an amount of current per unit of width in portions other than the element facing portion . a current path through which a current to be measured flows; a feedback coil ; a magnetic detection element which faces both the current path and the feedback coil ; a coil current-carrying portion adapted to control a feedback current applied to the feedback coil according to an increase or decrease in a detection output of the magnetic detection element ; and a detection portion adapted to detect an amount of current flowing through the feedback coil , wherein the feedback coil is formed in a planar pattern in which a coil line is coiled into a plurality of windings, a portion of the feedback coil forms an element facing portion in which a plurality of the coil lines face the magnetic detection element , and wherein in operation, an amount of current per unit of width in the element facing portion in a direction perpendicular to the coiling direction of the coil line is higher than an amount of current per unit of width in portions other than the element facing portion .
A process for producing carbon monoxide (CO) from a feed stream comprising carbon dioxide (CO2) and natural gas and/or naphtha, the process comprising • a syngas generation step comprising steam reforming where a first syngas stream is generated from the feed stream, • a CO2 removal step where at least a part of the CO2 is removed from the first syngas stream and the thereby generated CO2 recycle stream is recycled back to the syngas generation step, and a second syngas stream is generated in said CO2 removal step, and • a CO purification step where CO is generated from the second syngas stream, wherein the process further comprises a solid oxide electrolysis cell (SOEC) unit which is fed by a CO2 stream , the SOEC unit generates CO which is fed back into the first syngas stream, thereby raising the CO concentration in the first syngas stream. • a syngas generation step comprising steam reforming where a first syngas stream is generated from the feed stream, • a CO2 removal step where at least a part of the CO2 is removed from the first syngas stream and the thereby generated CO2 recycle stream is recycled back to the syngas generation step, and a second syngas stream is generated in said CO2 removal step, and • a CO purification step where CO is generated from the second syngas stream,
A colour printing unit having one printing station for each colour in each case and also one anode roller per printing station, having an endless transfer belt guided over a deflection roller and a control roller and covering the anode rollers, having sensor means for measuring the density and/or position in particular of reference marks printed on the transfer belt and having a control device for controlling and regulating the directional stability of the transfer belt by means of a servomotor acting on the control roller as a function of the detected properties of the reference marks, characterized in that the sensor means are arranged in the region of the control roller for the transfer belt , and in that , during the measurement, at least for the time period in which the printed reference marks run along below the sensor means , relative movements between sensor means and the control roller , which can be deflected in the X and Y directions by means of the servomotor , are excluded.
Extractor hood having an extractor hood housing and at least one surface element which is pivotably mounted on the extractor hood housing , wherein the extractor hood has at least one fastening apparatus for the surface element which is mounted pivotably on the extractor hood , characterised in that the fastening apparatus has - a housing , - a sliding element , which is mounted in a linearly moveable manner in the housing and at least at times can extend with respect to the housing , - a locking device which limits the extension of the sliding element with respect to the housing , - a push-push element , by way of which the sliding element is fixed at least at times to the housing , and - a magnet , wherein the magnet is fastened to the sliding element or integrated in the sliding element , and the surface element has a holding surface for interaction with the magnet of the fastening apparatus . - a housing , - a sliding element , which is mounted in a linearly moveable manner in the housing and at least at times can extend with respect to the housing , - a locking device which limits the extension of the sliding element with respect to the housing , - a push-push element , by way of which the sliding element is fixed at least at times to the housing , and - a magnet , wherein the magnet is fastened to the sliding element or integrated in the sliding element ,
A method for asynchronous uplink transmission, comprising: obtaining asynchronous transmission parameter information that is the same as that of a base station, wherein the asynchronous transmission parameter information comprises physical resource information, modulation and coding scheme information, and physical resource frame format information, and the physical resource frame format information comprises length information of a physical resource frame; determining a length of an asynchronous transmission frame according to the physical resource frame format information, wherein the asynchronous transmission frame includes a frame header portion, a data transmission portion, and a frame tail portion; and sending first uplink information to the base station according to the asynchronous transmission parameter information by using the asynchronous transmission frame, wherein a timing advance used by the terminal when sending the first uplink information to the base station by using the asynchronous transmission frame is 0; wherein the asynchronous transmission frame further includes a physical random access channel, PRACH, resource portion, wherein the PRACH resource portion is used to transmit a preamble; or when the asynchronous transmission frame is sent, a PRACH resource is sent as an independent frame at the same time on a different frequency band, wherein the PRACH resource is used to transmit a preamble. obtaining asynchronous transmission parameter information that is the same as that of a base station, wherein the asynchronous transmission parameter information comprises physical resource information, modulation and coding scheme information, and physical resource frame format information, and the physical resource frame format information comprises length information of a physical resource frame; determining a length of an asynchronous transmission frame according to the physical resource frame format information, wherein the asynchronous transmission frame includes a frame header portion, a data transmission portion, and a frame tail portion; and sending first uplink information to the base station according to the asynchronous transmission parameter information by using the asynchronous transmission frame, wherein a timing advance used by the terminal when sending the first uplink information to the base station by using the asynchronous transmission frame is 0; wherein the asynchronous transmission frame further includes a physical random access channel, PRACH, resource portion, wherein the PRACH resource portion is used to transmit a preamble; or when the asynchronous transmission frame is sent, a PRACH resource is sent as an independent frame at the same time on a different frequency band, wherein the PRACH resource is used to transmit a preamble.
A neural network machine learning method for causing a computer to function so as to learn to output a path for a mobile robot to reach a destination based on provided map information and information about a detected mobile body, the neural network machine learning method, comprising: a first arrangement step of arranging a stationary first obstacle and a moving second obstacle in a virtual space; a second arrangement step of arranging a current position and a destination of a mobile robot in the virtual space; a movement step of making the second obstacle move in accordance with a predetermined condition; and a reception step of receiving, from a user, a designation of a moving path for the mobile robot to go to the destination from the current position while avoiding the stationary first obstacle and the moving second obstacle, wherein learning is performed using teaching data generated in each of the above steps and accumulated by repeatedly executing the above steps. a first arrangement step of arranging a stationary first obstacle and a moving second obstacle in a virtual space; a second arrangement step of arranging a current position and a destination of a mobile robot in the virtual space; a movement step of making the second obstacle move in accordance with a predetermined condition; and a reception step of receiving, from a user, a designation of a moving path for the mobile robot to go to the destination from the current position while avoiding the stationary first obstacle and the moving second obstacle, wherein learning is performed using teaching data generated in each of the above steps and accumulated by repeatedly executing the above steps.