mhurhangee/ep-ind-claims huggingface dataset:
A method for coating a metal strip with a coating material, wherein the method comprises: guiding the metal strip to be coated through a coating container which is filled with the liquid coating material, wherein the coating material adheres to the surface of the metal strip to be coated; and guiding the coated metal strip through a slot of a blowing device, which is downstream of the coating container in the transport direction of the metal strip, for blowing excess parts of the still liquid coating material off the surface of the metal strip; detecting the actual curvature of the metal strip after leaving the coating container; and adjusting a correction roller which is arranged within the coating container against the metal strip for smoothing the metal strip when the amount of the actual curvature exceeds a predetermined permissible curvature threshold value, wherein the actual position of the metal strip in the slot of the blowing device changes due to the adjustment of the correction roller; characterized by the following steps: regulating the actual position of the metal strip to a predetermined desired central position in the slot of the blowing device by displacing the blowing device in the plane transverse to the transport direction of the metal strip; the adjusted position of the correction roller or the change thereof is detected by a correction roller detecting device; and the displacement of the blowing device is carried out with consideration of the adjusted position of the correction roller. guiding the metal strip to be coated through a coating container which is filled with the liquid coating material, wherein the coating material adheres to the surface of the metal strip to be coated; and guiding the coated metal strip through a slot of a blowing device, which is downstream of the coating container in the transport direction of the metal strip, for blowing excess parts of the still liquid coating material off the surface of the metal strip; detecting the actual curvature of the metal strip after leaving the coating container; and adjusting a correction roller which is arranged within the coating container against the metal strip for smoothing the metal strip when the amount of the actual curvature exceeds a predetermined permissible curvature threshold value, wherein the actual position of the metal strip in the slot of the blowing device changes due to the adjustment of the correction roller; characterized by the following steps: regulating the actual position of the metal strip to a predetermined desired central position in the slot of the blowing device by displacing the blowing device in the plane transverse to the transport direction of the metal strip; the adjusted position of the correction roller or the change thereof is detected by a correction roller detecting device; and the displacement of the blowing device is carried out with consideration of the adjusted position of the correction roller.
An isolated polypeptide with lipase activity, selected from the group consisting of: (a) a polypeptide having at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to SEQ ID NO: 1 or to SEQ ID NO: 3; and (c) a polypeptide which is a fragment of any of the polypeptides of (a) or (b). (a) a polypeptide having at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to SEQ ID NO: 1 or to SEQ ID NO: 3; and (c) a polypeptide which is a fragment of any of the polypeptides of (a) or (b).
An injection molding machine comprising: a molding machine main body which includes a first injection unit; a second injection unit; a first control unit which is configured to control the molding machine main body; a second control unit which is communicably connected to the first control unit and configured to control the second injection unit; a first operation unit which is connected to the first control unit and configured to receive an input operation related to at least the molding machine main body from among the molding machine main body and the second injection unit; and a second operation unit which is connected to the second control unit and configured to receive an input operation related to at least the second injection unit from among the molding machine main body and the second injection unit, characterized in that the first control unit is configured to transmit a first signal indicating that the first operation unit is operated, to the second control unit, in a case where the first operation unit is operated by a user, and the second control unit is configured to transmit a second signal indicating that the second operation unit is operated, to the first control unit, in a case where the second operation unit is operated by the user. a molding machine main body which includes a first injection unit; a second injection unit; a first control unit which is configured to control the molding machine main body; a second control unit which is communicably connected to the first control unit and configured to control the second injection unit; a first operation unit which is connected to the first control unit and configured to receive an input operation related to at least the molding machine main body from among the molding machine main body and the second injection unit; and a second operation unit which is connected to the second control unit and configured to receive an input operation related to at least the second injection unit from among the molding machine main body and the second injection unit, characterized in that the first control unit is configured to transmit a first signal indicating that the first operation unit is operated, to the second control unit, in a case where the first operation unit is operated by a user, and the second control unit is configured to transmit a second signal indicating that the second operation unit is operated, to the first control unit, in a case where the second operation unit is operated by the user.
Flush-mounted LED luminaire (1, 2, 3) for electrical and mechanical connection in a commercially available flush-mounted device box, - comprising a central plate and a covering frame, - comprising a device base having a converter with power supply unit, LED driver and control/regulating device therefor for supplying an LED illuminant (15, 26) including connection unit for 230 V mains lines and also a 230 V switching apparatus including switching apparatus actuation arrangement, and - comprising a central luminous element, wherein the LED illuminant (15, 26) is integrated in the luminous element, - wherein the open-circuit- and short-circuit-proof converter delivers on its secondary side a constant DC current for feeding the LED illuminant, and - the luminous element is mounted pivotably within the central plate for the alignment of the light outlet. - comprising a central plate and a covering frame, - comprising a device base having a converter with power supply unit, LED driver and control/regulating device therefor for supplying an LED illuminant (15, 26) including connection unit for 230 V mains lines and also a 230 V switching apparatus including switching apparatus actuation arrangement, and - comprising a central luminous element, wherein the LED illuminant (15, 26) is integrated in the luminous element, - wherein the open-circuit- and short-circuit-proof converter delivers on its secondary side a constant DC current for feeding the LED illuminant, and - the luminous element is mounted pivotably within the central plate for the alignment of the light outlet.
Valve arrangement for a hydraulically actuable clutch system, having a duct for the pressure-tight guidance of a hydraulic liquid, a valve body being arranged in the duct, a slave-side sealing seat being provided adjacently with respect to a slave-side end of the valve body, a master-side sealing seat being provided adjacently with respect to a master-side end of the valve body, and the valve body being arranged such that it can be moved freely between a position, in which it bears against the slave-side sealing seat, and a position, in which it bears against the master-side sealing seat, the valve body having a first guide for the guidance of hydraulic liquid, which first guide is closed in a position of the valve body, in which it bears against the master-side sealing seat, and is open in a position of the valve body, in which it bears against the slave-side sealing seat, and the valve body having a second guide for the guidance of hydraulic liquid, which second guide can be closed by way of a sealing element, the sealing element closing the second guide automatically in the case of a master-side positive pressure and opening it automatically in the case of a slave-side positive pressure.
An electrochemical cell packaging material comprising, as layers laminated together, at least: a base material layer formed of a resin film; a protective layer arranged as an outer layer, for protecting the base material layer; a thermally adhesive layer arranged as an innermost layer and formed of a thermally adhesive resin; and a barrier layer arranged between the base material layer and the thermally adhesive layer and formed of a metal foil, wherein the electrochemical cell packaging material includes an adhesive layer by which the base material layer and the barrier layer are bonded together, the adhesive layer containing a pigment, and the protective layer is formed of at least one resin selected from the group consisting of polyester resin, phenol resin, fluorine resin, olefin resin and urethane resin all having resistance to electrolyte liquid, the protective layer comprising a fine-particle filler. a base material layer formed of a resin film; a protective layer arranged as an outer layer, for protecting the base material layer; a thermally adhesive layer arranged as an innermost layer and formed of a thermally adhesive resin; and a barrier layer arranged between the base material layer and the thermally adhesive layer and formed of a metal foil, wherein the electrochemical cell packaging material includes an adhesive layer by which the base material layer and the barrier layer are bonded together, the adhesive layer containing a pigment, and the protective layer is formed of at least one resin selected from the group consisting of polyester resin, phenol resin, fluorine resin, olefin resin and urethane resin all having resistance to electrolyte liquid, the protective layer comprising a fine-particle filler.
A method of supplying molten metal from a melting furnace to a pouring ladle of an automatic pouring machine, wherein the method comprises the steps of: after supplying the required quantity of alloy materials in a treating ladle that connects the melting furnace with the pouring ladle by transporting the molten metal from the melting furnace to the pouring ladle, supplying the molten metal from the melting furnace into the treating ladle and having the treating ladle stand by, which treating ladle holds the molten metal that was supplied to it; transporting the pouring ladle that was separated from the automatic pouring machine to the treating ladle that was kept standing by; pouring the molten metal from the treating ladle into the pouring ladle, which treating ladle was kept standing by; and fixing the pouring ladle that received the molten metal to the automatic pouring machine. after supplying the required quantity of alloy materials in a treating ladle that connects the melting furnace with the pouring ladle by transporting the molten metal from the melting furnace to the pouring ladle, supplying the molten metal from the melting furnace into the treating ladle and having the treating ladle stand by, which treating ladle holds the molten metal that was supplied to it; transporting the pouring ladle that was separated from the automatic pouring machine to the treating ladle that was kept standing by; pouring the molten metal from the treating ladle into the pouring ladle, which treating ladle was kept standing by; and fixing the pouring ladle that received the molten metal to the automatic pouring machine.
A pane with an electrical connection element, comprising: - a substrate made of glass with a first coefficient of thermal expansion, - an electrically conductive structure with a layer thickness of 5 μm to 40 μm on a region of the substrate, - a connection element with a second coefficient of thermal expansion, wherein the difference between the first and the second coefficient of expansion is < 5 x 10 -6 /°C, and - a layer of a solder compound that electrically connects the connection element to subregions of the electrically conductive structure, characterised in that the connection element contains at least 50 wt.-% to 60 wt.-% iron, 25 wt.-% to 35 wt.-% nickel, 15 wt.-% to 20 wt.-% cobalt, 0 wt.-% to 0.5 wt.-% silicon, 0 wt.-% to 0.1 wt.-% carbon, or 0 wt.-% to 0.5 wt.-% manganese, and that the maximum outflow width b, defined as the distance between the outer edges of the connection element and the point of the soldering compound crossover, at which the soldering compound drops below a layer thickness of 50 μm, is pulled back in a concave meniscus into the intermediate space formed by the electrical connection element and the electrically conductive structure. - a substrate made of glass with a first coefficient of thermal expansion, - an electrically conductive structure with a layer thickness of 5 μm to 40 μm on a region of the substrate, - a connection element with a second coefficient of thermal expansion, wherein the difference between the first and the second coefficient of expansion is < 5 x 10 -6 /°C, and - a layer of a solder compound that electrically connects the connection element to subregions of the electrically conductive structure,
A cathode material, wherein a chemical formula of the cathode material is Li b Ni 1-x-y Co x Al y M z O 2, where 0.95≤b≤1.10, 0≤x≤0.15, 0.01≤y≤0.1, 0<z≤0.05, and an M element is a metal element; the M element is distributed in interior and surface of the cathode material, the M element distributed in the interior of the cathode material is presented in a doped form, and the M element distributed in the surface of the cathode material is presented in a form of a coating layer formed of at least one of M oxide and/or lithium-M composite oxide; a molar ratio of the M element in the interior to the M element in the surface is greater than 0.5; and a lithium content in the surface of the cathode material is 0.02 wt% to 0.12 wt% of a total mass of the cathode material. Li b Ni 1-x-y Co x Al y M z O 2, where 0.95≤b≤1.10, 0≤x≤0.15, 0.01≤y≤0.1, 0<z≤0.05, and an M element is a metal element; the M element is distributed in interior and surface of the cathode material, the M element distributed in the interior of the cathode material is presented in a doped form, and the M element distributed in the surface of the cathode material is presented in a form of a coating layer formed of at least one of M oxide and/or lithium-M composite oxide; a molar ratio of the M element in the interior to the M element in the surface is greater than 0.5; and a lithium content in the surface of the cathode material is 0.02 wt% to 0.12 wt% of a total mass of the cathode material.
A switching device comprising: - movable current path arms (101A, 101B) detachably coupled with one another, for controlling transfer of electrical current therebetween; - at least one insulator (104A, 104B) operably connected with the moveable current path arms (101A, 101B); and - a base frame supporting the at least one insulator and the moveable current path arms (101A, 101B); and - at least one rotary unit physically integrated with the base frame and configured to support said at least one insulator (104A, 104B); characterized by: - the rotary unit is configured as a concave polygon. - movable current path arms (101A, 101B) detachably coupled with one another, for controlling transfer of electrical current therebetween; - at least one insulator (104A, 104B) operably connected with the moveable current path arms (101A, 101B); and - a base frame supporting the at least one insulator and the moveable current path arms (101A, 101B); and - at least one rotary unit physically integrated with the base frame and configured to support said at least one insulator (104A, 104B); - the rotary unit is configured as a concave polygon.
A method for repairing an upstream rail of a turbine engine turbine casing, said casing including a casing body extending along a longitudinal axis, said upstream rail including: - a base including a face, referred to as radial face, extending substantially radially from the casing body, - a plate including a face, referred to as upper face, extending substantially along the longitudinal axis, - a connection portion between the base and the plate, including a concave face connecting the radial face and the upper face, the concave face and the radial face extending on either side of an edge, said method including: - a step of covering a surface with a solder, said surface including the upper face and the concave face, such that said solder extends substantially until the edge, - a step of machining the covered surface, in a single action, in the direction of the radial face, so as to reshape the surface suppressing wear traces on the upper surface of the plate and on the concave face of the connection portion, and so as to end in the radial face so as to form a machining springback in said radial face. - a base including a face, referred to as radial face, extending substantially radially from the casing body, - a plate including a face, referred to as upper face, extending substantially along the longitudinal axis, - a connection portion between the base and the plate, including a concave face connecting the radial face and the upper face, the concave face and the radial face extending on either side of an edge, - a step of covering a surface with a solder, said surface including the upper face and the concave face, such that said solder extends substantially until the edge, - a step of machining the covered surface, in a single action, in the direction of the radial face, so as to reshape the surface suppressing wear traces on the upper surface of the plate and on the concave face of the connection portion, and so as to end in the radial face so as to form a machining springback in said radial face.
A tractor comprising a rear lamp (18, 19) and a cabin, wherein the cabin includes a left front pillar, a right front pillar, a left rear pillar, a right rear pillar, a roof which is supported by the pillars (161, 162, 163, 164), a front windshield, a rear windshield, left side window pane, and right side window pane, wherein the rear lamp (18, 19) includes a lamp housing, and a light source that is housed in the lamp housing, wherein the lamp housing is provided from a vicinity of one end to a vicinity of the other end of the left or right rear pillar (163, 164) in the longitudinal direction of the left or right rear pillar (163, 164), characterized in that an outer surface of each rear pillar (163, 164) is curved outward in a convex manner, wherein the lamp housing is curved along the outer surface of the left or right rear pillar (163, 164), wherein the side window panes (168, 169) have their respective rear ends fixed to the rear pillar (163, 164) and with two hinges each and the side window panes (168, 169) can be opened and closed by gripping knobs respectively provided at the front ends of the side window panes (168, 169), wherein the lamp housing comprises recesses formed respectively at the vicinity of the upper end and the vicinity of the lower end of the lamp housing, and wherein the two hinges of at least one of the side window panes (168, 169) are partially housed in the recesses. the cabin includes a left front pillar, a right front pillar, a left rear pillar, a right rear pillar, a roof which is supported by the pillars (161, 162, 163, 164), a front windshield, a rear windshield, left side window pane, and right side window pane, wherein the rear lamp (18, 19) includes a lamp housing, and a light source that is housed in the lamp housing, wherein the lamp housing is provided from a vicinity of one end to a vicinity of the other end of the left or right rear pillar (163, 164) in the longitudinal direction of the left or right rear pillar (163, 164), characterized in that an outer surface of each rear pillar (163, 164) is curved outward in a convex manner, wherein the lamp housing is curved along the outer surface of the left or right rear pillar (163, 164), wherein the side window panes (168, 169) have their respective rear ends fixed to the rear pillar (163, 164) and with two hinges each and the side window panes (168, 169) can be opened and closed by gripping knobs respectively provided at the front ends of the side window panes (168, 169), wherein the lamp housing comprises recesses formed respectively at the vicinity of the upper end and the vicinity of the lower end of the lamp housing, and wherein the two hinges of at least one of the side window panes (168, 169) are partially housed in the recesses.
A connector for releasably engaging a slot in a support member, the connector comprising a body with a bore having a threaded portion providing a threaded hole and a bolt with a shaft received within the threaded hole, a head at or adjacent a first end of the shaft and a retaining element secured to the shaft at or adjacent a second end thereof to inhibit removal of the shaft from the body, the shaft comprising a central threaded portion between the head and the retaining element to engage the threaded hole and the bore comprising a non-threaded portion within which the retaining element is received, characterised in that the retaining element comprises a resilient tube or coiled element which surrounds and engages the shaft and engages the non-threaded portion of the bore such that rotation, in use, of the body causes the bolt to rotate therewith until the head engages with the slot in the support member, then continued rotation of the body relative to the bolt draws the head toward the body to captivate or clamp an overhang of the slot between the head and the body.
A calibrator sleeve for a block calibrator for calibrating a temperature sensor, wherein the calibrator sleeve is formed as cylindrical and has at least one sensor bore into which the temperature sensor is insertable along a longitudinal direction, wherein the body of the calibrator sleeve has at least two sections having different thermal conductivities (λ1, λ2, λ2') characterized in that a first section having a higher thermal conductivity (λ1) forms a calibration section; and in that a second section adjoins the calibration section in the longitudinal direction and forms a connecting section that has a lower thermal conductivity (λ2') and/or that is formed from a material having a lower thermal conductivity (λ2).