mhurhangee/ep-ind-claims huggingface dataset:
Paint discharge system comprising - a belt conveyor that can be driven so as to rotate for transporting workpieces to be coated, wherein the belt conveyor comprises a conveyor belt and at least two guide pulleys (4, 5), and - at least one paint discharge device for the conveyor belt, wherein the paint discharge device has a scraper belt driven so as to rotate and at least two guide pulleys (14, 15, 16), wherein on the scraper belt at least one additional scraping means is provided which presses against the conveyor belt, characterized in that the length of the horizontal upper part of the scraper belt is less than the width of the conveyor belt. - a belt conveyor that can be driven so as to rotate for transporting workpieces to be coated, wherein the belt conveyor comprises a conveyor belt and at least two guide pulleys (4, 5), and - at least one paint discharge device for the conveyor belt, wherein the paint discharge device has a scraper belt driven so as to rotate and at least two guide pulleys (14, 15, 16), wherein on the scraper belt at least one additional scraping means is provided which presses against the conveyor belt,
Process for the production of a solid-state polymerized poly(tetramethylene-2,5-furandicarboxylate) polymer comprising: - providing a poly (tetramethylene-2,5-furandicarboxylate) polycondensate having a number average molecular weight (Mn) of at least 10,000, as determined by Gel Permeation Chromatography using polystyrene as standard, and having a content of carboxylic acid end groups of at most 50 meq/kg, wherein the content of carboxylic end groups is determined according to ASTM D7409; and - keeping the poly(tetramethylene-2,5-furandicarboxylate) polycondensate at a temperature in the range of 80 to 140 °C to obtain a semi-crystalline polycondensate; and - subjecting the semi-crystalline polycondensate to solid-state polymerization by keeping the semi-crystalline polycondensate at a temperature of at least 140 °C and below its melting point, whilst the semi-crystalline polycondensate is either under a flow of inert gas or under vacuum to obtain the solid-state polymerized poly(tetramethylene-2,5-furandicarboxylate) polymer. - providing a poly (tetramethylene-2,5-furandicarboxylate) polycondensate having a number average molecular weight (Mn) of at least 10,000, as determined by Gel Permeation Chromatography using polystyrene as standard, and having a content of carboxylic acid end groups of at most 50 meq/kg, wherein the content of carboxylic end groups is determined according to ASTM D7409; and - keeping the poly(tetramethylene-2,5-furandicarboxylate) polycondensate at a temperature in the range of 80 to 140 °C to obtain a semi-crystalline polycondensate; and - subjecting the semi-crystalline polycondensate to solid-state polymerization by keeping the semi-crystalline polycondensate at a temperature of at least 140 °C and below its melting point, whilst the semi-crystalline polycondensate is either under a flow of inert gas or under vacuum to obtain the solid-state polymerized poly(tetramethylene-2,5-furandicarboxylate) polymer.
Cooking appliance, in particular commercial cooking appliance, comprising - a housing in which a cooking space is arranged; - at least one sensor device; and - a cooling device for the sensor device, comprising the following components: - a cooling housing, in which the sensor device is arranged, - a heat conducting bridge, and - -at least one heat dissipating element arranged on a carrier, - wherein the cooling housing consists of thermally conductive, preferably highly thermally conductive material, and - wherein the heat-conducting bridge made of heat-conducting, preferably highly heat-conducting material connects the cooling housing to the carrier made of heat-conducting, preferably highly heat-conducting material, characterized in that the carrier supports at least one cooling element (12A, 12B), the at least one heat dissipating element being arranged on the at least one cooling element (12A, 12B), and characterized in that the cooling housing is arranged in a mounting housing made of poorly heat-conducting material, in particular plastic. - a housing in which a cooking space is arranged; - at least one sensor device; and - a cooling device for the sensor device, comprising the following components: - a cooling housing, in which the sensor device is arranged, - a heat conducting bridge, and - -at least one heat dissipating element arranged on a carrier, - wherein the cooling housing consists of thermally conductive, preferably highly thermally conductive material, and - wherein the heat-conducting bridge made of heat-conducting, preferably highly heat-conducting material connects the cooling housing to the carrier made of heat-conducting, preferably highly heat-conducting material,
An interchangeable lock core for use with a lock device having a locked state and an unlocked state, the interchangeable lock core being removable from an opening of the lock device, the interchangeable lock core comprising: a lock core body having an exterior lock core body envelope; a moveable plug positioned in the lock core body, the moveable plug having a first position relative to the lock core body which corresponds to the lock device being in the locked state and a second position relative to the lock core body which corresponds to the lock device being in the unlocked state; and a core keeper moveably coupled to the lock core body, the core keeper positionable in a retain position wherein the core keeper extends beyond the lock core body envelope to hold the lock core body in the opening of the lock device and a remove position wherein the core keeper is retracted relative to the lock core body envelope to permit removal of the lock core body from the opening of the lock device; characterized by an actuator moveable relative to the core keeper, the actuator supported by the lock core body, moveable relative to the lock core body in multiple degrees of freedom, and operatively coupled to the core keeper independent of the moveable plug, the actuator having a first position corresponding to the remove position of the core keeper and a second position corresponding to the retain position of the core keeper, the actuator requiring a movement in each of two degrees of freedom independent of the moveable plug to move from the second position to the first position. a lock core body having an exterior lock core body envelope; a moveable plug positioned in the lock core body, the moveable plug having a first position relative to the lock core body which corresponds to the lock device being in the locked state and a second position relative to the lock core body which corresponds to the lock device being in the unlocked state; and a core keeper moveably coupled to the lock core body, the core keeper positionable in a retain position wherein the core keeper extends beyond the lock core body envelope to hold the lock core body in the opening of the lock device and a remove position wherein the core keeper is retracted relative to the lock core body envelope to permit removal of the lock core body from the opening of the lock device; characterized by an actuator moveable relative to the core keeper, the actuator supported by the lock core body, moveable relative to the lock core body in multiple degrees of freedom, and operatively coupled to the core keeper independent of the moveable plug, the actuator having a first position corresponding to the remove position of the core keeper and a second position corresponding to the retain position of the core keeper, the actuator requiring a movement in each of two degrees of freedom independent of the moveable plug to move from the second position to the first position.
Method for recuperating droplets, comprising the following steps: - provision of a chip having a fluid flow duct defining successively in a fluid flow direction, an inlet zone, a spacing zone, an injection zone and a separation zone, - injection of an emulsion of droplets of an internal fluid dispersed in an external fluid into the inlet zone, - injection of at least one carrier fluid miscible with the external fluid into the spacing zone to form a working fluid in the flow duct, comprising a carrier fluid and droplets of the emulsion spaced apart from each other along the duct, - conveyance of the working fluid in the circulation duct, characterized in that the method comprises the following steps: - injection of a separating fluid immiscible with the carrier fluid into the injection zone to separate the working fluid into a plurality of successive pockets comprising the carrier fluid, wherein each pocket is isolated from the next pocket by a separator consisting of separating fluid, - conveyance of the pockets and separators in the separation zone to an outlet of the chip, - recuperation in a compartment of a recuperation support of at least one pocket comprising a droplet recuperated after conveyance, the method comprising a step of detecting the passage of successive droplets, the detection of a droplet controlling the injection of a volume of separating fluid and the formation of a pocket. - provision of a chip having a fluid flow duct defining successively in a fluid flow direction, an inlet zone, a spacing zone, an injection zone and a separation zone, - injection of an emulsion of droplets of an internal fluid dispersed in an external fluid into the inlet zone, - injection of at least one carrier fluid miscible with the external fluid into the spacing zone to form a working fluid in the flow duct, comprising a carrier fluid and droplets of the emulsion spaced apart from each other along the duct, - conveyance of the working fluid in the circulation duct, - injection of a separating fluid immiscible with the carrier fluid into the injection zone to separate the working fluid into a plurality of successive pockets comprising the carrier fluid, wherein each pocket is isolated from the next pocket by a separator consisting of separating fluid, - conveyance of the pockets and separators in the separation zone to an outlet of the chip, - recuperation in a compartment of a recuperation support of at least one pocket comprising a droplet recuperated after conveyance, the method comprising a step of detecting the passage of successive droplets, the detection of a droplet controlling the injection of a volume of separating fluid and the formation of a pocket.
An interior trim component configured for use in a vehicle, comprising: a housing formed of a dielectric material; and a plurality of metallic electrical conductors, wherein each electrical conductor of the plurality of metallic electrical conductors is encased within the housing and is surrounded by and in intimate contact with the dielectric material forming the housing, wherein each electrical conductor of the plurality of metallic electrical conductors defines two exposed contact points exposed external to the housing which are curved to provide a spring force for the contact points against mating contact points of mating connectors (12, 14), and characterized in that the interior trim component is formed by a 3D printing process depositing the dielectric material forming the housing and depositing a conductive material forming the electrical conductor. a housing formed of a dielectric material; and a plurality of metallic electrical conductors, wherein each electrical conductor of the plurality of metallic electrical conductors is encased within the housing and is surrounded by and in intimate contact with the dielectric material forming the housing, wherein each electrical conductor of the plurality of metallic electrical conductors defines two exposed contact points exposed external to the housing which are curved to provide a spring force for the contact points against mating contact points of mating connectors (12, 14), and characterized in that the interior trim component is formed by a 3D printing process depositing the dielectric material forming the housing and depositing a conductive material forming the electrical conductor.
A resistance annealing furnace for annealing a metal wire, strand, string, wire rod or strap, the annealing furnace comprising at least two electric axes, which are provided with respective pulleys to convey said metal wire, strand, string, wire rod or strap, and DC voltage generator means suppliable by an AC voltage source in order to generate an annealing voltage (Uann) applied between the two electric axes, so as to produce an electric current in the section of the metal wire, strand, string, wire rod or strap comprised between the two electric axes that provokes the annealing due to Joule effect; the annealing furnace being characterized in that said DC voltage generator means comprises first voltage rectifier means connectable to said AC voltage source so as to generate an intermediate DC voltage (Udc), active filtering means, which are connected in parallel to the input of said first voltage rectifier means so as to compensate the current harmonics appearing at the input of said first voltage rectifier means, pulse width modulating means to transform the intermediate voltage (Udc) into a first PWM voltage with the same amplitude, a voltage transformer to transform the first PWM voltage into a corresponding second PWM voltage with a smaller amplitude, and second voltage rectifier means to transform the second modulated PWM voltage into the annealing voltage (Uann); said pulse width modulating means being configured to modulate the pulse width of said first PWM voltage in correlation with the ratio between the feeding speed (Vw) of said metal wire, strand, string, wire rod or strap and the difference between the maximum value and the minimum value of said feeding speed.
Knob cylinder for a door or window with a lock cylinder that exhibits a lock cam for activating a lock device with a lever to rotate a driveshaft, whereby motion coupling of the driveshaft can be controlled by the lock cam via an actuator in such a way that upon release of the actuator the lock cam can be actuated by the lever and upon locking of the actuator the lock cam cannot be actuated, whereby a control device is installed to steer the actuator and which exhibits a reception unit to receive a justification signal, distinguished by the fact that the knob cylinder includes a sensor arrangement that records movement of parts of the knob cylinder, whereby the control device deactivates the actuator in its locked state when recording movement of parts of the knob cylinder.
An apparatus comprising: a lidar system comprising: a receiver comprising a receive channel configured to generate pulse data based on a lidar receive signal; and a readout module coupled to the receiver, the readout module comprising: a first node coupled to the receive channel; a second node and a third node; a timing readout path coupled between the first node and the second node, the timing readout path comprising a time-to-digital converter; and an intensity readout path coupled between the first node and the third node, the intensity readout path comprising: an analog-to-digital converter; and a hold circuit coupled between the first node and the analog-to-digital converter, wherein the hold circuit maintains, for longer than a duration of a pulse from the pulse data, an output voltage representative of an amount of energy associated with the pulse. a receiver comprising a receive channel configured to generate pulse data based on a lidar receive signal; and a readout module coupled to the receiver, the readout module comprising: a first node coupled to the receive channel; a second node and a third node; a timing readout path coupled between the first node and the second node, the timing readout path comprising a time-to-digital converter; and an intensity readout path coupled between the first node and the third node, the intensity readout path comprising: an analog-to-digital converter; and a hold circuit coupled between the first node and the analog-to-digital converter, wherein the hold circuit maintains, for longer than a duration of a pulse from the pulse data, an output voltage representative of an amount of energy associated with the pulse. a first node coupled to the receive channel; a second node and a third node; a timing readout path coupled between the first node and the second node, the timing readout path comprising a time-to-digital converter; and an intensity readout path coupled between the first node and the third node, the intensity readout path comprising: an analog-to-digital converter; and a hold circuit coupled between the first node and the analog-to-digital converter, wherein the hold circuit maintains, for longer than a duration of a pulse from the pulse data, an output voltage representative of an amount of energy associated with the pulse. an analog-to-digital converter; and a hold circuit coupled between the first node and the analog-to-digital converter, wherein the hold circuit maintains, for longer than a duration of a pulse from the pulse data, an output voltage representative of an amount of energy associated with the pulse.
Connecting system for commercial vehicles, comprising a first connector unit and a second connector unit, wherein the first plug unit is designed to be fixed to a rotor of a trailer unit, which rotor is rotatably mounted on the trailer unit about an axis of rotation, and has a first coupling region, the rotor being a rotary plate of the trailer unit, wherein the second connector unit has at least one fastening region for fixing to a coupling plate of a commercial vehicle and a second coupling region, wherein said first and second coupling portions (62, 82) are adapted to be coupled to each other along a coupling axis, characterized in that the coupling axis is substantially parallel to the axis of rotation and spaced from the axis of rotation, and in that the first coupling portion is/are displaceable relative to the rotor and/or the second coupling portion is/are displaceable relative to the mounting portion along the coupling axis to engage or disengage the respective opposite coupling portion (62, 82). comprising a first connector unit and a second connector unit, wherein the first plug unit is designed to be fixed to a rotor of a trailer unit, which rotor is rotatably mounted on the trailer unit about an axis of rotation, and has a first coupling region, the rotor being a rotary plate of the trailer unit, wherein the second connector unit has at least one fastening region for fixing to a coupling plate of a commercial vehicle and a second coupling region, wherein said first and second coupling portions (62, 82) are adapted to be coupled to each other along a coupling axis, characterized in that the coupling axis is substantially parallel to the axis of rotation and spaced from the axis of rotation, and in that the first coupling portion is/are displaceable relative to the rotor and/or the second coupling portion is/are displaceable relative to the mounting portion along the coupling axis to engage or disengage the respective opposite coupling portion (62, 82).
A door lock system comprising a handle assembly and a separate secondary lock, the handle assembly includes a locking mechanism and is installable on a door, wherein: the locking mechanism includes a bolting system and an internal mechanism, wherein the internal mechanism acts on the bolting system to throw one or more bolts of the bolting system between open and closed positions, and the secondary lock is able to be actuated to act on a moving part of the bolting system when the bolting system is in the closed position and in order to restrain movement of the bolting system, wherein the secondary lock includes a bolt and said moving part of the bolting system includes a recess provided as an aperture, and the bolt engages the recess to provide said restraint of movement, characterised in that: the bolting system includes a drive rail and the moving part comprises a lug affixed to the drive rail so as to move therewith, the lug configured to extend parallel with the inside and outside faces of the door; the recess/aperture being provided in the lug and configured to extend in a direction perpendicular to the inside face of the door, wherein the secondary lock is arranged to act on the lug; wherein the bolt is arranged to penetrate through said moving part through the aperture. the locking mechanism includes a bolting system and an internal mechanism, wherein the internal mechanism acts on the bolting system to throw one or more bolts of the bolting system between open and closed positions, and the secondary lock is able to be actuated to act on a moving part of the bolting system when the bolting system is in the closed position and in order to restrain movement of the bolting system, wherein the secondary lock includes a bolt and said moving part of the bolting system includes a recess provided as an aperture, and the bolt engages the recess to provide said restraint of movement, characterised in that: the bolting system includes a drive rail and the moving part comprises a lug affixed to the drive rail so as to move therewith, the lug configured to extend parallel with the inside and outside faces of the door; the recess/aperture being provided in the lug and configured to extend in a direction perpendicular to the inside face of the door, wherein the secondary lock is arranged to act on the lug; wherein the bolt is arranged to penetrate through said moving part through the aperture. the bolting system includes a drive rail and the moving part comprises a lug affixed to the drive rail so as to move therewith, the lug configured to extend parallel with the inside and outside faces of the door; the recess/aperture being provided in the lug and configured to extend in a direction perpendicular to the inside face of the door, wherein the secondary lock is arranged to act on the lug; wherein the bolt is arranged to penetrate through said moving part through the aperture.