mhurhangee/ep-ind-claims huggingface dataset:
A device for handling components preferably to be coated, namely hoods, flaps, doors or the like of motor vehicle bodies or other vehicles, comprising a grasping element, which can be changed by fluid effect, in terms of volume and/or in terms of shape, in order to grasp the component, as a result of which the component can be handled, and a monitoring apparatus for monitoring whether or not the component is grasped by the grasping element, wherein the grasping element can be changed in terms of shape and/or in terms of volume by means of fluid supply and/or fluid removal, and is provided in order to adapt to the internal contour of an opening (Ö) in the component at least in sections, wherein the monitoring apparatus comprises: a) a first detection unit, in order to detect at least one fluid pressure with which the grasping element is loaded; b) a second detection unit, in order to detect at least one fluid volume with which the grasping element is loaded; c) a determination unit, in order to determine at least one fluid pressure/fluid volume curve based on the at least one fluid pressure and the at least one fluid volume with which the grasping element is loaded; d) and a comparison unit in order to compare the at least one determined fluid pressure/fluid volume curve with at least one reference fluid pressure/fluid volume curve. a) a first detection unit, in order to detect at least one fluid pressure with which the grasping element is loaded; b) a second detection unit, in order to detect at least one fluid volume with which the grasping element is loaded; c) a determination unit, in order to determine at least one fluid pressure/fluid volume curve based on the at least one fluid pressure and the at least one fluid volume with which the grasping element is loaded; d) and a comparison unit in order to compare the at least one determined fluid pressure/fluid volume curve with at least one reference fluid pressure/fluid volume curve.
A method for processing a page fault by using a processor and an operating system, the method comprising: performing demand paging depending on an application operation; and loading, at the processor, data on a memory in response to the demand paging, wherein the loading of the data on the memory includes looking up, at a memory management unit constituting the processor, a page table, checking a present bit of a page table entry, when the present bit corresponds to a first value determined in advance, checking a logical block address, LBA, bit of the page table entry without returning a page frame number, and when the LBA bit corresponds to a second value determined in advance, directly processing the page fault through a fault processing unit constituting the processor, the fault processing unit configured to process the page fault in hardware without calling an operating system fault handler. performing demand paging depending on an application operation; and loading, at the processor, data on a memory in response to the demand paging, wherein the loading of the data on the memory includes looking up, at a memory management unit constituting the processor, a page table, checking a present bit of a page table entry, when the present bit corresponds to a first value determined in advance, checking a logical block address, LBA, bit of the page table entry without returning a page frame number, and when the LBA bit corresponds to a second value determined in advance, directly processing the page fault through a fault processing unit constituting the processor, the fault processing unit configured to process the page fault in hardware without calling an operating system fault handler. looking up, at a memory management unit constituting the processor, a page table, checking a present bit of a page table entry, when the present bit corresponds to a first value determined in advance, checking a logical block address, LBA, bit of the page table entry without returning a page frame number, and when the LBA bit corresponds to a second value determined in advance, directly processing the page fault through a fault processing unit constituting the processor, the fault processing unit configured to process the page fault in hardware without calling an operating system fault handler.
Method for producing an aircraft window with a light transmission control device for an aircraft window which has at least one window pane (60, 62) that is curved with a defined curvature, comprising the steps of: a0) precurving the transparent pane to be shaped, by applying a loading transversely in relation to a direction of curvature of the transparent pane to be shaped that is at the softening temperature, a) curving a first transparent pane in order to adapt it to the defined curvature and b) arranging at least part of a controllable light transmission variation device for varying the light transmission through the aircraft window on the first transparent pane. a0) precurving the transparent pane to be shaped, by applying a loading transversely in relation to a direction of curvature of the transparent pane to be shaped that is at the softening temperature, a) curving a first transparent pane in order to adapt it to the defined curvature and b) arranging at least part of a controllable light transmission variation device for varying the light transmission through the aircraft window on the first transparent pane.
A method of producing a tube formed of fibre reinforced composite material including: wrapping around an elongate hollow cylindrical mandrel having an internal mandrel cavity with reinforcing fibre material to provide a composite lay-up of a generally tubular shape therearound, characterized in inserting a fluid flow means through an open end of the internal mandrel cavity, the fluid flow means including an inner body having inlet and outlet ports (12, 14) at one end thereof, a body chamber, and an outer cylindrical wall at least adjacent to an inner wall surface of the mandrel when accommodated therein, and circulating heat transfer fluid at elevated temperature through the body chamber to thereby raise the temperature of an external wall of the mandrel and cure or form at least a substantial portion of the composite lay-up, and removing the fluid flow means from the internal mandrel cavity. wrapping around an elongate hollow cylindrical mandrel having an internal mandrel cavity with reinforcing fibre material to provide a composite lay-up of a generally tubular shape therearound, characterized in inserting a fluid flow means through an open end of the internal mandrel cavity, the fluid flow means including an inner body having inlet and outlet ports (12, 14) at one end thereof, a body chamber, and an outer cylindrical wall at least adjacent to an inner wall surface of the mandrel when accommodated therein, and circulating heat transfer fluid at elevated temperature through the body chamber to thereby raise the temperature of an external wall of the mandrel and cure or form at least a substantial portion of the composite lay-up, and removing the fluid flow means from the internal mandrel cavity.
Method for generating control signals for assisting occupants of a vehicle, in which a context of the vehicle is determined, a rule of a rule-based data system is selected on the basis of the determined context, wherein the rule-based data system comprises a multiplicity of rules, wherein each rule has a condition part and a result part, wherein the condition part comprises conditions for the context of the vehicle, a confidence value assigned to the selected rule is determined, wherein the confidence value indicates the probability with which the rule result of the rule corresponds to the preference of the user, a rule result of the selected rule is generated, a control signal is generated and output on the basis of the generated rule result, wherein the control signal automates a vehicle function with a degree of automation, wherein the degree of automation depends on the confidence value of the selected rule, characterized in that a status value for a status is assigned to a rule of the rule-based data system, wherein the status value indicates how the confidence value of this rule should be interpreted for this rule, wherein the status comprises at least a first, a second and a third status value, wherein the assigned rule is automatically applied for the first status value, the assigned rule is not automatically applied for the second status value and the assigned rule is applied on the basis of the confidence value of the assigned rule for the third status value. a context of the vehicle is determined, a rule of a rule-based data system is selected on the basis of the determined context, wherein the rule-based data system comprises a multiplicity of rules, wherein each rule has a condition part and a result part, wherein the condition part comprises conditions for the context of the vehicle, a confidence value assigned to the selected rule is determined, wherein the confidence value indicates the probability with which the rule result of the rule corresponds to the preference of the user, a rule result of the selected rule is generated, a control signal is generated and output on the basis of the generated rule result, wherein the control signal automates a vehicle function with a degree of automation, wherein the degree of automation depends on the confidence value of the selected rule, a status value for a status is assigned to a rule of the rule-based data system, wherein the status value indicates how the confidence value of this rule should be interpreted for this rule, wherein the status comprises at least a first, a second and a third status value, wherein the assigned rule is automatically applied for the first status value, the assigned rule is not automatically applied for the second status value and the assigned rule is applied on the basis of the confidence value of the assigned rule for the third status value.
A method for the thermocatalytic depolymerisation of plastic waste products, during which input substances are heated, wherein a melt pool is produced in a tank or reactor using low-melting metals or metal alloys, characterised by the fact that the input substances are metered directly into the lower part of the tank or reactor as solid materials, with the automatic flow of the input substance throughout the melt pool being slowed down by means of barrier walls, spiral guide pipes or a lattice, and the melt pool being at a temperature of between 50°C and 550°C
A method for additively manufacturing an impeller for a thermal management device, the method comprising: additively manufacturing a first stage rotor by partially curing a curable liquid in a curable liquid bath to form the first stage rotor; removing the first stage rotor from the curable liquid bath, the first stage rotor having excess curable liquid on a surface thereof; rotating the first stage rotor to displace the excess curable liquid radially outward from a rotational axis to compensate for imbalances in the first stage rotor, the excess curable liquid that is removed from the rotor falling back into the curable liquid bath; and fully curing the first stage rotor and the remaining excess curable liquid to produce a second stage rotor that is more rotationally balanced than the first stage rotor. additively manufacturing a first stage rotor by partially curing a curable liquid in a curable liquid bath to form the first stage rotor; removing the first stage rotor from the curable liquid bath, the first stage rotor having excess curable liquid on a surface thereof; rotating the first stage rotor to displace the excess curable liquid radially outward from a rotational axis to compensate for imbalances in the first stage rotor, the excess curable liquid that is removed from the rotor falling back into the curable liquid bath; and fully curing the first stage rotor and the remaining excess curable liquid to produce a second stage rotor that is more rotationally balanced than the first stage rotor.
A memristor with a channel region in thermal equilibrium with a containing region, the memristor comprising: a channel having a variable concentration of mobile ions; and a containing region of stoichiometric crystalline material containing and in thermal equilibrium with the channel region; region; characterized in that the channel region comprises a core and a gradient region; and in that the memristor further comprises a substrate;; an insulating layer adjacent to the substrate; a first contact adjacent to the insulating layer; a second contact, spaced apart from the first contact; wherein the containing region is disposed between the contacts; and the channel region is surrounded by the containing region, the first contact, and the second contact. a channel having a variable concentration of mobile ions; and a containing region of stoichiometric crystalline material containing and in thermal equilibrium with the channel region; region; characterized in that the channel region comprises a core and a gradient region; and in that the memristor further comprises a substrate;; an insulating layer adjacent to the substrate; a first contact adjacent to the insulating layer; a second contact, spaced apart from the first contact; wherein the containing region is disposed between the contacts; and the channel region is surrounded by the containing region, the first contact, and the second contact.
Exhaust gas recirculation cooler module comprising an exhaust gas inlet, an exhaust gas outlet and an exhaust gas bypass channel connecting these directly to one another, and an inner housing having an exhaust gas cooling channel and an outer housing which, together with the inner housing, encloses a coolant chamber, the exhaust gas cooling channel being formed by at least two cooling channel loops (33, 37) arranged spatially parallel to one another, said loops being in serial fluid communication with each other, characterized in that a mixing housing part includes the bypass channel and a connecting channel shielded therefrom which connects the two cooling channel loops (33, 37) to one another, and the mixing housing part includes a coolant chamber.
A radiation sensor comprising: a scintillation layer configured to emit photons upon interaction with ionizing radiation; a photodetector including in order a first electrode, a photosensitive layer, and a photon-transmissive second electrode disposed in proximity to the scintillation layer; said photosensitive layer configured to generate electron-hole pairs upon interaction with a part of said photons; pixel circuitry electrically connected to the first electrode and configured to measure an imaging signal indicative of said electron-hole pairs generated in the photosensitive layer; a planarization layer disposed on the pixel circuitry between the first electrode and the pixel circuitry such that the first electrode is above a plane including the pixel circuitry; a surface of at least one of said first electrode and said second electrode at least partially overlapping the pixel circuitry and having a planar portion and a surface inflection above features of the pixel circuitry; and said surface inflection extending from said planar portion and having, from said planar portion, a radius of curvature greater than one half micron. a scintillation layer configured to emit photons upon interaction with ionizing radiation; a photodetector including in order a first electrode, a photosensitive layer, and a photon-transmissive second electrode disposed in proximity to the scintillation layer; said photosensitive layer configured to generate electron-hole pairs upon interaction with a part of said photons; pixel circuitry electrically connected to the first electrode and configured to measure an imaging signal indicative of said electron-hole pairs generated in the photosensitive layer; a planarization layer disposed on the pixel circuitry between the first electrode and the pixel circuitry such that the first electrode is above a plane including the pixel circuitry; a surface of at least one of said first electrode and said second electrode at least partially overlapping the pixel circuitry and having a planar portion and a surface inflection above features of the pixel circuitry; and said surface inflection extending from said planar portion and having, from said planar portion, a radius of curvature greater than one half micron.
A container, in particular for medicines, preferably in the form of a bottle, whose threaded neck is closed with a threaded cap, made of an internally threaded cylinder closed with a cover, the cover has a circular cut-out in which another cylindrical container is placed enclosed from a bottom with a film, while a punch is attached to a top wall of the other cylindrical container from the inside, and the punch has the form of a cylinder whose bottom part is obliquely cut, characterised in that the other cylindrical container on an outer surface has two rings (8, 9) between which the cover of the cap is placed, wherein a Top ring of the other cylindrical container has a conical surface, while the top wall of the other cylindrical container is flexible.
A coating system (1000A, 1000B) for providing a coating on a substrate (4000, 4000A-4000C, 4006A-4006C), the system comprising: an enclosed ink jet printing system (2000, 2000A, 2000B) configured to deposit a patterned organic material on the substrate (4000, 4000A-4000C, 4006A-4006C), the patterned organic material coating a deposition region over at least a portion of a light-emitting device fabricated upon the substrate (4000, 4000A-4000C, 4006A-4006C); an enclosed curing module (2302, 8314) comprising a chuck (920, 2220, 2320A-2320N, 2420A-2420C) configured to accommodate the substrate (4000, 4000A, 4000B, 4000C) in an ultraviolet treatment region of the enclosed curing module (2302, 8314), the ultraviolet treatment region configured to provide an ultraviolet treatment to the patterned organic material; and an enclosed substrate transfer module (1400, 1400A, 1400B) configured to receive the substrate (4000, 4000A-4000C, 4006A-4006C) from an environment different from an environment of one or more of the enclosed ink jet printing system (2000, 2000A, 2000B) or the enclosed curing module (2302, 8314); wherein the chuck (920, 2220, 2320A-2320N, 2420A-2420C) is configured to distribute a pressurized gas cushion sufficient to float the substrate (4000, 4000A-4000C, 4006A-4006C) above the chuck (920, 2220, 2320A-2320N, 2420A-2420C). an enclosed ink jet printing system (2000, 2000A, 2000B) configured to deposit a patterned organic material on the substrate (4000, 4000A-4000C, 4006A-4006C), the patterned organic material coating a deposition region over at least a portion of a light-emitting device fabricated upon the substrate (4000, 4000A-4000C, 4006A-4006C); an enclosed curing module (2302, 8314) comprising a chuck (920, 2220, 2320A-2320N, 2420A-2420C) configured to accommodate the substrate (4000, 4000A, 4000B, 4000C) in an ultraviolet treatment region of the enclosed curing module (2302, 8314), the ultraviolet treatment region configured to provide an ultraviolet treatment to the patterned organic material; and an enclosed substrate transfer module (1400, 1400A, 1400B) configured to receive the substrate (4000, 4000A-4000C, 4006A-4006C) from an environment different from an environment of one or more of the enclosed ink jet printing system (2000, 2000A, 2000B) or the enclosed curing module (2302, 8314); wherein the chuck (920, 2220, 2320A-2320N, 2420A-2420C) is configured to distribute a pressurized gas cushion sufficient to float the substrate (4000, 4000A-4000C, 4006A-4006C) above the chuck (920, 2220, 2320A-2320N, 2420A-2420C).
Method of making a cable lighting assembly, said method comprising: providing a flexible electrical cable (14, 47) comprising an electrical conductor (16, 45) insulated by electrical insulation; providing a light emitting diode (43, 73) comprising a light emitting die mounted on a heat slug and electrically connected to an anode lead and a cathode lead; said method being characterized by further comprising: removing a portion of the electrical insulation to expose at least one surface mounting area on the surface of the electrical conductor (16, 45) of the flexible electrical cable (14, 47); surface mounting the light emitting diode (43, 73) by soldering the heat slug of the light emitting diode (43, 73) to the mounting area of the conductor on which either the anode lead or the cathode lead is soldered. providing a flexible electrical cable (14, 47) comprising an electrical conductor (16, 45) insulated by electrical insulation; providing a light emitting diode (43, 73) comprising a light emitting die mounted on a heat slug and electrically connected to an anode lead and a cathode lead; said method being characterized by further comprising: removing a portion of the electrical insulation to expose at least one surface mounting area on the surface of the electrical conductor (16, 45) of the flexible electrical cable (14, 47); surface mounting the light emitting diode (43, 73) by soldering the heat slug of the light emitting diode (43, 73) to the mounting area of the conductor on which either the anode lead or the cathode lead is soldered. removing a portion of the electrical insulation to expose at least one surface mounting area on the surface of the electrical conductor (16, 45) of the flexible electrical cable (14, 47); surface mounting the light emitting diode (43, 73) by soldering the heat slug of the light emitting diode (43, 73) to the mounting area of the conductor on which either the anode lead or the cathode lead is soldered.