mhurhangee/ep-ind-claims huggingface dataset:
Door fitting with a coupling via which an outer handle, such as in particular an exterior lever handle or the like, can be decoupled from a lock mechanism assigned to the door and, in particular in combination with an access control system or the like, can be coupled to the lock mechanism, wherein the outer handle is connected to a first follower part of a divided lock follower, and the lock mechanism is connected to a second follower part of same, the second follower part being assigned to an inner handle, and the coupling comprises at least one magnetized element which interacts with the divided lock follower and is movable between a coupled position connecting the two follower parts (14, 16) to each other and a decoupled position leaving the two follower parts (14, 16) separate from each other, and an adjustment element which is provided with corresponding magnets (20, 22), or is correspondingly magnetized at least in sections, for acting upon the magnetized element, wherein the coupling comprises at least one magnetized pin which interacts with the divided lock follower and is movable between a coupled position connecting the two follower parts (14, 16) to each other and a decoupled position leaving the two follower parts (14, 16) separate from each other, and an adjustment disc which is provided with corresponding magnets (20, 22) or is correspondingly magnetized at least in sections, for acting upon the magnetized pin in different directions and which is adjustable via an actuator between two positions in which the magnets (20, 22) or the magnetized sections thereof are adjusted relative to the magnetized pin in such a manner that the magnetized pin takes up its coupled position or its decoupled position, wherein the at least one magnetized pin in its coupled position engages in mutually aligned depressions (32, 34) of the two follower parts (14, 16) of the lock follower and, in its decoupled position, moves out of the depression of one of the two follower parts (14, 16) and is at least partially returned to the depression of the other follower part, characterized in that the second follower part of the divided lock follower, said second follower part being connected to the lock mechanism, is movable out of an initial position counter to the spring force of a resetting spring unit and, when the follower parts (14, 16) of the divided lock follower are coupled to each other via the at least one magnetized pin, during an actuation of the outer handle the at least one magnetized pin is clamped between the two follower parts (14, 16) as a result of the prestress which is produced by the resetting spring unit assigned to the second follower part, and the at least one magnetized pin is thereby held in its coupled position.
Radiation-emitting semiconductor component comprising - a multilayer structure containing a radiation-emitting active layer, - electrical contacts (30, 40) for inputting current into the multilayer structure, and - a radiation-transmissive window layer, which - is arranged exclusively at that side of the multilayer structure which faces away from a main emission direction of the semiconductor component, - has at least one sidewall which has a first sidewall part, which runs obliquely toward a centre axis of the semiconductor body, said centre axis being perpendicular to the multilayer sequence, and which, as viewed from the multilayer structure in the further course away from the main emission direction, undergoes transition to a second sidewall part, characterized in that - the second sidewall part runs perpendicularly to the multilayer structure, that is to say parallel to the centre axis, and - that part of the window layer which comprises the second sidewall part forms a mounting base for the semiconductor component, and - the first sidewall part is a planar oblique area which forms an angle (α) with the centre axis, said angle being between 20° and 40° inclusive. - a multilayer structure containing a radiation-emitting active layer, - electrical contacts (30, 40) for inputting current into the multilayer structure, and - a radiation-transmissive window layer, which - is arranged exclusively at that side of the multilayer structure which faces away from a main emission direction of the semiconductor component, - has at least one sidewall which has a first sidewall part, which runs obliquely toward a centre axis of the semiconductor body, said centre axis being perpendicular to the multilayer sequence, and which, as viewed from the multilayer structure in the further course away from the main emission direction, undergoes transition to a second sidewall part, characterized in that - the second sidewall part runs perpendicularly to the multilayer structure, that is to say parallel to the centre axis, and - that part of the window layer which comprises the second sidewall part forms a mounting base for the semiconductor component, and - the first sidewall part is a planar oblique area which forms an angle (α) with the centre axis, said angle being between 20° and 40° inclusive.
A display device comprising: a mold frame; a backlight assembly in the mold frame; and a liquid crystal panel on the backlight assembly, wherein the backlight assembly comprises: a reflective sheet; a light guide member disposed on the reflective sheet, the light guide member comprising a light guide section; a light source at a lateral side of the light guide member; a wavelength conversion member to convert a wavelength of light generated from the light source; a spacer spacing apart the wavelength conversion member and the light source, at least one optical sheet on the light guide member, wherein the backlight assembly is configured such that the reflective sheet reflects the light generated from the light source upwards, wherein the wavelength conversion member is sandwiched between the spacer and the light guide section, wherein the wavelength conversion member includes a first surface facing the light source, wherein the wavelength conversion member comprises: a tube; a matrix in the tube; wavelength conversion particles in the matrix; and an air layer in the tube, wherein the wavelength conversion comprises a plurality of quantum dots. a mold frame; a backlight assembly in the mold frame; and a liquid crystal panel on the backlight assembly, wherein the backlight assembly comprises: a reflective sheet; a light guide member disposed on the reflective sheet, the light guide member comprising a light guide section; a light source at a lateral side of the light guide member; a wavelength conversion member to convert a wavelength of light generated from the light source; a spacer spacing apart the wavelength conversion member and the light source, at least one optical sheet on the light guide member, a reflective sheet; a light guide member disposed on the reflective sheet, the light guide member comprising a light guide section; a light source at a lateral side of the light guide member; a wavelength conversion member to convert a wavelength of light generated from the light source; a spacer spacing apart the wavelength conversion member and the light source, at least one optical sheet on the light guide member, wherein the backlight assembly is configured such that the reflective sheet reflects the light generated from the light source upwards, wherein the wavelength conversion member is sandwiched between the spacer and the light guide section, wherein the wavelength conversion member includes a first surface facing the light source, wherein the wavelength conversion member comprises: a tube; a matrix in the tube; wavelength conversion particles in the matrix; and an air layer in the tube, a tube; a matrix in the tube; wavelength conversion particles in the matrix; and an air layer in the tube, wherein the wavelength conversion comprises a plurality of quantum dots.
A method for use in a coating process, the method comprising: locating at least one component within a coating chamber with respect to a source of coating material; characterised by: dynamically changing differential gas pressures of multiple localized zones (34a, 34b, 34c, 34d) in the coating chamber with respect to each other to dynamically shift a balance between coating material deposited onto surfaces of the at least one component that are in a line-of-sight of the source and coating material deposited onto surfaces of the at least one component that are shadowed from the line-of-sight to the source, the multiple localized zones (34a, 34b, 34c, 34d) including a first localized zone around the at least one component, a second localized zone adjacent the source of coating material, a third localized zone that diverges from the second localized zone toward the first localized zone, and a fourth localized zone that circumscribes at least the third localized zone, including increasing the gas pressure in the first localized zone with respect to the third localized zone to form a gas screen to limit or eliminate entry of coating material into the first localized zone from a plume of coating material within the third localized zone. locating at least one component within a coating chamber with respect to a source of coating material; characterised by: dynamically changing differential gas pressures of multiple localized zones (34a, 34b, 34c, 34d) in the coating chamber with respect to each other to dynamically shift a balance between coating material deposited onto surfaces of the at least one component that are in a line-of-sight of the source and coating material deposited onto surfaces of the at least one component that are shadowed from the line-of-sight to the source, the multiple localized zones (34a, 34b, 34c, 34d) including a first localized zone around the at least one component, a second localized zone adjacent the source of coating material, a third localized zone that diverges from the second localized zone toward the first localized zone, and a fourth localized zone that circumscribes at least the third localized zone, including increasing the gas pressure in the first localized zone with respect to the third localized zone to form a gas screen to limit or eliminate entry of coating material into the first localized zone from a plume of coating material within the third localized zone.
A raw gas collection system for collecting raw gas from a plurality of aluminium smelting pots, the raw gas collection system comprising a common collection duct for channeling a common collection duct flow of raw gas in a common collection duct flow direction; and a plurality of branch ducts (28a-f), each of said branch ducts (28a-f) having an inlet connected to a smelting pot for drawing a branch flow of raw gas therefrom, and a discharge end connected to the common collection duct, said discharge end being equipped with an alignment section for aligning the branch flow with the direction of said common collection duct flow, a discharge aperture, and a constriction for accelerating the branch flow through the discharge aperture into the common collection duct, characterized in each of at least two branch ducts (28a-d) of said plurality of branch ducts (28a-f) being provided with a respective heat exchanger (40a-d), each of said heat exchangers (40a-d) being provided with a respective heat transfer element positioned at a discharge aperture and located in the flow path of the respective branch flow (38a-d), for transferring heat from the respective branch flow of raw gas to a heat transfer medium, and for generating a flow resistance in the respective branch duct (28a-d), said flow resistance being operative for balancing the branch flows (38a-d) of said at least two branch ducts (28a-d).
Method for illuminating an object in a digital light microscope, wherein a bright field reflected-light illumination is effected by means of an illumination device comprising light-emitting diodes as light sources, wherein a dark field reflected-light illumination is furthermore effected by means of a ring illumination device comprising light-emitting diodes as light sources, said ring illumination device being mechanically and electrically couplable to an objective of the light microscope, wherein the bright field reflected-light illumination and the dark field reflected-light illumination are separately drivable and superimposable, characterized in that the bright field reflected-light illumination and the dark field reflected-light illumination are in each case configured as "critical illumination", in which an image of the light source is projected into an object plane.
Warehouse forklift, in particular pallet truck, for optional operation in the pedestrian mode and stand-on mode, with a driver workplace module which comprises a driver stand-on platform, in particular a foldable driver stand-on platform, and pivotable side bars, characterized in that, in the position for the stand-on mode, the side bars (8a; 8b) are adjustable in height for adapting the height of the side bars to the height of an operator standing on the driver stand-on platform and are securable in different height positions.
A refrigerant comprising at least about 97% by weight of the following four compounds, with each compound being present in the following relative percentages: from 1% by weight to 2% +/- 0.5% by weight trans-1-chloro-3,3,3-trifluoropropene (HFCO-1233zd), from about 73% by weight to about 87% by weight trans-1,3,3,3-tetrafluoropropene (HFO-1234ze), 4.4 % +/- 0.5% by weight 1,1,1,2,3,3,3-heptafluoropropane (HFC-227ea), and from about 6.6% by weight to about 20.6% by weight trifluoroiodomethane (CF 3 I). from 1% by weight to 2% +/- 0.5% by weight trans-1-chloro-3,3,3-trifluoropropene (HFCO-1233zd), from about 73% by weight to about 87% by weight trans-1,3,3,3-tetrafluoropropene (HFO-1234ze), 4.4 % +/- 0.5% by weight 1,1,1,2,3,3,3-heptafluoropropane (HFC-227ea), and from about 6.6% by weight to about 20.6% by weight trifluoroiodomethane (CF 3 I).
A rotor assembly comprising: plural blades mounted to a rotor disk and spaced apart along an outer periphery of the rotor disk, the blades having airfoils extending from the rotor disk, the blades including a carrier shroud and a lid shroud extending from the respective airfoil in generally opposite directions to respective distal ends, the carrier shrouds defining pockets that extend into the carrier shrouds, opposing distal ends of the carrier shroud of one of the blades and of the lid shroud of a neighboring blade being separated from each other by a shroud gap and being configured to engage each other; and damping inserts disposed in the pockets of the carrier shrouds of the blades and free-floating within the pockets, the damping inserts configured to dampen vibrations of the blades during rotation of the blades and the rotor disk via engaging an interior surface within the corresponding pocket of the carrier shroud and engaging the lid shroud of the neighboring blade, wherein a contact force applied by each damping insert on the distal end of the lid shroud of the neighboring blade is based on a rotational speed of the blades and the rotor disk, characterized in that openings of the pockets are defined along corresponding edge surfaces at the opposing distal ends of the carrier shrouds; and that the damping inserts are elongated along a central axis and are held in the corresponding pockets of the carrier shrouds such that the central axis is generally parallel to the edge surface of the corresponding carrier shroud. plural blades mounted to a rotor disk and spaced apart along an outer periphery of the rotor disk, the blades having airfoils extending from the rotor disk, the blades including a carrier shroud and a lid shroud extending from the respective airfoil in generally opposite directions to respective distal ends, the carrier shrouds defining pockets that extend into the carrier shrouds, opposing distal ends of the carrier shroud of one of the blades and of the lid shroud of a neighboring blade being separated from each other by a shroud gap and being configured to engage each other; and damping inserts disposed in the pockets of the carrier shrouds of the blades and free-floating within the pockets, the damping inserts configured to dampen vibrations of the blades during rotation of the blades and the rotor disk via engaging an interior surface within the corresponding pocket of the carrier shroud and engaging the lid shroud of the neighboring blade, wherein a contact force applied by each damping insert on the distal end of the lid shroud of the neighboring blade is based on a rotational speed of the blades and the rotor disk, characterized in that openings of the pockets are defined along corresponding edge surfaces at the opposing distal ends of the carrier shrouds; and that the damping inserts are elongated along a central axis and are held in the corresponding pockets of the carrier shrouds such that the central axis is generally parallel to the edge surface of the corresponding carrier shroud.
Transmission for a motor vehicle, having a housing which at least partially encloses at least one movable transmission part and which in a normal operating mode of the transmission is filled with an operating medium, and having a heating element which is configured for outputting a heat output for heating the operating medium, wherein the heating element is configured for outputting the heat output to the housing by means of a first coupling surface and the housing is configured for outputting the heat output to the operating medium by means of a second coupling surface and thus the heat output can be transferred from the heating element to the operating medium predominantly or completely indirectly by means of the housing, characterised in that the housing is produced with one housing part made of a first material and has a thermal conducting element for distributing and/or conducting the heat output, wherein the thermal conducting element is formed from a second material which has a greater coefficient of thermal conductivity than the first material.
Apparatus for extruding flowable food masses, having at least one filling flow divider (4, 6) which comprises an inlet (36, 38) for introducing the flowable mass and a plurality of outlets (24, 26) for delivering a plurality of mass flows of the flowable mass, and a nozzle arrangement, having a plurality of nozzles, each comprising an inlet (28, 30), connectable to an outlet of the filling flow divider (4, 6), and an outlet for extruding the flowable mass, characterised in that the filling flow divider (4, 6) is mounted movably relative to the nozzle arrangement by means of a bearing device (8, 10), the bearing device (8, 10) comprising at least one linear guide, and the linear guide comprising one or more rails and/or pipes (12, 13, 16, 17) and one or more rollers (72a, 72b, 72c, 74a, 74b, 74c) guided on the rail and/or the pipe (12, 13, 16, 17).
A media stream playing method, wherein the method comprises: obtaining a first attribute parameter set when detecting that a first passenger views a first media stream played on a first vehicle-mounted screen, wherein the first attribute parameter set comprises an identity of the first passenger and the first vehicle-mounted screen viewed by the first passenger; and when determining that attention of the first passenger is lost from the first vehicle-mounted screen, indicating to pause playing of the first media stream on the first vehicle-mounted screen, except if determining that a second vehicle-mounted screen that is viewed by a second passenger and that is in a stored second attribute parameter set is the same as the first vehicle-mounted screen, then indicating to continue playing the first media stream on the first vehicle-mounted screen, wherein the second attribute parameter set comprises an identity of the second passenger and the second vehicle-mounted screen viewed by the second passenger. obtaining a first attribute parameter set when detecting that a first passenger views a first media stream played on a first vehicle-mounted screen, wherein the first attribute parameter set comprises an identity of the first passenger and the first vehicle-mounted screen viewed by the first passenger; and when determining that attention of the first passenger is lost from the first vehicle-mounted screen, indicating to pause playing of the first media stream on the first vehicle-mounted screen, except if determining that a second vehicle-mounted screen that is viewed by a second passenger and that is in a stored second attribute parameter set is the same as the first vehicle-mounted screen, then indicating to continue playing the first media stream on the first vehicle-mounted screen, wherein the second attribute parameter set comprises an identity of the second passenger and the second vehicle-mounted screen viewed by the second passenger.
Ultrasonic sound-based measuring sensor (10a to 10e) of a motor vehicle, such as a distance sensor or line spot sensor, having a diaphragm element which can be electrically excited to oscillate by an actuation unit, characterized in that the actuation unit and diaphragm element are designed to implement a heating mode which is modified with respect to the measuring mode and in which the diaphragm element heats up to a temperature which is above a freezing point, and in that the heating mode comprises actuation of the diaphragm element which is prolonged and/or at a higher frequency in comparison with the measuring mode.
A method for identity authentication, comprising: collecting, by a terminal, action attribute information of a user in a call answering process of raising the terminal for conversation when the user raises the terminal for conversation, wherein the action attribute information includes an acceleration value and an acceleration direction of the terminal at multiple moments; determining, according to preset standard information, whether the action attribute information is matched with the standard information; if yes, the authentication being successful, performing processing corresponding to the call answering process; and otherwise, the authentication being failed, refusing to perform the processing corresponding to the call answering process. collecting, by a terminal, action attribute information of a user in a call answering process of raising the terminal for conversation when the user raises the terminal for conversation, wherein the action attribute information includes an acceleration value and an acceleration direction of the terminal at multiple moments; determining, according to preset standard information, whether the action attribute information is matched with the standard information; if yes, the authentication being successful, performing processing corresponding to the call answering process; and otherwise, the authentication being failed, refusing to perform the processing corresponding to the call answering process.
A method of potency testing a viral vector vaccine composition encoding a recombinant protein or a nucleic acid vaccine composition encoding a recombinant protein, wherein the method comprises: (i) infecting a cell culture with the viral vector vaccine composition or nucleic acid vaccine composition; (ii) lysing said cell culture to form a cell lysate; and (iii) quantifying the recombinant protein encoded by the viral vector vaccine composition or the nucleic acid vaccine composition as expressed in the cell culture using mass spectrometry; and wherein the method does not require any additional steps to purify the recombinant protein from other proteins in the cell lysate (i) infecting a cell culture with the viral vector vaccine composition or nucleic acid vaccine composition; (ii) lysing said cell culture to form a cell lysate; and (iii) quantifying the recombinant protein encoded by the viral vector vaccine composition or the nucleic acid vaccine composition as expressed in the cell culture using mass spectrometry; and wherein the method does not require any additional steps to purify the recombinant protein from other proteins in the cell lysate