mhurhangee/ep-ind-claims huggingface dataset:
A method for the display of multiple errors on a human machine interface, the method comprising: displaying a graphical view of an industrial automation environment; detecting a plurality of error conditions related to machine operations within the industrial automation environment; determining a plurality of locations within the graphical view associated with the plurality of error conditions; identifying at least one group of error conditions from the plurality of error conditions based on the plurality of locations; and displaying a graphical representation of the at least one group of the error conditions, wherein the graphical representation groups the error conditions of the group together into a selectable single error element. displaying a graphical view of an industrial automation environment; detecting a plurality of error conditions related to machine operations within the industrial automation environment; determining a plurality of locations within the graphical view associated with the plurality of error conditions; identifying at least one group of error conditions from the plurality of error conditions based on the plurality of locations; and displaying a graphical representation of the at least one group of the error conditions, wherein the graphical representation groups the error conditions of the group together into a selectable single error element.
A rotary microtome, comprising: a specimen holder, configured to hold a specimen to be cut; a handwheel drive system, comprising a handwheel and a handwheel axis connected to the handwheel, and configured to receive a user operation via the handwheel and to move the specimen holder up and down via the handwheel axis based on the user operation; a damping component, connected to the handwheel axis, and configured to generate damping for rotation of the handwheel axis; a knife; a section motor, connected to the knife and configured to drive the knife to cut the specimen; and a control device, connected to the damping component and the section motor respectively, and configured to obtain an operation parameter of the section motor, and to adjust the damping generated by the damping component according to the operation parameter, such that the user feels a material hardness of the specimen. a specimen holder, configured to hold a specimen to be cut; a handwheel drive system, comprising a handwheel and a handwheel axis connected to the handwheel, and configured to receive a user operation via the handwheel and to move the specimen holder up and down via the handwheel axis based on the user operation; a damping component, connected to the handwheel axis, and configured to generate damping for rotation of the handwheel axis; a knife; a section motor, connected to the knife and configured to drive the knife to cut the specimen; and a control device, connected to the damping component and the section motor respectively, and configured to obtain an operation parameter of the section motor, and to adjust the damping generated by the damping component according to the operation parameter, such that the user feels a material hardness of the specimen.
A method, comprising: receiving, by a computing device, an enrolment request from a mobile device to enrol in a mobile device management, MDM, system, wherein the computing device is an MDM server; generating, by the computing device, a session cookie based on a device identifier of the mobile device and based on an identifier of the MDM system, wherein the session cookie is unique to an enrolment session of the mobile device into the MDM system; providing, by the computing device, the session cookie to the mobile device, wherein providing the session cookie to the mobile device comprises: embedding the session cookie into a client agent application; embedding an encryption key into the client agent application, wherein the encryption key is different from the session cookie; building the client agent application comprising the session cookie and the encryption key; and transmitting the client agent application to the mobile device; using, by the mobile device, the encryption key to secure the Inter-Process Communication, IPC, between the client agent application and a plurality of applications included in the mobile device. receiving, by a computing device, an enrolment request from a mobile device to enrol in a mobile device management, MDM, system, wherein the computing device is an MDM server; generating, by the computing device, a session cookie based on a device identifier of the mobile device and based on an identifier of the MDM system, wherein the session cookie is unique to an enrolment session of the mobile device into the MDM system; providing, by the computing device, the session cookie to the mobile device, wherein providing the session cookie to the mobile device comprises: embedding the session cookie into a client agent application; embedding an encryption key into the client agent application, wherein the encryption key is different from the session cookie; building the client agent application comprising the session cookie and the encryption key; and transmitting the client agent application to the mobile device; embedding the session cookie into a client agent application; embedding an encryption key into the client agent application, wherein the encryption key is different from the session cookie; building the client agent application comprising the session cookie and the encryption key; and transmitting the client agent application to the mobile device; using, by the mobile device, the encryption key to secure the Inter-Process Communication, IPC, between the client agent application and a plurality of applications included in the mobile device.
An optical transmission apparatus, comprising: a variable attenuator configured to adjust output intensity of each wavelength signal included in a multiplexed optical signal having been input; a monitor configured to measure an output spectrum of the variable attenuator; a calculation unit configured to calculate an amount of spectral narrowing and an amount of spectral surplus, based on a measured value by the monitor, and a target value set in advance; and a control unit configured to control an amount of attenuation of the variable attenuator, based on the amount of spectral narrowing and the amount of spectral surplus, wherein the amount of spectral narrowing corresponds to an amount of excess of the amount of attenuation of the variable attenuator, the amount of spectral surplus corresponds to an amount of deficiency of the amount of attenuation of the variable attenuator, and the control unit controls the amount of attenuation of the variable attenuator to minimize the amount of spectral narrowing and not to have the amount of spectral surplus exceed an upper limit value of the amount of spectral surplus. a variable attenuator configured to adjust output intensity of each wavelength signal included in a multiplexed optical signal having been input; a monitor configured to measure an output spectrum of the variable attenuator; a calculation unit configured to calculate an amount of spectral narrowing and an amount of spectral surplus, based on a measured value by the monitor, and a target value set in advance; and a control unit configured to control an amount of attenuation of the variable attenuator, based on the amount of spectral narrowing and the amount of spectral surplus,
A method for updating a media database in a portable terminal, the method comprising: detecting a change in a language of the portable terminal, wherein metadata of one or more media files has not been converted according to a currently used coding scheme according to a language prior to the change; determining the coding scheme corresponding to the changed language; converting each metadata corresponding to a corresponding media file of the one or more media files according to the currently used coding scheme; and storing each of the converted metadata in the media database; wherein the each metadata corresponding to a corresponding media file of the one or more media files includes information about the corresponding media file. detecting a change in a language of the portable terminal, wherein metadata of one or more media files has not been converted according to a currently used coding scheme according to a language prior to the change; determining the coding scheme corresponding to the changed language; converting each metadata corresponding to a corresponding media file of the one or more media files according to the currently used coding scheme; and storing each of the converted metadata in the media database; wherein the each metadata corresponding to a corresponding media file of the one or more media files includes information about the corresponding media file.
A mounting mat comprising: (a) from 16 to 80 wt% of biosoluble fibers; (b) at least 4 wt% of heat treated silica fibers having a silica content of greater than 67 percent by weight (pbw), based on a total weight of the fibers and having been exposed to a heat treatment comprising exposing the fibers to a heat treatment temperature of at least 400°C for a heat treatment period of at least 5 minutes; and (c) from 10 to 80 wt% of intumescent material, based on a total dry weight of the mat, wherein the intumescent material comprises unexpanded vermiculite, expandable graphite, or a combination thereof. (a) from 16 to 80 wt% of biosoluble fibers; (b) at least 4 wt% of heat treated silica fibers having a silica content of greater than 67 percent by weight (pbw), based on a total weight of the fibers and having been exposed to a heat treatment comprising exposing the fibers to a heat treatment temperature of at least 400°C for a heat treatment period of at least 5 minutes; and (c) from 10 to 80 wt% of intumescent material, based on a total dry weight of the mat,
A revolving tower crane having a tower to which a boom is attached, wherein the tower comprises at least one tower part (2.1; 2.2; 2.3) whose tower cross-section profile has front and rear tower sides (2V; 2R) through which a crane plane passes which includes a boom and the longitudinal tower axis, characterised in that the tower cross-section profile has a stepped cross-section tapering in the region of the side flanks (2L, 2R) between the front and rear tower sides (2V, 2H) which step-wise tapers the profile width transversely to the crane plane from a wider centre side flank section to a narrower end side flank section which adjoins the transition to the rear tower side or front tower side (2R; 2V).
An electric motor, comprising at least a stator, a rotor, a housing, a brake (3, 5) and/or a fan (12, 13), wherein the housing has at least a first mechanical interface which is provided for connection to a bearing shield, wherein the bearing shield comprises at least one bearing seat for the non-drive-end bearing of the rotor shaft, wherein the bearing shield comprises a further interface for connection to a lower part (4, 26), wherein the bearing shield forms a housing for the brake (3, 5) and/or the fan (12, 13), wherein [the] lower part (4, 26) has an interface for connection to a cover (14, 25), wherein the lower part (4, 26) forms a housing for at least one power electronics unit, the heat of which can be discharged directly or at least indirectly to the lower part, wherein the lower part (4, 26) is connected in thermally conductive manner to the bearing shield in such a way that heat of the power electronics can be discharged from the bearing shield to the ambient air, wherein the bearing shield has connection devices and/or centring devices for further apparatus or devices (40, 41) which can be arranged axially on the non-drive end, wherein the apparatus or devices comprise at least one rotating component which is connected directly or indirectly to the rotor shaft of the electric motor and can be detected in the region of the periphery of the fan, and at least one non-rotating component which is connected to the bearing shield and/or is centred thereon, wherein the apparatus or devices are angular sensors, in particular fine-resolution angular sensors.
A system for destroying a memory device having data stored thereon, the system comprising: a grind chamber; a rotatable grind wheel positioned inside the grind chamber; a pressure arm configured to press the memory device against the grind wheel as the grind wheel (130 rotates and grinds the memory device into particles from which the data stored on the memory device cannot be recovered; and a receptacle adjacent the grind wheel positioned to receive the particles; characterized in that the pressure arm is configured to move laterally from a disengaged position to an engaged position to contact the memory device adjacent an upper surface, the pressure arm being further configured to move longitudinally when the pressure arm is in the engaged position to press the memory device against the grind wheel. a grind chamber; a rotatable grind wheel positioned inside the grind chamber; a pressure arm configured to press the memory device against the grind wheel as the grind wheel (130 rotates and grinds the memory device into particles from which the data stored on the memory device cannot be recovered; and a receptacle adjacent the grind wheel positioned to receive the particles; characterized in that the pressure arm is configured to move laterally from a disengaged position to an engaged position to contact the memory device adjacent an upper surface, the pressure arm being further configured to move longitudinally when the pressure arm is in the engaged position to press the memory device against the grind wheel.
Built-in door part for a refrigerator, in particular a household refrigerator, which is equipped with a base plate, a rail and side walls connected by the base plate and the rail, wherein at least one of the side walls is covered by a mounted decorative element (10, 17, 23), characterised in that facing faces of decorative parts mounted on both side walls converge toward the front and a decorative part mounted on the rail has a dovetailed web that engages with a form fit between the inner faces.
An actuator (1, 1M, 1S, 1S') comprising an electric motor and a motor controller, wherein the actuator (1, 1M, 1S, 1S') is configurable to operate as a master or a slave to another actuator (1, 1M, 1S, 1S') which is coupled mechanically to the actuator (1, 1M, 1S, 1S') for driving a common load; the motor controller includes a mode detector configured to detect whether the actuator (1, 1M, 1S, 1S') is set as a master or a slave; the motor controller is configured, for the case where the actuator is set as the master, to receive on an input terminal an external position control signal (pC), to generate based on the position control signal (pC) a motor control signal (sC), to control the motor by supplying the motor control signal (sC) to the motor, and to control a slave by supplying the motor control signal (sC) to an output terminal; and the motor controller is further configured, for the case where the actuator (1S, 1S') is set as the slave, to receive on the input terminal the motor control signal (sC) supplied by the master, and to control the motor by supplying the motor control signal (sC) from the master to the motor.
The use of a polymerised fluorocarbon coating, deposited by a plasma polymerisation process, for maintaining pore size of a reusable filtration membrane subject to caustic washing, wherein the fluorocarbon coating is formed by exposing the reusable filtration membrane to a plasma comprising a fluorocarbon monomer so as to form a polymeric layer on the surface thereof, wherein the fluorocarbon monomer is a compound of formula where R 7a is hydrogen, C 1-10 alkyl, or C 1-10 haloalkyl; and where x is an integer of from 1 to 9.
Device for utilizing waste heat and/or for purifying a flue gas, comprising a chamber with a flue gas inlet, wherein flue gas can be introduced into the chamber via the flue gas inlet, and a flue gas outlet, wherein flue gas is led out of the chamber via the flue gas outlet after flowing through the chamber, wherein the chamber comprises a heat exchanger device, wherein during the flow through the chamber the flue gas is cooled and/or purified, wherein a medium to be heated, for example a fluid, is passed through the heat exchanger device, wherein heat is extracted from the flue gas by the heat exchange between the flue gas and the medium, wherein on an underside of the chamber there is arranged a tub element which is at least partially open towards the top and is filled with liquid, wherein the flue gas is conducted over the liquid surface in such a way that heat is additionally extracted from the flue gas and/or the liquid absorbs particles extracted from the flue gas, wherein the temperature of the flue gas can be brought below its dew point by the heat exchange, wherein at least one substantially vertically extending flue gas guide element is arranged in the chamber, through which the flue gas is guided vertically from top to bottom through the chamber, characterized in that the heat exchange device comprises at least one heat exchanger (5a, 5b, 5c) which is arranged in the at least one flue gas guide element.
Hybrid vehicle with at least one drive axle which is drivable by means of a drive device, wherein the drive device has a battery, an electric machine electrically coupled to the battery to exchange electric energy and an internal combustion engine which internal combustion engine mechanically drives the electric machine in an active state to generate electric energy, and with a control unit which controls the electric machine and the internal combustion engine, wherein the control unit is configured to operate exclusively the electric machine in order to start-up the hybrid vehicle up to a speed limit, which allows a drive of the hybrid vehicle by means of the internal combustion engine and is configured to control the operation of the electric machine and the internal combustion engine such that the electric loading of the battery exceeds a predefinable comparative value when stopping the hybrid vehicle, said comparative value is determined such that the electric energy stored in the battery permits the hybrid vehicle to be started-up by means of the electric machine up to the speed limit, characterised in that the battery has a separately-operable start-up battery, whose electric energy serves exclusively for starting up the hybrid vehicle up to the speed limit by means of the electric machine.
A multi-axis apparatus for performing X-ray measurements, particularly computed tomography, comprising a positioning means for moving at least one X-ray tube (19, 23) and at least one detector (11, 13) at opposite ends of a common axis X passing through a rotary stage for pivotally placing the measured object, characterized in that it comprises two pairs of X-ray tube (19, 23) and detector (11, 13), wherein the first pair is formed by the first X-ray tube and first detector on the common axis X, and the second pair is formed by the second X-ray tube and the second detector on a common axis Y, wherein the axis Y perpendicularly intersects the axis X, and the positioning means lying in the horizontal plane of axis X and axis Y is formed by a set of mechanical axes (2, 3, 4, 6, 7, 9), wherein the first X-ray tube is arranged with the ability to shift on a first X-ray tube mechanical axis and the second X-ray tube is arranged with the ability to shift on a second X-ray mechanical axis, wherein the first and second X-ray mechanical axes (2, 3) are horizontal, non-intersecting and perpendicular to each other, and the first detector is arranged with the ability to shift on a first detector mechanical axis, the second detector is arranged with the ability to shift on a horizontal correction mechanical axis parallel with the second X-ray mechanical axis, and the correction mechanical axis is arranged with the ability to shift on a second detector mechanical axis equipped with a rotary stage with the ability to shift, wherein the first and second detector mechanical axes (6, 7) are horizontal, parallel to the first X-ray tube mechanical axis, and have the ability to shift, and are arranged on a positioning mechanical axis which is parallel with the second X-ray tube mechanical axis.
A method of obtaining multilayer graphene, comprising: - depositing a first graphene monolayer having a protective layer on top thereof, on a sample comprising a second graphene monolayer grown on a first metal foil; the method being characterized in that it comprises: - attaching to said first metal foil a first frame, said first frame comprising a substrate and a thermal release adhesive polymer layer, the thickness of said first frame being between 0.01 and 1 mm; - etching said first metal foil, wherein thanks to the first frame, impurities from an etchant solution are prevented from being inserted between the graphene layers; - depositing the stack formed by said protective layer, said first graphene monolayer, said second graphene monolayer and said first frame on a sample comprising a third graphene monolayer grown on a second metal foil, such that three layers of graphene (21, 20, 121) are stacked; - removing said first frame; - attaching to said second metal foil another frame, said another frame comprising a substrate and a thermal release adhesive polymer layer; - etching said second metal foil; - repeating the previous stages as many times as layers of graphene need to be stacked to form a stack of multilayer graphene. - depositing a first graphene monolayer having a protective layer on top thereof, on a sample comprising a second graphene monolayer grown on a first metal foil; - attaching to said first metal foil a first frame, said first frame comprising a substrate and a thermal release adhesive polymer layer, the thickness of said first frame being between 0.01 and 1 mm; - etching said first metal foil, wherein thanks to the first frame, impurities from an etchant solution are prevented from being inserted between the graphene layers; - depositing the stack formed by said protective layer, said first graphene monolayer, said second graphene monolayer and said first frame on a sample comprising a third graphene monolayer grown on a second metal foil, such that three layers of graphene (21, 20, 121) are stacked; - removing said first frame; - attaching to said second metal foil another frame, said another frame comprising a substrate and a thermal release adhesive polymer layer; - etching said second metal foil; - repeating the previous stages as many times as layers of graphene need to be stacked to form a stack of multilayer graphene.