mhurhangee/ep-ind-claims huggingface dataset:
Atomizer nozzle for atomizing a fluid, in particular a liquid, with a nozzle opening, with a rotation chamber, and with at least one supply channel (6, 7) for supplying the fluid into the rotation chamber, wherein at least one supply channel (6, 7) opens into the rotation chamber via at least one inlet opening (4, 8), characterized in that the rotation chamber has a curved bottom, the bottom is curved away from the nozzle opening, at least one supply channel (6, 7) is directed in the direction of the bottom, and at least one supply channel (6, 7) runs obliquely at least in sections to the plane defined by the edge of the bottom area. the rotation chamber has a curved bottom, the bottom is curved away from the nozzle opening, at least one supply channel (6, 7) is directed in the direction of the bottom, and at least one supply channel (6, 7) runs obliquely at least in sections to the plane defined by the edge of the bottom area.
Museum showcase comprising: - a base; - a bell that can be lifted with respect to the base; - pantograph mechanisms for lifting the bell, having movable arms hinged together, lower arms (37;38) hinged with the base and movable upper arms hinged with the bell; characterized in that the lower arms (37;38) have a curvilinear configuration, with a concavity facing downwards, wherein the lower arms (37;38) of each pantograph mechanism define with their own curvilinear configuration a space in which a motor for the actuation of the pantograph mechanism is housed. - a base; - a bell that can be lifted with respect to the base; - pantograph mechanisms for lifting the bell, having movable arms hinged together, lower arms (37;38) hinged with the base and movable upper arms hinged with the bell;
Device for handling sort items according to sorting criteria between at least one input point and sorting destinations, having at least one sorting plant, which is arranged between the input point and the sorting destinations and has a set of transport means for transporting sort items, wherein the transport means are each provided for accommodating a sort item that is allocated to a sorting destination, wherein the sorting plant has at least one main conveying section for transport means of the set of transport means, at least one unloading point, allocated to at least one sorting destination, for unloading the transport means, and an unloading section that is allocated to the unloading point and branches off from the main conveying section, characterised in that the unloading section takes a form such that travel on the unloading section by a laden transport means brings about unloading of the associated sort item at the unloading point.
Roller press for comminuting brittle material to be ground, having - at least two grinding rollers (2, 3), - a machine frame which - has at least one upper flange and/or - at least one coherent upper frame element, and - has at least one lower flange and/or - at least one coherent lower frame element, - at least one frame head for stabilizing the at least one upper flange or the at least one coherent upper frame element when the roller press is opened on the head side in order to change the grinding rollers (2, 3), wherein the frame head consists of an upper cross member which - is supported by at least two lateral supports (11, 12) and - is connected to the at least one upper flange or to the at least one coherent upper frame element, characterized in that the machine frame is closed by at least one head piece (13, 14) that is completely detachable from the machine frame and frame head, wherein, in the closed state of the machine frame, the cross member is relieved of load by the head piece (13, 14) that is completely detachable from the machine frame. - at least two grinding rollers (2, 3), - a machine frame which - has at least one upper flange and/or - at least one coherent upper frame element, and - has at least one lower flange and/or - at least one coherent lower frame element, - has at least one upper flange and/or - at least one coherent upper frame element, and - has at least one lower flange and/or - at least one coherent lower frame element, - at least one frame head for stabilizing the at least one upper flange or the at least one coherent upper frame element when the roller press is opened on the head side in order to change the grinding rollers (2, 3), - is supported by at least two lateral supports (11, 12) and - is connected to the at least one upper flange or to the at least one coherent upper frame element,
Method for regulating an active power in a wind farm with at least two wind turbines whose power output is regulated in each case by a wind turbine controller (51,..., 5n), wherein a target value for the active power (P set, P set, global) which is to be delivered by the wind farm being supplied to a dividing unit which divides the supplied target value of the active power (P set, P set, global) which is to be delivered by the wind farm into active power target values for the simulation by the individual wind turbines (p simI,1, p simI,2..., p simI,n), receives modelled active power target values of the wind turbines (p simO,1, p simO,2, p simO,n) and from the received active power target values of the wind turbines (p simO,1, p simO,2, p simO,n) generates a modelled active power target value of the wind farm (P' set) by summation, which, together with an actual value of the active power (P act) output by the wind farm, is applied to a subtraction element, which provides a control difference (e) for a power controller which generates a controller manipulated variable (u reg) to which a pilot control manipulated variable (u ff) which is determined independently of operating states of the wind turbines and their actual values is added to form a total manipulated variable (u), wherein the active power target value of the wind farm (P set, P set, global) is divided for models (221, 222, 22n) of the wind turbines contained in the wind farm and the models (221, 222, 22n) of the wind turbines determine the respective modelled active power target value of the respective wind turbine (p simO,1, p simO,2, p simO,n) as a function of the portion of the active power target value (p simI,1, p simI,2, p simI,n) divided for the respective model, wherein the models (221, 222, 22n) of the wind turbines are assigned to the respective wind turbine controllers (51, 52,..5n).
A relay device for connecting an upper-level system and a lower-level system, and for relaying communication between the upper-level system and the lower-level system, the upper-level system including a plurality of devices (100, 110, 120) connected via a first bus and performing communication using an address allocated to each of the plurality of devices (100, 110, 120), the lower-level system including a plurality of devices (300, 400a, 400b, 400c) connected via a second bus and performing communication in a master-slave method with any one of the plurality of devices (300, 400a, 400b, 400c) being as a master device and other devices being as slave devices, the relay device characterized by comprising: an upper-side communicator configured to be connected to the first bus, and to transmit and receive communication packets to and from the upper-level system; a lower-side communicator configured to be connected to the master device, and to transmit and receive communication commands to and from the lower-level system; an association information memory configured to store association information obtained by associating the address in the upper-level system allocated to each of the plurality of devices (300, 400a, 400b, 400c) in the lower-level system with identification information on each of the plurality of devices (300, 400a, 400b, 400c) in the lower-level system; and a processor configured to perform a mutual conversion of the communication packets to and from the communication commands based on the association information stored in the association information memory. an upper-side communicator configured to be connected to the first bus, and to transmit and receive communication packets to and from the upper-level system; a lower-side communicator configured to be connected to the master device, and to transmit and receive communication commands to and from the lower-level system; an association information memory configured to store association information obtained by associating the address in the upper-level system allocated to each of the plurality of devices (300, 400a, 400b, 400c) in the lower-level system with identification information on each of the plurality of devices (300, 400a, 400b, 400c) in the lower-level system; and a processor configured to perform a mutual conversion of the communication packets to and from the communication commands based on the association information stored in the association information memory.
A method for producing a high-strength galvanized steel sheet having a microstructure that contains martensite in an area proportion of 20% or more and 60% or less and ferrite in an area proportion of 40% or more and 80% or less, the method comprising, in sequence, hot-rolling a steel slab consisting of, on a mass percent basis, 0.05% or more and less than 0.12% of C, 0.01% or more and less than 0.35% of Si, 2.2% or more and 3.5% or less of Mn, 0.001% or more and 0.050% or less of P, 0.0001% or more and 0.010% or less of S, 0.005% or more and 0.100% or less of sol. Al, 0.0001% or more and 0.0060% or less of N, 0.010% or more and 0.080% or less of Nb, 0.010% or more and 0.080% or less of Ti, optionally one or more selected from 0.05% or more and 1.0% or less of Mo, 0.02% or more and 0.50% or less of V, 0.05% or more and 1.0% or less of Cr, and 0.0001% or more and 0.0030% or less of B, optionally 0.30% or less of Cu, optionally 0.30% or less of Ni, optionally 0.0001% or more and 0.0050% or less of Ca, optionally 0.0001% to 0.1000% of REM, optionally 0.0001% to 0.1000% of Sn, optionally 0.0001% to 0.1000% of Sb, optionally less than 0.020% of Zr and Mg, and the balance being Fe and incidental impurities; performing cold rolling; performing primary annealing; performing pickling; performing secondary annealing; and performing galvanizing treatment, wherein in the primary annealing, heating is performed at an average heating rate of 0.1 °C/sec. or more and less than 3 °C/sec. in the temperature range of 600°C to 750°C, an annealing temperature of 750°C to 850°C is maintained for 10 to 500 seconds, and then cooling is performed from the annealing temperature range to a cooling stop temperature of 600°C or lower at an average cooling rate of 1 to 15 °C/sec, wherein in the pickling, the acid concentration is 1% to 10% by weight, the temperature is 40°C to 90°C, the pickling time is 1 to 20 seconds, and the pickling weight loss of a steel sheet is 0.05 to 5 g/m 2 in terms of Fe, wherein in the secondary annealing, an annealing temperature of 750°C to 850°C is maintained for 10 to 500 seconds, and then cooling is performed from the annealing temperature at an average cooling rate of 1 to 15 °C/sec, and wherein after the galvanizing treatment, cooling is performed at an average cooling rate of 5 to 100 °C/sec.
Filter device for reducing electromagnetic interferences, having a modular mounting construction, wherein the filter device has a filter plate for receiving first annular core holders, which are slid into guide rails of the filter plate and contain a first number of ferrite rings, insulated alternating current cables (4-L) for alternating current phases and a neutral conductor (4-N) or insulated direct current cable (4-DC) for direct currents being wound around the first annular core holders multiple times to form a current-compensated throttle of the filter device, the alternating current cable (4-L) and the neutral conductor (4-N) or direct current cable (4-DC) being connected to terminal contacts of the filter device and also being passed through second annular core holders, which are mounted on the filter plate of the filter device and contain a second number of ferrite rings.
A method of automatically adjusting an injection molding process to compensate for variations in the flowability of a molten plastic material, the method comprising: providing an injection molding machine with at least one mold cavity; providing an injection molding controller, which includes a pressure control output that is configured to provide a control signal, which, at least partially determines an injection molding pressure for the injection molding process of the injection molding machine; characterized in that the method further comprises: measuring a first control signal from the pressure control output at a first time in an injection molding cycle; while maintaining a flow rate for injection molding at a rate that is equivalent to the flow rate for a nominal fluid viscosity material, measuring a second control signal from the pressure control output at a second time in the injection molding cycle, subsequent to the first time; comparing the first control signal from the pressure control output and the second control signal from the pressure control output to obtain a comparison result; and determining a third control signal for the pressure control output, based at least in part on the comparison result, at a third time that is subsequent to the second time. providing an injection molding machine with at least one mold cavity; providing an injection molding controller, which includes a pressure control output that is configured to provide a control signal, which, at least partially determines an injection molding pressure for the injection molding process of the injection molding machine; characterized in that the method further comprises: measuring a first control signal from the pressure control output at a first time in an injection molding cycle; while maintaining a flow rate for injection molding at a rate that is equivalent to the flow rate for a nominal fluid viscosity material, measuring a second control signal from the pressure control output at a second time in the injection molding cycle, subsequent to the first time; comparing the first control signal from the pressure control output and the second control signal from the pressure control output to obtain a comparison result; and determining a third control signal for the pressure control output, based at least in part on the comparison result, at a third time that is subsequent to the second time. measuring a first control signal from the pressure control output at a first time in an injection molding cycle; while maintaining a flow rate for injection molding at a rate that is equivalent to the flow rate for a nominal fluid viscosity material, measuring a second control signal from the pressure control output at a second time in the injection molding cycle, subsequent to the first time; comparing the first control signal from the pressure control output and the second control signal from the pressure control output to obtain a comparison result; and determining a third control signal for the pressure control output, based at least in part on the comparison result, at a third time that is subsequent to the second time.
Pyrogenic silicon-titanium mixed oxide powder, characterized in that - the BET surface area is 200 to 400 m 2 /g, - the ratio of DBP number/BET surface area is 0.5 to 1.2, - it has a silicon dioxide content of 93.5 to 95.4% by weight and a titanium dioxide content of 4.6 to 6.5% by weight, where the sum of silicon dioxide content and titanium dioxide content is greater than 99.7% by weight, where all percentages are based on the total amount of the powder. - the BET surface area is 200 to 400 m 2 /g, - the ratio of DBP number/BET surface area is 0.5 to 1.2, - it has a silicon dioxide content of 93.5 to 95.4% by weight and a titanium dioxide content of 4.6 to 6.5% by weight, where the sum of silicon dioxide content and titanium dioxide content is greater than 99.7% by weight, where all percentages are based on the total amount of the powder.
Apparatus for the respiration of patients, more particularly for anaesthesia, which apparatus is provided with means for the circulation in one direction of respiratory gas, anaesthetic gas or therapeutic gas in a closed line system, that is provided with a connection for the patient and with further connections [5, 6] for the supply of the various components of the gas, with means for the measurement of the flow and the composition of the gas and with means for the withdrawal of the carbon dioxide exhaled by the patient in the line system, whereby the apparatus is provided with means by which the pressure in the line system can be varied in accordance with a certain respiratory pattern, and whereby the means comprise a primary part that is connected to means for the generating of a work fluidum, the varying pressure of which can effect the varying of the pressure in the line system, and comprise a secondary part, that is part of or is connected to the line system, characterized in that a cylinder is provided which is divided in a part that connects to the primary part and a part that connects to the secondary part by a disc that is movable to and fro relative to the inner wall thereof.
A method for electroslag remelting in short slide moulds, in which the level of the surface of a slag bath in an ESR mould is monitored by means of a measuring device, characterized in that the measuring device comprises a radar measuring probe, the radar beam of which detects the level of the surface of the slag bath, wherein the radar beam is emitted by the radar measuring probe incorporated into a mould cover or a protective gas hood of the electroslag remelting installation, and the radar beam is directed and deflected through a curved measuring tube, arranged on the radar measuring probe, so that it strikes approximately vertically onto the surface of the slag bath and the determined level of the surface is displayed or respectively represented by an evaluation apparatus and/or is used as input signal for a control device of an ingot withdrawal from the slide mould such that the level of the surface of the slag bath during the remelting process is either kept constant or fluctuates periodically in a targeted manner within specific limits.
A seat actuation system comprising: an actuator connected to an output interface; a primary output link in mechanical communication with the output interface; a secondary output link in mechanical communication with the output interface, wherein the output interface comprises an apparatus whereby a first movement of the actuator is conveyed to the primary output link and a second movement of the actuator is conveyed to the secondary output link; a primary function control movable by the primary output link; a secondary function control movable by the secondary output link; a lost motion slot disposed between the secondary function control and the secondary output link, whereby the secondary function control is mechanically isolated from the first movement of the actuator. an actuator connected to an output interface; a primary output link in mechanical communication with the output interface; a secondary output link in mechanical communication with the output interface, wherein the output interface comprises an apparatus whereby a first movement of the actuator is conveyed to the primary output link and a second movement of the actuator is conveyed to the secondary output link; wherein the output interface comprises an apparatus whereby a first movement of the actuator is conveyed to the primary output link and a second movement of the actuator is conveyed to the secondary output link; a primary function control movable by the primary output link; a secondary function control movable by the secondary output link; a lost motion slot disposed between the secondary function control and the secondary output link, whereby the secondary function control is mechanically isolated from the first movement of the actuator.
A method for blockchain-based data migration, the method comprising: receiving, by a blockchain node, a block of a blockchain, the blockchain node being configured to store data using a storage architecture comprising a first storage system and a second storage system interconnected with the first storage system; storing the block in the first storage system; determining whether a migration trigger event for block data of the block of the blockchain stored in the first storage system is detected, including invoking a smart contract corresponding to data migration of the blockchain and determining whether specified data in the block data stored in the first storage system satisfies migration trigger logic claimed in the smart contract; and migrating block data that is stored in the first storage system and that exists before a migration reference time to the second storage system in response to the migration trigger event, including executing data migration logic claimed in the smart contract, to migrate the block data that is stored in the first storage system and that exists before the migration reference time to the second storage system. receiving, by a blockchain node, a block of a blockchain, the blockchain node being configured to store data using a storage architecture comprising a first storage system and a second storage system interconnected with the first storage system; storing the block in the first storage system; determining whether a migration trigger event for block data of the block of the blockchain stored in the first storage system is detected, including invoking a smart contract corresponding to data migration of the blockchain and determining whether specified data in the block data stored in the first storage system satisfies migration trigger logic claimed in the smart contract; and migrating block data that is stored in the first storage system and that exists before a migration reference time to the second storage system in response to the migration trigger event, including executing data migration logic claimed in the smart contract, to migrate the block data that is stored in the first storage system and that exists before the migration reference time to the second storage system.
A method for killing the yeast Sporobolomyces singularis while maintaining the ß-galactosidase titer of a liquid from said yeast cells, characterized by comprising the steps of adjusting the pH of said liquid, and then performing a heating treatment of the liquid, wherein the pH of the yeast cell liquid is adjusted to 4.5 to 5.7, wherein the heating treatment is performed at 40 to 48°C for 6 to 18 hours, and wherein the ß-galactosidase titer after performing the heating treatment is 80% or more of the ß-galactosidase titer before performing the heating treatment.