mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a laser apparatus, comprising: receiving from a user, a set of user input parameters for a polymeric materials process for a product; accessing, from a materials database, materials characteristics for a materials system of the product and, from a laser specifications database, laser specifications of a laser source; determining, from the set of user input parameters, and based on the materials characteristics for a materials system of the product and the laser specifications of a laser source, a set of control parameters; generating, from the set of control parameters, a set of operating instructions for controlling operation of a universal laser apparatus; and providing, to the universal laser apparatus, the set of operating instructions to perform the polymeric materials process. receiving from a user, a set of user input parameters for a polymeric materials process for a product; accessing, from a materials database, materials characteristics for a materials system of the product and, from a laser specifications database, laser specifications of a laser source; determining, from the set of user input parameters, and based on the materials characteristics for a materials system of the product and the laser specifications of a laser source, a set of control parameters; generating, from the set of control parameters, a set of operating instructions for controlling operation of a universal laser apparatus; and providing, to the universal laser apparatus, the set of operating instructions to perform the polymeric materials process.
Method for controlling and/or monitoring a wind turbine equipped with a lidar sensor taking a wind-related measurement at a point located upstream of said wind turbine, such that the following steps are carried out: a) a signal corresponding to said measurement of said lidar sensor is acquired; b) an estimator of the wind at the rotor of the wind turbine is constructed by means of a wind representation that is a frequency-domain model, expressed in the form of a Von Karman spectrum, of a model of said lidar sensor that depends on at least one measurement angle ( θ, φ) of said lidar sensor and on a volumic characteristic of said lidar sensor, and of a wind-propagation model, said estimator of the wind at the rotor being a finite-impulse-response filter object relating the signal of the sensor to the wind speed at the rotor, said wind estimator being constructed in two stages: in a first stage the optimal frequency response of the estimator is computed, and in a second stage the impulse response of a convolution system having this frequency response is computed; c) the wind speed at the rotor of said wind turbine is estimated by applying said estimator of the wind at the rotor to said acquired signal; and d) said wind turbine is controlled and/or monitored by means of said estimated wind speed. a) a signal corresponding to said measurement of said lidar sensor is acquired; b) an estimator of the wind at the rotor of the wind turbine is constructed by means of a wind representation that is a frequency-domain model, expressed in the form of a Von Karman spectrum, of a model of said lidar sensor that depends on at least one measurement angle ( θ, φ) of said lidar sensor and on a volumic characteristic of said lidar sensor, and of a wind-propagation model, said estimator of the wind at the rotor being a finite-impulse-response filter object relating the signal of the sensor to the wind speed at the rotor, said wind estimator being constructed in two stages: in a first stage the optimal frequency response of the estimator is computed, and in a second stage the impulse response of a convolution system having this frequency response is computed; c) the wind speed at the rotor of said wind turbine is estimated by applying said estimator of the wind at the rotor to said acquired signal; and d) said wind turbine is controlled and/or monitored by means of said estimated wind speed.
A battery system, comprising: - a cell stack, comprising a plurality of battery cells, wherein at least two battery cells of the cell stack are electrically interconnected via a battery cell connector; - a battery management system, BMS, comprising a printed circuit board, PCB, and - a cell connecting unit, CCU, wherein the battery cell connector is accommodated in the CCU, the CCU being fixed onto the cell stack, characterized in that the CCU comprises at least one first flexible bracket, the at least one first flexible bracket comprising a member that is inserted into a corresponding mounting hole of the PCB, wherein the member is configured to fix the PCB to the CCU after the member has been molten in a state in which the member was inserted into the corresponding mounting hole. - a cell stack, comprising a plurality of battery cells, wherein at least two battery cells of the cell stack are electrically interconnected via a battery cell connector; - a battery management system, BMS, comprising a printed circuit board, PCB, and - a cell connecting unit, CCU, wherein the battery cell connector is accommodated in the CCU, the CCU being fixed onto the cell stack, characterized in that the CCU comprises at least one first flexible bracket, the at least one first flexible bracket comprising a member that is inserted into a corresponding mounting hole of the PCB,
Air-conditioning device for a building part, with a heating circuit for a heat transfer medium, comprising a heater and a first heat exchanger, and with a heat pump, comprising a regulating unit, a peripheral heat exchanger and an air-conditioning heat exchanger, the first heat exchanger and the air-conditioning heat exchanger being coupled thermally to the building part, and the peripheral heat exchanger being thermally coupled to a periphery of the building part, characterized in that the regulating unit of the heat pump is connected to at least one regulatable valve in the heating circuit via a communication link.
An apparatus (110, 300) comprising: - means for storing training data in a memory; - means for providing a trusted execution environment, - means for running, in the trusted execution environment, a training process configured to obtain parameters of a neural network, using the training data, characterized by, wherein the apparatus is configured to add, in the trusted execution environment, after the parameters of the neural network have been optimized, random noise to the parameters of the neural network, and to provide the parameters to a computer distinct from the apparatus (110, 300) after the adding of the random noise. - means for storing training data in a memory; - means for providing a trusted execution environment, - means for running, in the trusted execution environment, a training process configured to obtain parameters of a neural network, using the training data, characterized by, wherein
A method in a wireless device for receiving information on a physical downlink control channel, PDCCH, signaled by a network node, and receiving a physical downlink shared channel, PDSCH, wherein the PDCCH and PDSCH have a length of 7 orthogonal frequency division multiplex, OFDM, symbols or less, the PDCCH being mapped to resource elements of a time-frequency grid, by configuring resource element groups, REGs, each REG spanning only one orthogonal frequency division multiplex, OFDM, symbol, wherein the PDCCH is of 2 or more OFDM symbols, the method comprising: receiving the PDCCH from the network node on one of a plurality of sets of physical resource blocks, PRBs.
A security element for securing valuable articles, having a reflective areal region whose expanse defines an x-y plane, - the reflective areal region including a plurality of reflective facets (30; 32; 34) that reflect incident light in a reflection direction determined by their orientation, characterized in that - the reflective areal region including at least one periodic sub-region having, in each case, a plurality of reflective facets arranged in a periodic grid, and including at least one aperiodic sub-region having, in each case, a plurality of aperiodically arranged reflective facets, the periodic and aperiodic sub-regions (22, 24) together forming the total area of the reflective areal region, and - the periodic and aperiodic sub-regions (22, 24) being arranged interleaved with each other such that the contour of the periodic and/or the aperiodic sub-regions (22, 24) within the total area of the reflective areal region constitutes a pattern, characters or a code. - the reflective areal region including a plurality of reflective facets (30; 32; 34) that reflect incident light in a reflection direction determined by their orientation, - the reflective areal region including at least one periodic sub-region having, in each case, a plurality of reflective facets arranged in a periodic grid, and including at least one aperiodic sub-region having, in each case, a plurality of aperiodically arranged reflective facets, the periodic and aperiodic sub-regions (22, 24) together forming the total area of the reflective areal region, and - the periodic and aperiodic sub-regions (22, 24) being arranged interleaved with each other such that the contour of the periodic and/or the aperiodic sub-regions (22, 24) within the total area of the reflective areal region constitutes a pattern, characters or a code.
A composite solid electrolyte membrane for an all-solid-state secondary battery, comprising: a phase transformation layer containing a plasticizer and a lithium salt; a porous polymer sheet layer; and a solid polymer electrolyte layer, wherein the phase transformation layer, the porous polymer sheet layer and the solid polymer electrolyte layer are stacked successively, and the phase transformation layer is disposed in such a manner that it faces a negative electrode, when manufacturing an electrode assembly. a phase transformation layer containing a plasticizer and a lithium salt; a porous polymer sheet layer; and a solid polymer electrolyte layer, wherein the phase transformation layer, the porous polymer sheet layer and the solid polymer electrolyte layer are stacked successively, and the phase transformation layer is disposed in such a manner that it faces a negative electrode, when manufacturing an electrode assembly.
Combustion engine by means of which mechanical energy is generated using operating agents containing carbon, such as natural gas or hydrogen, for example an internal combustion engine, a turbine or a jet engine which is provided for operation with a gaseous fuel, comprising a first fuel pressure tank connected to the combustion engine and comprising at least a second fuel pressure tank (12, 13) connected to the combustion engine, a first shutoff valve being associated with the first fuel pressure tank, a second shutoff valve (15, 16) being associated with the second fuel pressure tank (12, 13), and characterized in that the first shutoff valve can be controlled separately from the second shutoff valve (15, 16) in such a way that, in the case of a cold start of the combustion engine in the first fuel pressure tank used for cold start and for cold run, the lowest possible pressure level is set which differs in its height from a pressure level set in the second fuel pressure tank (12, 13) in order to obtain the smallest possible pressure difference of the gaseous fuel when leaving the first fuel pressure tank during the cold start of the combustion engine in order to reduce the impact of the Joule-Thomson effect on components of the combustion engine, the lowest possible pressure level in the first fuel pressure tank being adjustable during a fueling process and/or during operation of the combustion engine and/or outside of the operation of the combustion engine. by means of which mechanical energy is generated using operating agents containing carbon, such as natural gas or hydrogen, for example an internal combustion engine, a turbine or a jet engine which is provided for operation with a gaseous fuel, comprising a first fuel pressure tank connected to the combustion engine and comprising at least a second fuel pressure tank (12, 13) connected to the combustion engine, a first shutoff valve being associated with the first fuel pressure tank, a second shutoff valve (15, 16) being associated with the second fuel pressure tank (12, 13), and characterized in that the first shutoff valve can be controlled separately from the second shutoff valve (15, 16) in such a way that, in the case of a cold start of the combustion engine in the first fuel pressure tank used for cold start and for cold run, the lowest possible pressure level is set which differs in its height from a pressure level set in the second fuel pressure tank (12, 13) in order to obtain the smallest possible pressure difference of the gaseous fuel when leaving the first fuel pressure tank during the cold start of the combustion engine in order to reduce the impact of the Joule-Thomson effect on components of the combustion engine, the lowest possible pressure level in the first fuel pressure tank being adjustable during a fueling process and/or during operation of the combustion engine and/or outside of the operation of the combustion engine.
A method performed by a wireless communication device (101, 400) in an orthogonal frequency-division multiplexing, OFDM, wireless communication system for determining a first offset parameter and a second offset parameter associated with a respective received first OFDM signal and a second OFDM signal having a respective first and second subcarrier frequency spacing, the method comprising: - determining whether transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal, wherein transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal when the first and second OFDM signals are time-synchronized, and - if it is determined that transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal, then - determining the first offset parameter based on the first OFDM signal, and - determining the second offset parameter based on the first offset parameter. - determining whether transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal, wherein transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal when the first and second OFDM signals are time-synchronized, and - if it is determined that transmission of the first OFDM signal is coordinated with transmission of the second OFDM signal, then - determining the first offset parameter based on the first OFDM signal, and - determining the second offset parameter based on the first offset parameter. - determining the first offset parameter based on the first OFDM signal, and - determining the second offset parameter based on the first offset parameter.
A method of manufacturing a pressure container comprising an in-mold label and a three-dimensional portion, the method comprising: heating molds (310, 320) with a 3D groove formed therein to correspond to a 3D portion to be formed on a surface of the pressure container; separating the molds (310, 320); attaching a label to an internal surface of the molds (310, 320) to allow at least a portion of the label to cover the 3D groove; positioning a pre-form of the pressure container in a cavity of the molds (310, 320); closing the molds (310, 320) and (S1106, S1107) injecting air into the pre-form at a pressure in a specific range through a first route and expanding the pre-form; three-dimensionally deforming a label attached to a surface of the pre-form to correspond to the 3D groove by an air pressure along with the surface of the expanded pre-form while the expanded pre-form and the label are attached; injecting cooling air into the pre-form through a second route in the pre-form that is expanded and deformed like the container; and separating the molds (310, 320) and detaching the pressure container with the 3D portion and the label deformed to correspond to the 3D portion from the molds (310, 320), and characterized in that the first route is provided to be moved in up and down directions and implemented with an air supplying port to be disposed at an inlet of the pre-form; and wherein the second route is provided to be moved in up and down directions and implemented with a pipe of an air injection apparatus, to be inserted into the pre-form. heating molds (310, 320) with a 3D groove formed therein to correspond to a 3D portion to be formed on a surface of the pressure container; separating the molds (310, 320); attaching a label to an internal surface of the molds (310, 320) to allow at least a portion of the label to cover the 3D groove; positioning a pre-form of the pressure container in a cavity of the molds (310, 320); closing the molds (310, 320) and (S1106, S1107) injecting air into the pre-form at a pressure in a specific range through a first route and expanding the pre-form; three-dimensionally deforming a label attached to a surface of the pre-form to correspond to the 3D groove by an air pressure along with the surface of the expanded pre-form while the expanded pre-form and the label are attached; injecting cooling air into the pre-form through a second route in the pre-form that is expanded and deformed like the container; and separating the molds (310, 320) and detaching the pressure container with the 3D portion and the label deformed to correspond to the 3D portion from the molds (310, 320), and characterized in that the first route is provided to be moved in up and down directions and implemented with an air supplying port to be disposed at an inlet of the pre-form; and wherein the second route is provided to be moved in up and down directions and implemented with a pipe of an air injection apparatus, to be inserted into the pre-form.
A walk-through gate for use at airports, comprising a passage, which is delimited by guide elements and leads from a land side to an air side, with which at least one blocking element pivotable between a blocking position and a passage position is associated, wherein the walk-through gate is designed to query access data via a console associated with one of at least one of the guide elements by means of a scanner associated with the console, on the basis of which data it decides whether it pivots the blocking element into its passage position or whether it leaves it in the blocking position, and wherein the walk-through gate is furthermore designed, when a handheld scanner is put into operation to query the access data, to permanently pivot the at least one blocking element into its passage position and to take the scanner associated with the console out of operation, wherein the handheld scanner has a data connection to the console upon being put into operation.
A method for decoding data encoded using one of a plurality of code types, each of said code types corresponding to a communication standard, said method comprising: identifying said code type associated with said data; allocating said data to a plurality of programmable parallel decoders, wherein said programmable parallel decoders can be reconfigured to decode data encoded using each of said plurality of code types; providing said data and said associated code type to said allocated programmable parallel decoders; and loading program code into one or more of said programmable parallel decoders based on said code type. identifying said code type associated with said data; allocating said data to a plurality of programmable parallel decoders, wherein said programmable parallel decoders can be reconfigured to decode data encoded using each of said plurality of code types; providing said data and said associated code type to said allocated programmable parallel decoders; and loading program code into one or more of said programmable parallel decoders based on said code type.
Method for operating a driver information system in an ego vehicle; in which an operating state of a lighting device of the ego vehicle is captured; a driver information display is generated and output; wherein the driver information display comprises a graphic ego object that represents the ego vehicle; wherein the ego object comprises a rear representation of the ego vehicle; wherein the ego object is formed depending on the captured operating state, characterized in that further graphical objects representing physical objects in the environment of the ego vehicle are displayed, characterized in that sensors of the ego vehicle capture whether and in what way the physical objects are actually illuminated and/or the influence of the captured operating state of the lighting device on the physical objects is determined using a physical model, and the further graphical objects are formed depending on the captured operating state of the lighting device, with the result that an influence of the lighting system on the appearance of the environment is reproduced as realistically as possible. an operating state of a lighting device of the ego vehicle is captured; a driver information display is generated and output; wherein the driver information display comprises a graphic ego object that represents the ego vehicle; wherein the ego object comprises a rear representation of the ego vehicle; wherein the ego object is formed depending on the captured operating state, characterized in that further graphical objects representing physical objects in the environment of the ego vehicle are displayed, characterized in that sensors of the ego vehicle capture whether and in what way the physical objects are actually illuminated and/or the influence of the captured operating state of the lighting device on the physical objects is determined using a physical model, and the further graphical objects are formed depending on the captured operating state of the lighting device, with the result that an influence of the lighting system on the appearance of the environment is reproduced as realistically as possible.
Spray nozzle for a spraying tool, for spraying of a release agent into a casting mould, wherein a dosing space into which the release agent is able to be introduced is incorporated into a nozzle housing of the spray nozzle, and the volume of the dosing space is able to be varied via a dosing element, wherein a reduction in volume of the dosing space effects a displacement of release agent of the same volume from the dosing space, and the release agent displaced from the dosing space by way of the actuating movement of the dosing element is guided via an outlet duct to a nozzle body, via which the release agent is to be discharged from the nozzle housing, wherein an active deaeration unit for deaerating the dosing space is integrated into the spray nozzle, wherein, through action by way of an actuating variable, the deaeration unit is able to be adjusted automatically from a non-functional position into a deaeration and open position, characterized in that a non-return valve is arranged in the discharge duct, and the deaeration unit, in the deaeration and open position, opens the non-return valve.
An x-ray imaging apparatus comprising a support structure, the support structure supporting two separate x-ray emitting apparatus (130, 140), a first of said x-ray emitting apparatus comprising an x-ray emitter arranged for producing 2D images, and a second of said x-ray emitting apparatus comprising an array of distributed x-ray emitters arranged for producing 3D tomosynthesis images, the first and second x-ray emitting apparatus (130, 140) moveable relative to the support structure and arranged such that, in use, one of the first and second x-ray emitting apparatus (130, 140) is moveable into an operative position whereby x-rays are emitted therefrom towards a target, and simultaneously the other of the first and second x-ray emitting apparatus (130, 140) is movable into an inoperative position whereby x-rays are not emitted therefrom.