mhurhangee/ep-ind-claims huggingface dataset:
A detector system for an imaging system, comprising: a detector chassis forming a housing having a plurality of detector elements and associated electronics located along a length of the chassis; a duct extending along the length of the chassis; a manifold having a plurality of openings extending along the length of the chassis, the manifold providing fluid communication between the duct and the chassis housing; a vacuum source coupled to the duct that generates a vacuum force within the duct; a plurality of inlet openings (129, 130) extending along the length of the chassis housing, an airflow path being defined through the chassis housing between the plurality of inlet openings (129, 130) and the plurality of manifold openings, the detector elements and associated electronics being located along the airflow path; and an exhaust opening coupled to the vacuum source for removing air from the detector system, wherein the detector system is suitable to be mounted to a rotor that is housed within a gantry of an imaging system. a detector chassis forming a housing having a plurality of detector elements and associated electronics located along a length of the chassis; a duct extending along the length of the chassis; a manifold having a plurality of openings extending along the length of the chassis, the manifold providing fluid communication between the duct and the chassis housing; a vacuum source coupled to the duct that generates a vacuum force within the duct; a plurality of inlet openings (129, 130) extending along the length of the chassis housing, an airflow path being defined through the chassis housing between the plurality of inlet openings (129, 130) and the plurality of manifold openings, the detector elements and associated electronics being located along the airflow path; and an exhaust opening coupled to the vacuum source for removing air from the detector system, wherein the detector system is suitable to be mounted to a rotor that is housed within a gantry of an imaging system.
Process for producing a coating source for the physical vapour deposition of doped carbon layers, where the coating source comprises carbon as a matrix material in a proportion of at least 75 mol% and at least one dopant in a proportion in the range from 1 mol% to 25 mol%, wherein the dopant-containing particles are uniformly distributed in the microstructure of the carbon matrix and wherein the microstructure of the coating source has at least two different crystallographic phases and at least one phase comprising the dopant, wherein the coating source has a theoretical density of at least 80%, characterized in that this process comprises at least the following production steps: • production of a powder mixture composed of carbon-containing powder and dopant-containing powder • sintering of the powder mixture by means of sintering with direct passage of current or by means of hot pressing at temperatures of from 1300°C to 3000°C and a pressure of 5 MPa to 50 MPa • mechanical working of the sintered shaped body to give a coating source. • production of a powder mixture composed of carbon-containing powder and dopant-containing powder • sintering of the powder mixture by means of sintering with direct passage of current or by means of hot pressing at temperatures of from 1300°C to 3000°C and a pressure of 5 MPa to 50 MPa • mechanical working of the sintered shaped body to give a coating source.
A signal processing method, comprising: determining, by a terminal device, a Quasi-Co-Location identifier, QCL ID, corresponding to a first port set for a first downlink signal; determining, by the terminal device, a second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID; and processing, by the terminal device, signals on the first port set for the first downlink signal based on QCL information obtained from the second downlink signal; characterized in that, the QCL ID is beam ID, and wherein determining, by the terminal device, the second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID, comprises: determining, by the terminal device, a synchronization signal, SS, block containing the beam ID as the second downlink signal in QCL with the first port set for the first downlink signal, each signal in the SS block containing the beam ID. determining, by a terminal device, a Quasi-Co-Location identifier, QCL ID, corresponding to a first port set for a first downlink signal; determining, by the terminal device, a second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID; and processing, by the terminal device, signals on the first port set for the first downlink signal based on QCL information obtained from the second downlink signal; characterized in that, the QCL ID is beam ID, and wherein determining, by the terminal device, the second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID, comprises: determining, by the terminal device, a synchronization signal, SS, block containing the beam ID as the second downlink signal in QCL with the first port set for the first downlink signal, each signal in the SS block containing the beam ID.
A method for transmission of control data to a user equipment in a mobile telecommunication system, wherein the method comprises: sending control data to the user equipment in a data transmission (700, 1400), wherein the data transmission (700, 1400) has a first control data region (1304, 1306, 1402) and has a second control data region (1304, 1306, 1402), the second control data region (1304, 1306, 1402) being located in the data region of the data transmission (700, 1400), wherein the first control data region (1304, 1306, 1402) is located in the data region of the data transmission (700, 1400), wherein the first control data region (1304, 1306, 1402) comprises common control data for different user equipments, and wherein the second control data region (1304, 1306, 1402) comprises user equipment specific control data for said user equipment, wherein the data transmission (700, 1400) is configured without a control region in the data transmission (700, 1400) preceding the data region; performing, by the user equipment, a blind decoding of transmission elements within the data transmission (700, 1400) in order to detect the control data in the data region in the data transmission (700, 1400). sending control data to the user equipment in a data transmission (700, 1400), wherein the data transmission (700, 1400) has a first control data region (1304, 1306, 1402) and has a second control data region (1304, 1306, 1402), the second control data region (1304, 1306, 1402) being located in the data region of the data transmission (700, 1400), wherein the first control data region (1304, 1306, 1402) is located in the data region of the data transmission (700, 1400), wherein the first control data region (1304, 1306, 1402) comprises common control data for different user equipments, and wherein the second control data region (1304, 1306, 1402) comprises user equipment specific control data for said user equipment, wherein the data transmission (700, 1400) is configured without a control region in the data transmission (700, 1400) preceding the data region; performing, by the user equipment, a blind decoding of transmission elements within the data transmission (700, 1400) in order to detect the control data in the data region in the data transmission (700, 1400).
A method for operating a heating assembly in which a primary heat generator and if necessary a secondary heat generator are operated to meet a heat requirement, wherein exhaust gas of the two heat generators (1, 2) is supplied to a common exhaust gas discharge device, characterized in that when the secondary heat generator is not operating, a throughput measuring device of the secondary heat generator is used to detect a flow of exhaust gas generated by the primary heat generator from the exhaust gas discharge device into the secondary heat generator.
A rotary table for a milling machine, comprising: sensing means (30,32) configured to measure and/or calculate a clearance between two mating components of said rotary table, and transmission means configured to transmit said measured and/or calculated clearance to a central processing unit, wherein said mating components of said rotary table are a worm screw and a worm wheel; characterised in that said sensing means comprises either: (i) an encoder configured to measure the position of a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table; or (ii) a current sensor configured to measure current flow through a power line into a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table. sensing means (30,32) configured to measure and/or calculate a clearance between two mating components of said rotary table, and transmission means configured to transmit said measured and/or calculated clearance to a central processing unit, wherein said mating components of said rotary table are a worm screw and a worm wheel; characterised in that said sensing means comprises either: (i) an encoder configured to measure the position of a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table; or (ii) a current sensor configured to measure current flow through a power line into a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table. (i) an encoder configured to measure the position of a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table; or (ii) a current sensor configured to measure current flow through a power line into a servo motor of the rotary table, and a switch mounted on a faceplate of the rotary table.
A method of determining the operation of equipment in an area from its radiated emissions, the method comprising:- a) receiving radiated emissions in at least one frequency band; b) generating at least one spectral output signal indicative of the received radiated emissions, the at least one spectral output signal having peaks (700, 710); c) processing each spectral output signal to determine a variation of the peaks (700, 710) either in amplitude or frequency over time in the spectral output signal; d) comparing said variation of the peaks (700, 710) with data stored in a database; and e) determining the presence of operation of equipment in the area from the comparison. a) receiving radiated emissions in at least one frequency band; b) generating at least one spectral output signal indicative of the received radiated emissions, the at least one spectral output signal having peaks (700, 710); c) processing each spectral output signal to determine a variation of the peaks (700, 710) either in amplitude or frequency over time in the spectral output signal; d) comparing said variation of the peaks (700, 710) with data stored in a database; and e) determining the presence of operation of equipment in the area from the comparison.
Pre assembled canvas for painting or printing which allows flat storage and transportation, it is easy to assemble and has supports with different thicknesses, comprising: a foldable supporting structure made up of a central panel having a quadrangular shape, four side panels forming a perimeter around the central panel and four rear panels interlocked to each of the side panels, where said rear panels are rectangular with smaller sides and have through-holes adjacent to each of the smaller sides, and said panels are separated by "V" longitudinal grooves with angle between 90°/100° which allows perpendicular folding of each of the panels; a flexible layered painting or printing substrate with a front face and a rear face and having a quadrangular shape with square cuts at each vertex, where the sides of the square cuts match the width of the side panels plus the width of the rear panels; and said canvas has fastening means attached to the rear panels, characterized in that the painting substrate is attached to the foldable supporting structure by using staples, on the rear panels, that form a perimeter on the rear panels, once the foldable supporting structure is folded; and the fastening means having a framing squared-shaped piece located under each corner on the rear panels when the foldable supporting structure is folded, which has through-holes, and some snap-on connectors, which are inserted through said through-holes of the rear panels and the through-holes of the square-shaped pieces generating the splicing among the panels and the square-shaped pieces.
Phase-controlled antenna element for array antennas, comprising a waveguide radiator, a rotatable phase shifter arranged in the waveguide radiator and comprising • at least two meander polarizers, each of which can convert a circularly polarized signal into a linearly polarized signal, • a mount connected to the meander polarizers, • a connection element, a drive unit, which is connected to the phase shifter via the connection element, such that the phase shifter can be rotated about the axis of the waveguide radiator, and a signal output coupling and/or input coupling from and/or into the waveguide radiator. • at least two meander polarizers, each of which can convert a circularly polarized signal into a linearly polarized signal, • a mount connected to the meander polarizers, • a connection element,
A high strength steel wire having excellent corrosion resistance, comprising: by weight%, 0.07 to 0.15% of carbon, 2.7 to 3.5% of manganese (Mn), 0.10 to 0.50% of silicon (Si), 0% to 0.8% of chromium (Cr), 0.01 to 0.02% of titanium (Ti), 0.001 to 0.003% of boron, 0.005% or less of Nitrogen, 0.015% or less of Sulphur and a remainder of iron (Fe) and unavoidable impurities, wherein the microstructure of the steel wire consists of a bainite phase. by weight%, 0.07 to 0.15% of carbon, 2.7 to 3.5% of manganese (Mn), 0.10 to 0.50% of silicon (Si), 0% to 0.8% of chromium (Cr), 0.01 to 0.02% of titanium (Ti), 0.001 to 0.003% of boron, 0.005% or less of Nitrogen, 0.015% or less of Sulphur and a remainder of iron (Fe) and unavoidable impurities, wherein the microstructure of the steel wire consists of a bainite phase.
An assistance system situated in a vehicle V1, which system comprises a position module adapted to determining the vehicle's current location, a map module containing map data and adapted to delivering a map signal comprising information which defines a future horizon with a predetermined length for a future section of road for the vehicle, wherein the end of the horizon being as far ahead of the vehicle V1 as a distance D can be calculated by the assistance system, and a communication module adapted to identifying a vehicle V2 and to establishing a communication link with said vehicle for transmitting and receiving information according to a predetermined communication protocol, characterised in that the assistance system further comprises an overtaking module comprising a calculation unit and a memory unit and adapted to receiving a first set of vehicle parameters VP1 for the driver's vehicle V1, which parameters comprise at least the vehicle's total weight, speed and location and one or more parameters related to its engine power, the communication module is adapted to receiving from vehicle V2 a second set of vehicle parameters VP2 which comprise at least the vehicle's total weight, speed and location and one or more parameters related to its engine power, and to conveying these vehicle parameters to said overtaking module, the overtaking module is adapted to determining that said vehicle V2 is a vehicle ahead, in which case the calculation unit in the overtaking module is adapted to continuously calculating the distance D between the driver's vehicle and the vehicle ahead at one or more predetermined future locations for the driver's vehicle, based on the vehicle parameters VP1 and VP2, the calculated distances D are stored continuously in said memory unit, the calculation unit is further adapted to analysing how D changes at any desired point ahead of the vehicle V1 limited by the length of the horizon which is covered by the map module, and the overtaking module is adapted to generating overtaking instructions based on the analysis and intended to be presented to the driver of vehicle V1.
Zero-point clamping module with a basic housing, with a clamping seat provided in the basic housing for receiving a clamping element, with a piston arranged in the basic housing in an axially displaceable manner, and with at least one locking element movable in the basic housing orthogonally to a longitudinal center axis of the clamping seat, wherein at least one cylinder pin is provided, which is arranged on the piston or the locking element, respectively, transversely with respect to the longitudinal center axis, the pin being movably coupled with an inclined guide on the side of the locking element or the piston, respectively, in such a way that, when the piston is moved in axial direction, the locking element for fixing or releasing a clamping element received by the clamping seat is moved in radial direction, wherein the clamping seat is formed as a recess in the basic housing, characterized in that a closure device with a cover element, with an axially movable setting element and with a sealing ring provided between the cover element and the setting element is provided in such a way in the clamping seat that, when the locking element is moved in a radially inner closing position, the setting element is moved against the cover element, so that the sealing ring is expanded in radial direction for sealing against the basic housing.
A tape feeder, wherein for a tape feeder configured such that at least one tape supplier on which component supply tape in which multiple electronic components are arranged at a specific pitch is set in order to supply the components to a pickup position is removably attached to a feeder main body; said tape supplier is equipped with a supplier identification information memorizing means in which said tape supplier identification information (hereafter referred to as "supplier ID") is memorized; said feeder main body is equipped with an identification information reading and memorizing means for reading said supplier ID from said supplier identification information memorizing means of said tape supplier attached to said feeder main body; said feeder main body being equipped with an attachment recognition means to recognize when said tape supplier has been attached to said feeder main body by reading said supplier ID from said supplier identification information memorizing means using said identification information reading and memorizing means, wherein the tape supplier is equipped with a cover tape peeling device for peeling away a cover tape which covers the upper surface of the component supply tape, and a cover tape collection case for collecting cover tape peeled from component supply tape.
A process for preparing beer, wherein a wort is obtained from a mash, the wort is thereupon subjected to a heat treating, the hot trub is separated from the treated wort, and after the hot-trub separation, beer is obtained from the wort by fermentation, characterized in that during the brewing process, an in particular pre-isomerized hop product is added to the entire wort not all at once, but the bitter substances from the hop product are specifically extracted by means of wort as an extracting agent in an extraction container, which is constructed as a screw-type extractor, and are thereby transferred into the wort, whereby also a counterflow feeding of wort and hop product is realized at least partially.
A method of maintaining a concentration of sulfuric acid in an electrolyte comprising manganese ions, wherein the manganese ions form a metastable complex in a solution of sulfuric acid, the method comprising the steps of: a) monitoring the electrolyte in an electrolytic cell to determine a concentration of sulfuric acid in the electrolyte; b) removing a portion of the electrolyte from the electrolytic cell to an annex tank if the concentration of sulfuric acid decreases to less than 8 molar; c) treating the removed portion of the electrolyte in the annex tank to remove moisture from the portion of the electrolyte and restore the concentration of sulfuric acid to between 12 and 13 molar; and d) returning the treated portion of the electrolyte to the electrolytic cell; wherein moisture in the treated portion of the electrolyte is removed or reduced and the concentration of sulfuric acid is restored. a) monitoring the electrolyte in an electrolytic cell to determine a concentration of sulfuric acid in the electrolyte; b) removing a portion of the electrolyte from the electrolytic cell to an annex tank if the concentration of sulfuric acid decreases to less than 8 molar; c) treating the removed portion of the electrolyte in the annex tank to remove moisture from the portion of the electrolyte and restore the concentration of sulfuric acid to between 12 and 13 molar; and d) returning the treated portion of the electrolyte to the electrolytic cell; wherein moisture in the treated portion of the electrolyte is removed or reduced and the concentration of sulfuric acid is restored.
A braking system for a rotating chopper drum of a forage harvester driven from an engine via a drive train including a disengageable clutch, the drive train also driving a first pump connected with the drum which pumps fluid around a hydraulic circuit which includes a motor driven by the first pump, the motor driving feed rolls of the forage harvester which feed crop to the chopper drum, the hydraulic circuit including an openable restriction, the system being arranged to brake the chopper drum by disengaging the clutch and by arranging the first pump to pump fluid around the circuit via the openable restriction as the drum continues to rotate to convert the energy of the rotating drum into heat, so that when the clutch is disengaged the supply of fluid from the first pump to the feed roll motor is disconnected and the fluid pumped round the circuit by the first pump is diverted through the openable restriction; characterised in that the feed roll motor is a fixed displacement motor and a pilot-operated diverter valve disconnects the main flow from the first pump to the fixed displacement motor when diverting the flow through the openable restriction. characterised in that the feed roll motor is a fixed displacement motor and a pilot-operated diverter valve disconnects the main flow from the first pump to the fixed displacement motor when diverting the flow through the openable restriction.