mhurhangee/ep-ind-claims huggingface dataset:
A generator configured to provide power to sustain an inductively coupled plasma in a torch body in a driven mode and in an oscillation mode, the generator comprising: a circuit (110,120) configured to electrically couple to an induction device (130,260) and provide power to the induction device in the driven mode to sustain the inductively coupled plasma in the torch body in the driven mode and configured to provide power to the induction device in the oscillation mode to sustain the inductively coupled plasma in the torch body in the oscillation mode; wherein the circuit comprises driving circuit enabled in the driven mode and an oscillating circuit enabled in the oscillation mode-wherein the driving circuit is configured to provide a substantially constant frequency and amplitude to the induction device during operation in the driven mode, wherein the oscillating circuit is configured to provide a variable frequency and amplitude during operation in the oscillation mode, wherein the inductively coupled plasma is ignited with the driving circuit enabled and the oscillating circuit disabled, and wherein once the inductively coupled plasma is ignited, the generator is switched from the driven mode to the oscillation mode by disabling the driving circuit and enabling the oscillating circuit and a processor (140,280) electrically coupled to the circuit and configured to switch operation of the circuit between the driven mode and the oscillation mode. a circuit (110,120) configured to electrically couple to an induction device (130,260) and provide power to the induction device in the driven mode to sustain the inductively coupled plasma in the torch body in the driven mode and configured to provide power to the induction device in the oscillation mode to sustain the inductively coupled plasma in the torch body in the oscillation mode; wherein the circuit comprises driving circuit enabled in the driven mode and an oscillating circuit enabled in the oscillation mode-wherein the driving circuit is configured to provide a substantially constant frequency and amplitude to the induction device during operation in the driven mode, wherein the oscillating circuit is configured to provide a variable frequency and amplitude during operation in the oscillation mode, wherein the inductively coupled plasma is ignited with the driving circuit enabled and the oscillating circuit disabled, and wherein once the inductively coupled plasma is ignited, the generator is switched from the driven mode to the oscillation mode by disabling the driving circuit and enabling the oscillating circuit and a processor (140,280) electrically coupled to the circuit and configured to switch operation of the circuit between the driven mode and the oscillation mode.
A method for producing a resin composition for a friction material, the method comprising performing polymer blending of a phenol resin and a lignin, wherein the polymer blending includes a method of solvent-mixing the phenol resin and the lignin with an organic solvent, followed by vacuum heat drying, thereby performing polymer blending, wherein the organic solvent is selected from any of methanol, ethanol, acetone, propanol, ethyl acetate and tetrahydrofuran.
Closed-loop and/or open-loop control system for an agricultural machine comprising a distributor boom for spreading material, such as fertilizers, plant protection products or seeds, which boom can be pivoted about an axis of rotation arranged centrally in relation to the distributor boom and extending in the direction of travel, the system comprising at least a first sensor device for determining the ground distance and/or plant distance from the distributor boom, and a data processing device for processing the sensor signals, the data processing device being configured for an automatic mode for adjusting the height and/or inclination of the distributor boom, at least one sensor device for determining the angle between the machine and the distributor boom and/or a sensor device for determining the vertical distance between the machine and the distributor boom, the data processing device being configured for an override mode, in particular a manual override mode, for adjusting the height and/or inclination of the distributor boom, and the automatic mode being active in the override mode, characterized in that the inclination of the distributor boom is adjusted at least in the override mode of the data processing device on the basis of the angle between the machine and the distributor boom and the height of the distributor boom is adjusted at least in the override mode of the data processing device on the basis of the vertical distance between the machine and the distributor boom.
A method for responding to a voice activated request, comprising: receiving a speech input request from a smart speaker requesting energy management data associated with energy consumption at a premises of the smart speaker; generating, by a computing service, a voice service request based on the speech input request, the voice service request comprising a first query for a metering device, the first query comprising a request for the energy management data stored locally on the metering device; communicating, by the computing service, the first query to the metering device; characterized by generating, by the computing service, a second query of the voice service request, wherein the second query comprises a request for additional energy management data from a head end system associated with the metering device, wherein the additional energy management data is not stored locally on the metering device; communicating, by the metering device, the second query to the head end system; receiving, at the metering device, a response from the head end system to the second query; receiving, at the computing service, a response from the metering device to the first query and the second query; generating, by the computing service, an audible speech output in response to the speech input request based on the response to the first query and the second query; and transmitting the audible speech output to the smart speaker, wherein the smart speaker is configured to audibly transmit the audible speech output. receiving a speech input request from a smart speaker requesting energy management data associated with energy consumption at a premises of the smart speaker; generating, by a computing service, a voice service request based on the speech input request, the voice service request comprising a first query for a metering device, the first query comprising a request for the energy management data stored locally on the metering device; communicating, by the computing service, the first query to the metering device; characterized by generating, by the computing service, a second query of the voice service request, wherein the second query comprises a request for additional energy management data from a head end system associated with the metering device, wherein the additional energy management data is not stored locally on the metering device; communicating, by the metering device, the second query to the head end system; receiving, at the metering device, a response from the head end system to the second query; receiving, at the computing service, a response from the metering device to the first query and the second query; generating, by the computing service, an audible speech output in response to the speech input request based on the response to the first query and the second query; and transmitting the audible speech output to the smart speaker, wherein the smart speaker is configured to audibly transmit the audible speech output.
A belt welding apparatus for joining monolithic belt ends, the belt welding apparatus comprising: an elongate frame; a pair of elongate platens (610, 612) mounted to the frame with at least one of the platens being laterally movable toward and away from the other platen, the pair of elongate platens being configured for supporting belt ends thereon; and a non-contact ribbon heating device having an elongate ribbon heating element for generating thermal radiation, the non-contact ribbon heating device being mounted to the frame to be vertically movable between a lowered, stowed position below the platens and a raised, heating position with the elongate ribbon heating element in an elongate gap between the platens, characterized in that the elongate ribbon heating element is exposed, not enclosed in a vacuum bulb. an elongate frame; a pair of elongate platens (610, 612) mounted to the frame with at least one of the platens being laterally movable toward and away from the other platen, the pair of elongate platens being configured for supporting belt ends thereon; and a non-contact ribbon heating device having an elongate ribbon heating element for generating thermal radiation, the non-contact ribbon heating device being mounted to the frame to be vertically movable between a lowered, stowed position below the platens and a raised, heating position with the elongate ribbon heating element in an elongate gap between the platens, characterized in that the elongate ribbon heating element is exposed, not enclosed in a vacuum bulb.
A method of producing a polypeptide comprising the step of culturing in a cell culture medium a cell comprising an isolated nucleic acid encoding the polypeptide, wherein: a) the cell culture medium comprises: from about 200 mg/L to about 1200 mg/L cystine; from about 0.05 mg/L to about 1.0 mg/L vitamin B2; from about 0.05 mg/L to about 10.0 mg/L vitamin B6; from about 0.05 mg/L to about 12.0 mg/L vitamin B9; from about 0.05 mg/L to about 2.5 mg/L vitamin B12; and ferric citrate or ferrous sulfate; b) the cell expresses the polypeptide; and c) the polypeptide is isolated from the cell culture medium, wherein the isolated polypeptide is concentrated to provide a composition comprising a polypeptide at a concentration of at least 100 mg/ml and wherein the composition has a color reference standard value selected from any one of B4-B9, BY4-BY7, Y4-Y7, GY4-GY7 and R4-R7 according to the European Pharmacopoeia color standards, European Pharmacopoeia, 2008, 7 th Edition, Page 22. a) the cell culture medium comprises: from about 200 mg/L to about 1200 mg/L cystine; from about 0.05 mg/L to about 1.0 mg/L vitamin B2; from about 0.05 mg/L to about 10.0 mg/L vitamin B6; from about 0.05 mg/L to about 12.0 mg/L vitamin B9; from about 0.05 mg/L to about 2.5 mg/L vitamin B12; and ferric citrate or ferrous sulfate; from about 200 mg/L to about 1200 mg/L cystine; from about 0.05 mg/L to about 1.0 mg/L vitamin B2; from about 0.05 mg/L to about 10.0 mg/L vitamin B6; from about 0.05 mg/L to about 12.0 mg/L vitamin B9; from about 0.05 mg/L to about 2.5 mg/L vitamin B12; and ferric citrate or ferrous sulfate; b) the cell expresses the polypeptide; and c) the polypeptide is isolated from the cell culture medium, wherein the isolated polypeptide is concentrated to provide a composition comprising a polypeptide at a concentration of at least 100 mg/ml and wherein the composition has a color reference standard value selected from any one of B4-B9, BY4-BY7, Y4-Y7, GY4-GY7 and R4-R7 according to the European Pharmacopoeia color standards, European Pharmacopoeia, 2008, 7 th Edition, Page 22.
A method for managing communications comprising: obtaining user profile data comprising at least associations between contexts (810, 820, 830, 840, 850) and sources of communication (862, 864, 866, 868, 872, 874, 876, 878) wherein a context is at least one of a topic, a subject, and a category of a communication; generating information comprising graphical elements corresponding to sources of communications, generating information comprising graphical elements corresponding to contexts, in response to user input: managing an association of a context with a source of communication through graphical interactions on the graphical elements corresponding to sources of communications and the graphical elements corresponding to contexts and updating user profile data according to said associations, managing received communications by selecting communications for which the context and the source are matching a context-source association of the user profile data; and generating information for display comprising graphical elements corresponding to the selected communications according to the user profile data. obtaining user profile data comprising at least associations between contexts (810, 820, 830, 840, 850) and sources of communication (862, 864, 866, 868, 872, 874, 876, 878) wherein a context is at least one of a topic, a subject, and a category of a communication; generating information comprising graphical elements corresponding to sources of communications, generating information comprising graphical elements corresponding to contexts, in response to user input: managing an association of a context with a source of communication through graphical interactions on the graphical elements corresponding to sources of communications and the graphical elements corresponding to contexts and updating user profile data according to said associations, managing an association of a context with a source of communication through graphical interactions on the graphical elements corresponding to sources of communications and the graphical elements corresponding to contexts and updating user profile data according to said associations, managing received communications by selecting communications for which the context and the source are matching a context-source association of the user profile data; and generating information for display comprising graphical elements corresponding to the selected communications according to the user profile data.
A method for pore sealing a porous substrate, characterized in that the substrate is SiOCH having a dielectric constant κ lower than 2.3 and a pore size of 1-5 nm, wherein the method comprises at least once the following sequence of steps: (a) forming a continuous monolayer of a polyimide precursor on a liquid surface; and (b) transferring said polyimide precursor monolayer onto the porous substrate with the Langmuir-Blodgett technique; and further comprises the step of: (c) imidization of the transferred polyimide precursor monolayers, thereby forming a polyimide sealing layer on the porous substrate. (a) forming a continuous monolayer of a polyimide precursor on a liquid surface; and (b) transferring said polyimide precursor monolayer onto the porous substrate with the Langmuir-Blodgett technique; (c) imidization of the transferred polyimide precursor monolayers, thereby forming a polyimide sealing layer on the porous substrate.
A method for controlling the drive of a vehicle that has at least two drive systems for traction, an active drive system and a complementary drive system which, in a deactivated state, has a preparation lead-time before it can deliver a torque, characterized in that with the active drive system applying a torque C2 to the wheels to allow the vehicle to drive along, and with the complementary drive system deactivated, it calculates a theoretical acceleration of the vehicle A veh_theoretical, which is dependent on the torque C2 applied by this active drive system, on the speed of the vehicle V, and the driving conditions F0, F1, F2, then it compares this with the measured actual acceleration of this vehicle A veh_actual, and if it detects a discrepancy higher than a threshold value, it immediately commands activation of the complementary drive system.
Method for removing a silicon-containing deposit on a component of a reactor, wherein the reactor is a fluidized-bed reactor for producing polycrystalline silicon granules by deposition of polycrystalline silicon on silicon seed particles added to the reactor, wherein the deposit is removed mechanically by means of silicon-containing sharp-edged particles and the deposit is removed while the reactor is in operation, that is to say while polycrystalline silicon granules are being produced, characterized in that the component of the reactor on which the deposit is removed is an off-gas tube and the silicon-containing particles, for removing the deposit, are fed to the fluidized-bed reactor separately without admixture of other substances or the silicon-containing particles are added to the seed particles and continuously fed to the fluidized-bed reactor.
An exchanger unit for handling a multitude of sub-tanks for gaseous fuels, said exchanger unit comprising: - a supply vessel in an outlet section; - a return vessel in an inlet section; - a sealable outlet adapted for ejection of a multitude of sub-tanks from said supply vessel; and - a sealable inlet adapted for collection of a multitude of sub-tanks to said return vessel, and further comprising: - a compressor arranged between said supply vessel and said return vessel providing a differential pressure between said supply vessel and said return vessel, wherein a pressure in said supply vessel is higher than in said return vessel; whereby upon connecting said sealable outlet and said sealable inlet a gas flow being generated by said differential pressure for carrying sub-tanks from the supply vessel through said sealable outlet and for carrying sub-tanks through said sealable inlet to the return vessel. - a supply vessel in an outlet section; - a return vessel in an inlet section; - a sealable outlet adapted for ejection of a multitude of sub-tanks from said supply vessel; and - a sealable inlet adapted for collection of a multitude of sub-tanks to said return vessel, - a compressor arranged between said supply vessel and said return vessel providing a differential pressure between said supply vessel and said return vessel, wherein a pressure in said supply vessel is higher than in said return vessel;
Non-woven fabric having an inner side and an outer side, wherein the inner side of the non-woven fabric comprises an embossing pattern having a surface roughness Ra of from 25 to 60 micrometers, preferably from 25 to 50 micrometers, advantageously from 25 to 40 micrometers, obtained by an optical measurement method based on enhanced white light vertical scanning interferometry as disclosed in the description.
A gas field ion source configured to receive one or more gases from a gas source and to produce ions from the gas(es), the gas field ion source comprising a tip having an apex (101, the tip being made of a first electrically conductive material having a surface, the gas field ion source further comprising an extractor and means for biasing the tip with respect to the extractor to generate an electrical field at the apex of the tip directed outward from the surface of the apex of the tip, the tip further comprises a coating, characterized in that the coating is supported by the first electrically conductive material only where an average emission current density from the tip is at most 50% of a maximum emission current density from the tip and that the coating is supported by the first electrically conductive material in a region in which the electrical field is not strong enough to cause all ions to be ionized to become accelerated away from the tip without contacting the surface.
A method of controlling a heater of an e-vaping device, the heater having at least a first operation mode in which a first amount of power is supplied to the heater by the e-vaping device, and a second operation mode in which a second amount of power greater than the first amount is supplied to the heater by the e-vaping device, the method comprising: detecting, by the e-vaping device, movements of the e-vaping device; generating, by the e-vaping device, quaternions based on the detected movements; generating, by the e-vaping device, movement features based on the generated quaternions; applying, by the e-vaping device, the generated movement features to a classifier; determining whether a hand-to-mouth gesture, HMG, occurred with respect to the e-vaping device based on an output of the classifier; and transitioning of the heater from the first operation mode to the second operation mode in response to determining that the HMG occurred, wherein the first operation mode is a mode in which no power is supplied to the heater by the e-vaping device, and the second operation mode is a mode in which an amount of power supplied to the heater by the e-vaping device is an amount that causes the heater to heat a pre-vapor formulation stored in the e-vaping device to a temperature below a boiling point of the pre-vapor formulation. detecting, by the e-vaping device, movements of the e-vaping device; generating, by the e-vaping device, quaternions based on the detected movements; generating, by the e-vaping device, movement features based on the generated quaternions; applying, by the e-vaping device, the generated movement features to a classifier; determining whether a hand-to-mouth gesture, HMG, occurred with respect to the e-vaping device based on an output of the classifier; and transitioning of the heater from the first operation mode to the second operation mode in response to determining that the HMG occurred, wherein the first operation mode is a mode in which no power is supplied to the heater by the e-vaping device, and the second operation mode is a mode in which an amount of power supplied to the heater by the e-vaping device is an amount that causes the heater to heat a pre-vapor formulation stored in the e-vaping device to a temperature below a boiling point of the pre-vapor formulation.
A process for preparing a poly(amide-imide) film, which comprises: simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank; purging the tank with an inert gas; casting the polymer solution in the tank onto a belt and then drying it to prepare a gel-sheet; thermally treating the gel-sheet while it is moved to prepare a cured film; cooling the cured film while it is moved; and winding the cooled cured film using a winder. simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank; purging the tank with an inert gas; casting the polymer solution in the tank onto a belt and then drying it to prepare a gel-sheet; thermally treating the gel-sheet while it is moved to prepare a cured film; cooling the cured film while it is moved; and winding the cooled cured film using a winder.