mhurhangee/ep-ind-claims huggingface dataset:
A first device comprising: an electroencephalogram, EEG, signal sensor configured to record EEG signals indicative of a directional intention from a user of the first device: a gestural sensor configured to record gestural signals from the user, the gestural sensor comprising an inner ear pressure sensor configured to record inner ear pressure from the user and at least one of an accelerometer configured to record an accelerometer signal or a micro-gyroscope configured to record a gyroscope signal, the gestural signals indicative of head movement by the user; a communications module configured to: transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device; receive one or more action signals from the secondary device, wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and wherein the first device is configured to perform at least one action based on the received one or more action signals from the secondary device. an electroencephalogram, EEG, signal sensor configured to record EEG signals indicative of a directional intention from a user of the first device: a gestural sensor configured to record gestural signals from the user, the gestural sensor comprising an inner ear pressure sensor configured to record inner ear pressure from the user and at least one of an accelerometer configured to record an accelerometer signal or a micro-gyroscope configured to record a gyroscope signal, the gestural signals indicative of head movement by the user; a communications module configured to: transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device; receive one or more action signals from the secondary device, wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device; receive one or more action signals from the secondary device, wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and wherein the first device is configured to perform at least one action based on the received one or more action signals from the secondary device.
A method of controlling fuel injection in an internal combustion engine having at least one cylinder with an associated fuel injector for performing injection events, wherein for each injection event a pulse width is determined with which the injector is kept open to spray a desired quantity of fuel, wherein when the quantity of fuel of a given fuel injection event is greater than a learning threshold, a split fuel injection is performed, whereby a first, low injection pulse and a second, complementary injection pulse are executed, and wherein data representative of a closing time and/or an opening time of the fuel injector is determined in respect of said first, low injection pulse and learned correction value(s) is/are elaborated based on said closing time and/or opening time, said learned correction value(s) being subsequently used for injection control.
A program product for calibrating a magnetic compass, the program product comprising a processor-readable medium on which program instructions are embodied, wherein the program instructions are operable, when executed by at least one programmable processor coupled to the magnetic compass, to cause the magnetic compass to: collect a plurality of magnetic field samples (252-1 through 252-8) while the magnetic compass is rotated; select a number of the plurality of magnetic field samples as validated magnetic field samples, wherein the selecting of the validated magnetic field samples is done by recursively comparing the angle between each of the magnetic field samples and all previously validated magnetic field samples to ensure that each validated magnetic field sample is at least a minimum separation angle apart from all previously validated magnetic field samples; and compute calibration coefficients from the selected validated magnetic field samples; and calibrate the magnetic compass with the computed calibration coefficients. collect a plurality of magnetic field samples (252-1 through 252-8) while the magnetic compass is rotated; select a number of the plurality of magnetic field samples as validated magnetic field samples, wherein the selecting of the validated magnetic field samples is done by recursively comparing the angle between each of the magnetic field samples and all previously validated magnetic field samples to ensure that each validated magnetic field sample is at least a minimum separation angle apart from all previously validated magnetic field samples; and compute calibration coefficients from the selected validated magnetic field samples; and calibrate the magnetic compass with the computed calibration coefficients.
A method for detecting a biological fuel, comprising - an anaerobic digestion of organic material, with formation of a biogas, and - production of electricity and heat by combustion of the biogas, with at least partial withdrawal of this electricity, for supplying energy to at least one step of the method consuming electricity, and of this heat, for transferring it to at least one step of the method consuming heat, characterized in that it further comprises - ethanolic fermentation of vegetable materials with tubers and/or grasses and/or vegetable wastes from agricultural cultivations, - separation, from the aforesaid fermented vegetable materials, between a suspension of organic material to be subject to said anaerobic digestion and an aqueous liquid phase containing ethanol, and - distillation of the aqueous liquid phase containing ethanol with separate collection of water and of an ethanolic phase, which forms the produced biological fuel, - said production of electricity and of heat only occurring by combustion of said biogas with supply of electricity to all the steps of the method consuming electricity and with supply of heat to all the steps of the method consuming heat. - an anaerobic digestion of organic material, with formation of a biogas, and - production of electricity and heat by combustion of the biogas, with at least partial withdrawal of this electricity, for supplying energy to at least one step of the method consuming electricity, and of this heat, for transferring it to at least one step of the method consuming heat, - ethanolic fermentation of vegetable materials with tubers and/or grasses and/or vegetable wastes from agricultural cultivations, - separation, from the aforesaid fermented vegetable materials, between a suspension of organic material to be subject to said anaerobic digestion and an aqueous liquid phase containing ethanol, and - distillation of the aqueous liquid phase containing ethanol with separate collection of water and of an ethanolic phase, which forms the produced biological fuel, - said production of electricity and of heat only occurring by combustion of said biogas with supply of electricity to all the steps of the method consuming electricity and with supply of heat to all the steps of the method consuming heat.
Paper punch with a lower part and a pressure lever mounted pivotably on lateral bearing blocks of the lower part and acting on punching tools slidably mounted on the lower part against the restoring force of a spring, in each case, wherein the pressure lever has a cover part which is pivotably connected to the bearing blocks on downward side cheeks and which with its side cheeks engages around the bearing blocks on their outer sides facing away from one another, characterised in that the pressure lever can be pivoted about a pivot axis with respect to the lower part which runs through at least one connecting element (54, 64) which is passed through the lower part and is attached to the inner sides of the side cheeks.
Method for recovering magnesium ammonium phosphate from sludge supplied to a reaction tank in which an aerobic environment prevails and in which the sludge is guided in a cycle supported by aeration, with cationic magnesium such as magnesium chloride being added to the sludge and magnesium ammonium phosphate crystals precipitated from the sludge being removed via an extraction device provided in the floor area of the reaction tank, wherein substances collected in the extraction device and containing magnesium ammonium phosphate crystals are loosened up and/or flushed, where gas and liquid are introduced into the extraction device in a pulsating manner and/or alternatingly and/or simultaneously, and substances exiting the extraction device on the tank side by means of a guide are passed through a funnel-shaped or conically designed lower section of the reaction tank and subjected in an adjoining cylindrical upper section to the flow there.
An apparatus comprising: a first antenna operable in a first resonant frequency band; a second antenna operable in a second resonant frequency band; a first filter coupled to the second antenna; and a first phase shifter, wherein a combination of the first filter and the second antenna are configured to form a notch filter having a resonant frequency band, the first phase shifter being configured to shift the resonant frequency band of the combination to be substantially equal to the first resonant frequency band such that coupling between the first antenna and the second antenna is substantially suppressed. a first antenna operable in a first resonant frequency band; a second antenna operable in a second resonant frequency band; a first filter coupled to the second antenna; and a first phase shifter,
Battery pack comprising a plurality of battery cells, and an enclosure, wherein the plurality of battery cells are arranged on top of a horizontal component, preferably in form of a plate and that the horizontal component is spaced apart from the enclosure by at least one spacer element, said at least one spacer element providing at least one hot stream channel, characterized in that the horizontal component comprises at least one predetermined breaking point formed such to provide a hot stream flow to enter said at least one hot stream channel upon breaking said at least one breaking point, preferably each with one hot stream channel, wherein each predetermined breaking point is provided such that upon breaking of an emergency opening of a battery cell, hot stream flows to said breaking point, wherein said at least one breaking point is provided in form of a local thickness and/or density reduction and/or a fragile element, preferably a membrane, within the horizontal component. a plurality of battery cells, and an enclosure, wherein the plurality of battery cells are arranged on top of a horizontal component, preferably in form of a plate and that the horizontal component is spaced apart from the enclosure by at least one spacer element, said at least one spacer element providing at least one hot stream channel, characterized in that the horizontal component comprises at least one predetermined breaking point formed such to provide a hot stream flow to enter said at least one hot stream channel upon breaking said at least one breaking point, preferably each with one hot stream channel, wherein each predetermined breaking point is provided such that upon breaking of an emergency opening of a battery cell, hot stream flows to said breaking point, wherein said at least one breaking point is provided in form of a local thickness and/or density reduction and/or a fragile element, preferably a membrane, within the horizontal component.
A dispensing device for dispensing medicaments to a patient comprising: (a) a supporting structure (52,302,316,324) comprising a base assembly and a housing (54,328) interconnected with said base assembly; (b) a carriage assembly (58,60) interconnected with said supporting structure for movement between a first position and a second position; (c) a unitary pre-filled collapsible type-like bottle reservoir (65,164,336,447,472,494) having an uninterrupted wall carried by said carriage assembly (58,60), said collapsible reservoir having an outlet port (66,170); (d) a mechanical stored energy means operably associated with said carriage assembly (58,60) for moving said carriage assembly between said first and second positions, said stored energy means comprising a spring; (e) an administration set, including an administration line interconnected with said outlet port of said collapsible reservoir; and (f) fluid flow control means carried by said base assembly of said supporting structure for controlling fluid flow from said collapsible reservoir toward said administration set, said flow control means comprising (a) rate control means carried by said supporting structure for controlling the rate of fluid flow from said collapsible reservoir toward said administration set, and (b) operating means carried by said supporting structure for controlling fluid flow between said collapsible reservoir and said rate control means; and locking means carried by said supporting structure for locking said carriage assembly (56,60) in said first position. (a) a supporting structure (52,302,316,324) comprising a base assembly and a housing (54,328) interconnected with said base assembly; (b) a carriage assembly (58,60) interconnected with said supporting structure for movement between a first position and a second position; (c) a unitary pre-filled collapsible type-like bottle reservoir (65,164,336,447,472,494) having an uninterrupted wall carried by said carriage assembly (58,60), said collapsible reservoir having an outlet port (66,170); (d) a mechanical stored energy means operably associated with said carriage assembly (58,60) for moving said carriage assembly between said first and second positions, said stored energy means comprising a spring; (e) an administration set, including an administration line interconnected with said outlet port of said collapsible reservoir; and (f) fluid flow control means carried by said base assembly of said supporting structure for controlling fluid flow from said collapsible reservoir toward said administration set, said flow control means comprising (a) rate control means carried by said supporting structure for controlling the rate of fluid flow from said collapsible reservoir toward said administration set, and (b) operating means carried by said supporting structure for controlling fluid flow between said collapsible reservoir and said rate control means; and locking means carried by said supporting structure for locking said carriage assembly (56,60) in said first position.
A method of producing an information code by an information code producing apparatus, cells being arranged in a code area of a medium, the cells functioning as a unit of information, wherein the method comprises: arranging, in the code area, a specification pattern region (104, 106, 108) in which specification patterns having predetermined shapes are arranged in the code area, the specification patterns including patterns indicating a position of the code area on the medium; arranging, in the code area, a data recording region and an error correction code recording region in the code area, data coded is recorded in the data recording region by a plurality of types of the cells, error correction codes being recorded in the error correction code recording region by the plurality of types of cells; arranging a canvas area at a position in the code area, the position being located outside the specification pattern region in the code area, the canvas area having a size larger in area than a single cell; the canvas area being arranged using a method which is different from a method of recording the data into the data recording region such that, at least one of recording data and displaying a design is enabled in the canvas area, the design being given independently of the cells arranged in the data recording region; and recording format information of the code at predetermined positions in the code area in a specified format configuration, the predetermined positions being outside the canvas area characterized in that the canvas area is excluded from error correction being performed on the basis of the error correction codes. arranging, in the code area, a specification pattern region (104, 106, 108) in which specification patterns having predetermined shapes are arranged in the code area, the specification patterns including patterns indicating a position of the code area on the medium; arranging, in the code area, a data recording region and an error correction code recording region in the code area, data coded is recorded in the data recording region by a plurality of types of the cells, error correction codes being recorded in the error correction code recording region by the plurality of types of cells; arranging a canvas area at a position in the code area, the position being located outside the specification pattern region in the code area, the canvas area having a size larger in area than a single cell; the canvas area being arranged using a method which is different from a method of recording the data into the data recording region such that, at least one of recording data and displaying a design is enabled in the canvas area, the design being given independently of the cells arranged in the data recording region; and recording format information of the code at predetermined positions in the code area in a specified format configuration, the predetermined positions being outside the canvas area characterized in that the canvas area is excluded from error correction being performed on the basis of the error correction codes.
A medical device (1, 2) comprising: a tube (100, 2100, 3100) through which fluid flows; a handle part (200, 2200) coupled to a proximal end part (102, 2102, 3102) of the tube (100, 2100, 3100); an electrode tip (300, 2300, 3300) coupled to a distal end part (104, 2104, 3104) of the tube (100, 2100, 3100); a fluid injection part (500, 2500) configured to inject the fluid into the tube (100, 2100, 3100); at least one opening (120, 2120) formed in the tube (100, 2100, 3100); and a guide member (310, 320) disposed in the tube (100, 2100, 3100), and having an inclined part to guide a direction of the fluid to be sprayed out through the opening (120, 2120), the guide member (310, 320, 2310, 2320) being formed as one body with the electrode tip (300, 2300, 3300), wherein the guide member (310, 320, 2310, 2320) comprises: a cylinder part (310, 2310); and the inclined part (320, 2320) tapered from the cylinder part (310, 2310), and wherein the cylinder part (310, 2310) has an external diameter corresponding to an internal diameter of the distal end part (104, 2104, 3104) of the tube. a tube (100, 2100, 3100) through which fluid flows; a handle part (200, 2200) coupled to a proximal end part (102, 2102, 3102) of the tube (100, 2100, 3100); an electrode tip (300, 2300, 3300) coupled to a distal end part (104, 2104, 3104) of the tube (100, 2100, 3100); a fluid injection part (500, 2500) configured to inject the fluid into the tube (100, 2100, 3100); at least one opening (120, 2120) formed in the tube (100, 2100, 3100); and a guide member (310, 320) disposed in the tube (100, 2100, 3100), and having an inclined part to guide a direction of the fluid to be sprayed out through the opening (120, 2120), the guide member (310, 320, 2310, 2320) being formed as one body with the electrode tip (300, 2300, 3300), wherein the guide member (310, 320, 2310, 2320) comprises: a cylinder part (310, 2310); and the inclined part (320, 2320) tapered from the cylinder part (310, 2310), and wherein the cylinder part (310, 2310) has an external diameter corresponding to an internal diameter of the distal end part (104, 2104, 3104) of the tube. a cylinder part (310, 2310); and the inclined part (320, 2320) tapered from the cylinder part (310, 2310), and wherein the cylinder part (310, 2310) has an external diameter corresponding to an internal diameter of the distal end part (104, 2104, 3104) of the tube.
A storage system comprising a storage grid structure having a top rail grid upon which container handling vehicles (200,300) work to store and retrieve storage containers in and from storage columns beneath the top rail grid, a picking/stocking station for picking/stocking items between a storage container and a packaging box, and an unloading/loading assembly for unloading/loading packaging boxes containing such items, wherein the picking/supply station is operatively connected to a transfer column (119,120) of the storage grid structure, such that a storage container may be transferred between the picking/stocking station and the storage columns, characterised in that the storage system comprises multiple transfer rails (110',111') forming a horizontal transfer rail grid arranged at a level below the top rail grid, at least one transport vehicle operating on the transfer rail grid, wherein the transport vehicle is arranged to move upon the transfer rail grid in two perpendicular directions and comprises a carrier platform, and wherein the transfer rail grid is arranged to allow access for the transport vehicle to transport one or more packaging boxes at a time between the picking/stocking station and the unloading/loading assembly.
A solid state electrochromic device comprising: an electrochromic film comprising transparent conducting oxide nanostructures embedded in a solid matrix comprising an electrochromic metal oxide material; a layer of a solid electrolyte; and a counter electrode, wherein the electrochromic film is configured to provide a separable control over an amount of visible light and heat transmitted through the device by: modulating its transmittance in a near infrared range of an electromagnetic spectrum in response to a first applied bias voltage wherein the first applied bias voltage charges the TCO nanostructures; and modulating its visible transmittance through reversibly darkening or bleaching the electrochromic metal oxide material in at least the visible spectral range, in response to a second applied bias voltage which is different from the first applied bias voltage, wherein the second applied bias voltage is more negative than a redox potential of the electrochromic metail oxide material. an electrochromic film comprising transparent conducting oxide nanostructures embedded in a solid matrix comprising an electrochromic metal oxide material; a layer of a solid electrolyte; and a counter electrode, wherein the electrochromic film is configured to provide a separable control over an amount of visible light and heat transmitted through the device by: modulating its transmittance in a near infrared range of an electromagnetic spectrum in response to a first applied bias voltage wherein the first applied bias voltage charges the TCO nanostructures; and modulating its visible transmittance through reversibly darkening or bleaching the electrochromic metal oxide material in at least the visible spectral range, in response to a second applied bias voltage which is different from the first applied bias voltage, wherein the second applied bias voltage is more negative than a redox potential of the electrochromic metail oxide material.