mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the operation of a metering device, which device is used to produce a specific single dose of an aerosol and the aerosol contains particles of an active ingredient, wherein the particles of the active ingredient are mixed with a carrier medium to form the single dose of the aerosol, wherein at least the particle size distribution in the single dose and a duration for producing the single dose are ascertained, wherein a laser triangulation measurement is carried out, during which a travel path (s) of at least one movable component (41, 41') of the metering device is measured, wherein the travel path (s) is to be followed in order to produce the single dose, and the duration (t) for the travel path (s) is ascertained.
A ceramic green sheet comprising a plurality of substrate forming regions, wherein a barcode or a two-dimensional code being a QR code, a Data Matrix code or a PDF417 code is drawn in a portion of the ceramic green sheet, wherein a recess portion corresponding to a line of the barcode or a cell of the two-dimensional code is present in the portion of the ceramic green sheet where the barcode or the two-dimensional code is drawn, wherein a depth of the recess portion is 10 um or more and 100 um or less, and the barcode or the two-dimensional code is obtained by encoding one or more of the following information (a) to (d), (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet, (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number. wherein a barcode or a two-dimensional code being a QR code, a Data Matrix code or a PDF417 code is drawn in a portion of the ceramic green sheet, wherein a recess portion corresponding to a line of the barcode or a cell of the two-dimensional code is present in the portion of the ceramic green sheet where the barcode or the two-dimensional code is drawn, wherein a depth of the recess portion is 10 um or more and 100 um or less, and the barcode or the two-dimensional code is obtained by encoding one or more of the following information (a) to (d), (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet, (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number. (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet, (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number.
A device (1; 101; 201) for stimulating a stimulation region within a patient comprising: a first waveform generation circuit (600, 606a, 606b) comprised of a memory (606a, 606b) storing a plurality of samples of a first desired waveform; a register for storing, or an input for inputting, a step size for input into the waveform generation circuit for generating a waveform part, wherein the device is adapted such that a subset of the plurality of samples is retrieved from the memory (606a, 606b) based on the step size for generating the first waveform part; a stimulation pulse generating circuit for generating a stimulation pulse based at least partly on the waveform part; a second waveform generation circuit (600, 605a, 605b) for generating a second waveform part different than the first waveform part, the stimulation pulse generating circuit being configured for generating a stimulation pulse generated from a first pulse phase generated from the first waveform part and a second pulse phase generated from the second waveform part, with the first pulse phase and the second pulse phase provided in series; and a switch for selecting between an output of the first waveform generation circuit (600, 606a, 606b) and an output of the second waveform generation circuit (600, 605a, 605b) as an output of the switch, the stimulation pulse generating circuit being connected to the output of the switch. a first waveform generation circuit (600, 606a, 606b) comprised of a memory (606a, 606b) storing a plurality of samples of a first desired waveform; a register for storing, or an input for inputting, a step size for input into the waveform generation circuit for generating a waveform part, wherein the device is adapted such that a subset of the plurality of samples is retrieved from the memory (606a, 606b) based on the step size for generating the first waveform part; a stimulation pulse generating circuit for generating a stimulation pulse based at least partly on the waveform part; a second waveform generation circuit (600, 605a, 605b) for generating a second waveform part different than the first waveform part, the stimulation pulse generating circuit being configured for generating a stimulation pulse generated from a first pulse phase generated from the first waveform part and a second pulse phase generated from the second waveform part, with the first pulse phase and the second pulse phase provided in series; and a switch for selecting between an output of the first waveform generation circuit (600, 606a, 606b) and an output of the second waveform generation circuit (600, 605a, 605b) as an output of the switch, the stimulation pulse generating circuit being connected to the output of the switch.
Method for determining an efficiency fault (R11-R15) of at least one module of a turboshaft engine of an aircraft, the turboshaft engine comprising at least one compressor module (11, 12), at least one combustion chamber module and at least one turbine module (14, 15), each module having an efficiency (R11-R15) that is specific to it, the method of determining comprising: - A step of determining a performance mapping of the turboshaft engine, hereinafter "estimated real mapping" (CARE), the estimated real mapping (CARE) defining a plurality of mathematical relationships (Fg) between parameters (Pj) of the turboshaft engine, each mathematical relationship (Fg) being determined from the measurements of parameters (Pj) of the turboshaft engine acquired during a given flight of the aircraft, - A step of determining real indicators from the real mapping (CARE), said real indicators corresponding to operating singularities of the predetermined turboshaft engine, - A step of determining a plurality of performance mappings from a simulation of a theoretical model (MOTH) of the turboshaft engine for different efficiency configurations, hereinafter "simulated mappings" (CARSx), the efficiency configuration determining the efficiency (R11-R15) of each module, - A step of determining simulated indicators (lSx) for each simulated mapping (CARSx), said simulated indicators (ISx) corresponding to operating singularities of the predetermined turboshaft engine, - A training step of a mathematical model (CLASS) by linking simulated indicators (lSx) to efficiency configurations and - An application step of said mathematical model (CLASS) to the real indicators in order to deduce a real efficiency configuration. - A step of determining a performance mapping of the turboshaft engine, hereinafter "estimated real mapping" (CARE), the estimated real mapping (CARE) defining a plurality of mathematical relationships (Fg) between parameters (Pj) of the turboshaft engine, each mathematical relationship (Fg) being determined from the measurements of parameters (Pj) of the turboshaft engine acquired during a given flight of the aircraft, - A step of determining real indicators from the real mapping (CARE), said real indicators corresponding to operating singularities of the predetermined turboshaft engine, - A step of determining a plurality of performance mappings from a simulation of a theoretical model (MOTH) of the turboshaft engine for different efficiency configurations, hereinafter "simulated mappings" (CARSx), the efficiency configuration determining the efficiency (R11-R15) of each module, - A step of determining simulated indicators (lSx) for each simulated mapping (CARSx), said simulated indicators (ISx) corresponding to operating singularities of the predetermined turboshaft engine, - A training step of a mathematical model (CLASS) by linking simulated indicators (lSx) to efficiency configurations and - An application step of said mathematical model (CLASS) to the real indicators in order to deduce a real efficiency configuration.
A method for use in a mobile station (115, 116) in a wireless communication network and for communicating with at least one base station in the wireless network, the method comprising: receiving at least one resource allocation message from the at least one base station, wherein the resource allocation message comprising: a sub-band index SBI field; and a message field indicating a number of resource allocation messages; if the message field indicates two resource allocation messages, concatenating a first SBI from a first resource allocation message and a second SBI from a second resource allocation message; and identifying a resource allocation by interpreting the concatenated SBI. receiving at least one resource allocation message from the at least one base station, wherein the resource allocation message comprising: a sub-band index SBI field; and a message field indicating a number of resource allocation messages; a sub-band index SBI field; and a message field indicating a number of resource allocation messages; if the message field indicates two resource allocation messages, concatenating a first SBI from a first resource allocation message and a second SBI from a second resource allocation message; and identifying a resource allocation by interpreting the concatenated SBI.
A hand-held solid chemical applicator for cleaning heat exchange coils, comprising: a fluid inlet disposed in a handle portion of the hand-held solid chemical applicator for receiving a fluid flow; a first valve coupled to govern the fluid flow through the fluid inlet; a second valve comprising a selectively variable valve coupled to receive the fluid flow from at least one of (i) the fluid inlet and (ii) the first valve, and coupled to selectively distribute variable portions of the fluid flow into a fluid outlet and a chemical chamber inlet; a chemical chamber comprising a first open end, a second end opposite the first end, and a cylindrical chamber, the chemical chamber being coupled to receive the fluid flow from the chemical chamber inlet and direct the received fluid flow to the fluid outlet, the chemical chamber inlet being disposed near the first open end, the chemical chamber being disposed in a body portion of the hand-held solid chemical applicator, and the chemical chamber being operable to receive a chemical tablet; characterized by a flow diverter disposed inside of the chemical chamber; wherein a radius of the cylindrical chamber is configured to receive fluid flow from the chemical chamber inlet, and the flow diverter comprises an angled element (364, 364) disposed to deflect the received fluid flow from a radial direction to a direction along the interior circumference of the cylindrical chamber. a fluid inlet disposed in a handle portion of the hand-held solid chemical applicator for receiving a fluid flow; a first valve coupled to govern the fluid flow through the fluid inlet; a second valve comprising a selectively variable valve coupled to receive the fluid flow from at least one of (i) the fluid inlet and (ii) the first valve, and coupled to selectively distribute variable portions of the fluid flow into a fluid outlet and a chemical chamber inlet; a chemical chamber comprising a first open end, a second end opposite the first end, and a cylindrical chamber, the chemical chamber being coupled to receive the fluid flow from the chemical chamber inlet and direct the received fluid flow to the fluid outlet, the chemical chamber inlet being disposed near the first open end, the chemical chamber being disposed in a body portion of the hand-held solid chemical applicator, and the chemical chamber being operable to receive a chemical tablet; characterized by a flow diverter disposed inside of the chemical chamber; wherein a radius of the cylindrical chamber is configured to receive fluid flow from the chemical chamber inlet, and the flow diverter comprises an angled element (364, 364) disposed to deflect the received fluid flow from a radial direction to a direction along the interior circumference of the cylindrical chamber.
A method of applying electrically conductive bus bars onto a low-emissivity surface of glass by gas dynamic cold spray method with the aid of a spraying nozzle of a gas dynamic spraying apparatus, the method comprising: providing in the gas dynamic spraying apparatus an estimated bulk weight of a powder, sufficient for spraying the powder over the entire length of the bus bar; moving the spraying nozzle to a beginning point of the bus bar without supplying the sprayed powder into the nozzle, and upon positioning the moved nozzle at the beginning point of the bus bar, supplying the sprayed powder into the spraying nozzle and moving the spraying nozzle with a constant speed from the beginning point to an end point of the bus bar; wherein upon reaching the end point of the bus bar, the movement of the nozzle is reversed towards the beginning point of the bus bar with a speed greater than the speed of the nozzle moving from the beginning point to the end point of the bus bar. providing in the gas dynamic spraying apparatus an estimated bulk weight of a powder, sufficient for spraying the powder over the entire length of the bus bar; moving the spraying nozzle to a beginning point of the bus bar without supplying the sprayed powder into the nozzle, and upon positioning the moved nozzle at the beginning point of the bus bar, supplying the sprayed powder into the spraying nozzle and moving the spraying nozzle with a constant speed from the beginning point to an end point of the bus bar; wherein upon reaching the end point of the bus bar, the movement of the nozzle is reversed towards the beginning point of the bus bar with a speed greater than the speed of the nozzle moving from the beginning point to the end point of the bus bar.
Vehicle comprising a floor on which front seats are installed, at least one rear seat, and, between said front seats, a handbrake coupled to braking means via cables having a part placed in a zone located in front of a central part of said rear seat adapted to the coupling of a child seat base, and a molded part comprising i) coupling means intended to be coupled to said zone, and ii) a wall intended to be placed in the said zone above said cables and defining a bearing surface for a lower end of a wedging leg of said base and a protective interface for said cables, coupled to said zone, characterized in that said coupling means comprise two protuberances projecting from a lower face of said wall and intended to be housed in two holes defined in a rear zone of a base of said handbrake defining said zone, on either side and other of the said cables
A medical elongated body (10, 70) comprising: a shaft having a lumen through which a fluid can flow; and a tubular structure portion (24, 25A, 25B, 72) which is provided at a distal portion of the shaft and has an insertion hole, wherein the tubular structure portion (24, 25A, 25B, 72) includes a first tube body (42, 43A, 43B, 74) which has the insertion hole and is fixed to the distal portion of the shaft, a second tube body (44, 45A, 45B) which is disposed radially outward of the first tube body (42, 43A, 43B, 74) and is liquid-tightly fixed to the distal portion of the shaft and a proximal portion of the first tube body (42, 43A, 43B, 74), a space portion which is provided between the first tube body (42, 43A, 43B, 74) and the second tube body (44, 45A, 45B) and communicates with the lumen of the shaft, and an opening portion which is positioned at a distal portion of the tubular structure portion (24, 25A, 25B, 72) and through which a fluid flowing from the lumen of the shaft into the space portion flows out of the tubular structure portion (24, 25A, 25B, 72). a shaft having a lumen through which a fluid can flow; and a tubular structure portion (24, 25A, 25B, 72) which is provided at a distal portion of the shaft and has an insertion hole, wherein the tubular structure portion (24, 25A, 25B, 72) includes a first tube body (42, 43A, 43B, 74) which has the insertion hole and is fixed to the distal portion of the shaft, a second tube body (44, 45A, 45B) which is disposed radially outward of the first tube body (42, 43A, 43B, 74) and is liquid-tightly fixed to the distal portion of the shaft and a proximal portion of the first tube body (42, 43A, 43B, 74), a space portion which is provided between the first tube body (42, 43A, 43B, 74) and the second tube body (44, 45A, 45B) and communicates with the lumen of the shaft, and an opening portion which is positioned at a distal portion of the tubular structure portion (24, 25A, 25B, 72) and through which a fluid flowing from the lumen of the shaft into the space portion flows out of the tubular structure portion (24, 25A, 25B, 72). a first tube body (42, 43A, 43B, 74) which has the insertion hole and is fixed to the distal portion of the shaft, a second tube body (44, 45A, 45B) which is disposed radially outward of the first tube body (42, 43A, 43B, 74) and is liquid-tightly fixed to the distal portion of the shaft and a proximal portion of the first tube body (42, 43A, 43B, 74), a space portion which is provided between the first tube body (42, 43A, 43B, 74) and the second tube body (44, 45A, 45B) and communicates with the lumen of the shaft, and an opening portion which is positioned at a distal portion of the tubular structure portion (24, 25A, 25B, 72) and through which a fluid flowing from the lumen of the shaft into the space portion flows out of the tubular structure portion (24, 25A, 25B, 72).
An exhaust-gas aftertreatment arrangement for an internal combustion engine comprising: a first catalytic converter; a second catalytic converter arranged in parallel with the first catalytic converter, the first and second catalytic converters being arranged to receive exhaust gas from an engine; a connection pipe fluidly connecting an outlet of the second catalytic converter with a substantially tubular inlet of the first catalytic converter, thereby allowing a flow of exhaust gas through the connection pipe; a connection pipe valve configured to control a flow of exhaust gas through the connection pipe; and an outlet valve arranged in the outlet of the second catalytic converter and downstream of the location of the connection pipe, wherein the outlet valve is configured to control a flow of exhaust gas through the second catalytic converter, the exhaust-gas aftertreatment arrangement being characterized in that the inlet of the first catalytic converter comprises a constriction as a portion of the substantially tubular inlet, the constriction having a diameter which is smaller than a diameter of adjacent portions of the inlet such as to give rise to a venturi effect when in use, and wherein the connection pipe is connected to the inlet at the constriction. a first catalytic converter; a second catalytic converter arranged in parallel with the first catalytic converter, the first and second catalytic converters being arranged to receive exhaust gas from an engine; a connection pipe fluidly connecting an outlet of the second catalytic converter with a substantially tubular inlet of the first catalytic converter, thereby allowing a flow of exhaust gas through the connection pipe; a connection pipe valve configured to control a flow of exhaust gas through the connection pipe; and an outlet valve arranged in the outlet of the second catalytic converter and downstream of the location of the connection pipe, wherein the outlet valve is configured to control a flow of exhaust gas through the second catalytic converter, the exhaust-gas aftertreatment arrangement being characterized in that the inlet of the first catalytic converter comprises a constriction as a portion of the substantially tubular inlet, the constriction having a diameter which is smaller than a diameter of adjacent portions of the inlet such as to give rise to a venturi effect when in use, and wherein the connection pipe is connected to the inlet at the constriction.
A wind farm comprising: a plurality of wind turbines; and a wind farm controller, the controller is configured to: detect a high wind condition and a wind direction from at least one wind turbine in the wind farm; reduce a parameter setpoint of at least one other wind turbine; and increase a cut-out wind speed threshold of the at least one other wind turbine, wherein detecting the high wind condition from the at least one wind turbine comprises detecting whether the at least one wind turbine has been shut down due to high wind condition, characterized in that the controller is configured to: assign the cut-out wind speed threshold to each of the plurality of wind turbines based on the detected wind direction and location of each of the plurality of wind turbines in the wind farm. a plurality of wind turbines; and a wind farm controller, the controller is configured to: detect a high wind condition and a wind direction from at least one wind turbine in the wind farm; detect a high wind condition and a wind direction from at least one wind turbine in the wind farm; reduce a parameter setpoint of at least one other wind turbine; and increase a cut-out wind speed threshold of the at least one other wind turbine, wherein detecting the high wind condition from the at least one wind turbine comprises detecting whether the at least one wind turbine has been shut down due to high wind condition, assign the cut-out wind speed threshold to each of the plurality of wind turbines based on the detected wind direction and location of each of the plurality of wind turbines in the wind farm.
Apparatus for storing and dispensing flowable explosive, the apparatus including an explosive tank for flowable explosive, one or more additive tanks (15, 16) for one or more additives, an explosive pump for pumping the flowable explosive into the explosive tank, a delivery hose through which the flowable explosive is expelled from the explosive tank, and a mobile platform on which the explosive tank, the one or more additive tanks, the explosive pump and the delivery hose are arranged, characterised in that the explosive tank has a fluid pressure-actuated piston movable therein for expelling the flowable explosive out of the explosive tank through the delivery hose, in that the apparatus further includes an additive pump arranged on the mobile platform for pumping the one or more additives from the one or more additive tanks (15, 16), and in that the delivery hose is fitted with an injector through which the one or more additives are injected into the delivery hose by the additive pump.