mhurhangee/ep-ind-claims huggingface dataset:
Facility for processing plastic receptacles, comprising a blow moulding device, which expands preforms to form receptacles, wherein this blow moulding device has a multiplicity of blow moulding stations, in each of which preforms can be expanded to form receptacles, and comprising a transport device, which receives the receptacles expanded by the blow moulding stations, and transports them singly, characterized in that there is provided at least one printing device, which provides the receptacles with at least one imprint during their transport by means of the transport device, wherein the imprint can be applied immediately after the receptacles have been produced instead of being applied together with a label in a labeller.
A method of enhancing speech quality for a decoded speech signal including a low frequency signal, the method comprising: generating a high-frequency excitation signal by shifting the low-frequency signal in a time domain; generating an extended bandwidth signal by combining the low-frequency signal and the high-frequency excitation signal; transforming the extended bandwidth signal into a spectrum in a frequency domain; determining a type of the decoded speech signal; determining energy of a high-frequency spectrum by multiplying energy predicted from a low-frequency spectrum of the spectrum and probability corresponding to the type; generating a shape of the high-frequency spectrum from the low-frequency spectrum based on the type; calculating an envelope of the high-frequency spectrum from the energy of the high-frequency spectrum and the shape; and generating a final high-frequency spectrum by applying the envelope to the high-frequency spectrum of the spectrum. generating a high-frequency excitation signal by shifting the low-frequency signal in a time domain; generating an extended bandwidth signal by combining the low-frequency signal and the high-frequency excitation signal; transforming the extended bandwidth signal into a spectrum in a frequency domain; determining a type of the decoded speech signal; determining energy of a high-frequency spectrum by multiplying energy predicted from a low-frequency spectrum of the spectrum and probability corresponding to the type; generating a shape of the high-frequency spectrum from the low-frequency spectrum based on the type; calculating an envelope of the high-frequency spectrum from the energy of the high-frequency spectrum and the shape; and generating a final high-frequency spectrum by applying the envelope to the high-frequency spectrum of the spectrum.
A compound of the formula wherein X is C-CF 3 or C-CN; N 1 denotes a substituted or unsubstituted phenoxazine, phenothiazine, indole, benzimidazole, quinoline, dibenzazepine, carbazole or 9H-acridine radical, which is bound via the nitrogen atom to the aromatic group of formula, respectively; and R 2 denotes CF 3 or F; and R 1, R 3, and R 4 denote each independently F or H. X is C-CF 3 or C-CN; N 1 denotes a substituted or unsubstituted phenoxazine, phenothiazine, indole, benzimidazole, quinoline, dibenzazepine, carbazole or 9H-acridine radical, which is bound via the nitrogen atom to the aromatic group of formula, respectively; and R 2 denotes CF 3 or F; and R 1, R 3, and R 4 denote each independently F or H.
A method of generating bubbles of a first fluid in a second fluid, the method comprising: flowing a stream of the second fluid through a microfluidic channel; injecting a stream of the first fluid into the microfluidic channel through an aperture such that bubbles of the first fluid form in the second fluid; wherein: sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel. flowing a stream of the second fluid through a microfluidic channel; injecting a stream of the first fluid into the microfluidic channel through an aperture such that bubbles of the first fluid form in the second fluid; wherein: sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel. sonicating the microfluidic channel with ultrasound so as to cause the bubbles formed at the aperture to divide; characterized in that the ultrasound has a frequency corresponding to a resonance of the microfluidic channel.
A method of applying interlocking logic for a train approaching a route, the interlocking logic being dependent on the signalling architecture used by that train, the signalling architecture comprising one of a first architecture in which cab- signalling is used and a second signalling architecture reliant upon trackside signals, the method comprising the steps of: a) determining if the train is at least potentially supervised by the first architecture, b) determining if the train is the next train to enter the route, and c) if in steps a) and b) the train is not so determined, then applying a first signal stick function operable to authorize the train to enter the route, or d) if in steps a) and b) the train is so determined, then applying a modified signal stick function operable to authorize the train to enter the route, characterized in that the modified signal stick function is operable to ensure that a train supervised by the first architecture is authorized to enter the route only when an associated signal stick latch is set, wherein the signal stick latch, operated by the modified signal stick function, is set when the route is working automatically and the train determined as supervised by the first architecture reports that it has entered that route. a) determining if the train is at least potentially supervised by the first architecture, b) determining if the train is the next train to enter the route, and c) if in steps a) and b) the train is not so determined, then applying a first signal stick function operable to authorize the train to enter the route, or d) if in steps a) and b) the train is so determined, then applying a modified signal stick function operable to authorize the train to enter the route,
An organic compound which has a molecular weight of ≤ 4000 and wherein, in one molecule, two or more partial structures of formula: are linked to one moiety selected from formulae (II-1) to (II-4): wherein Cz each individually is a carbazolyl group optionally having a substituent which has a molecular weight of ≤ 500 and is selected from alkyl, aryl and heteroaryl; Q is a direct link connecting to G; G if linked to Q, each individually has a molecular weight of ≤ 1000 and is a direct link or a divalent linking group derived from benzene, naphthalene, anthracene, phenanthrene, perylene, tetracene, pyrene, benzpyrene, crysene, triphenylene, fluoranthrene, or group formed by linking a plurality thereof; each of which may have a substituent selected from alkyl, aryl, heteroaryl, acyl, alkoxy, aryloxy, alkylthio, arylthio, alkoxycarbonyl, aryloxycarbonyl, halogen, arylamino and alkylamino; if not linked to Q, each individually has a molecular weight of ≤ 2000 and is an aromatic hydrocarbon group which may have a substituent selected from alkyl, aryl, heteroaryl, acyl, alkoxy, aryloxy, alkylthio, arylthio, alkoxycarbonyl, aryloxycarbonyl, halogen, arylamino and alkylamino; N atoms present in one molecule of the organic compound do not conjugate with each other except for the N atoms in the rings of formulae (II-2) to (II-4); one molecule contains only one pyridine ring; and each of the 3- and 5-positions of the pyridine ring in formula (II-1) and the 5-position of the pyrimidine ring in formula (II-3) may optionally be substituted by alkyl, aryl or heteroaryl; with the proviso that the compounds of the following formulae (a)-(c) are excluded: wherein X in formula (a) each individually is N, or two X are N and the remaining one is CH; and Cz is as defined above. Cz each individually is a carbazolyl group optionally having a substituent which has a molecular weight of ≤ 500 and is selected from alkyl, aryl and heteroaryl; Q is a direct link connecting to G; G if linked to Q, each individually has a molecular weight of ≤ 1000 and is a direct link or a divalent linking group derived from benzene, naphthalene, anthracene, phenanthrene, perylene, tetracene, pyrene, benzpyrene, crysene, triphenylene, fluoranthrene, or group formed by linking a plurality thereof; each of which may have a substituent selected from alkyl, aryl, heteroaryl, acyl, alkoxy, aryloxy, alkylthio, arylthio, alkoxycarbonyl, aryloxycarbonyl, halogen, arylamino and alkylamino; if not linked to Q, each individually has a molecular weight of ≤ 2000 and is an aromatic hydrocarbon group which may have a substituent selected from alkyl, aryl, heteroaryl, acyl, alkoxy, aryloxy, alkylthio, arylthio, alkoxycarbonyl, aryloxycarbonyl, halogen, arylamino and alkylamino; X in formula (a) each individually is N, or two X are N and the remaining one is CH; and Cz is as defined above.
An atherectomy device (100; 608) comprising: a handle assembly; a rotatable first drive shaft (110; 502; 610) extending from the handle assembly, the rotatable first drive shaft (110; 502; 610) having a rotational axis; a weight disposed on a portion of the rotatable first drive shaft (110; 502; 610), the weight having a center of mass eccentrically located relative to the rotational axis, wherein the weight is secured to the rotatable first drive shaft (110; 502; 610) with an elastically deformable material, wherein the weight is disposed within the elastically deformable material; and a cutting member (508; 612) disposed on a distal end portion of the rotatable first drive shaft (110; 502; 610), wherein the cutting member (508; 612) includes the elastically deformable material; wherein the atherectomy device (100; 608) is configured such that, when the rotatable first drive shaft (110; 502; 610) is rotated at a rotational rate above a threshold rotational rate, centrifugal forces acting on the weight cause the cutting member (508; 612) to deform radially outward from the rotational axis. a handle assembly; a rotatable first drive shaft (110; 502; 610) extending from the handle assembly, the rotatable first drive shaft (110; 502; 610) having a rotational axis; a weight disposed on a portion of the rotatable first drive shaft (110; 502; 610), the weight having a center of mass eccentrically located relative to the rotational axis, wherein the weight is secured to the rotatable first drive shaft (110; 502; 610) with an elastically deformable material, wherein the weight is disposed within the elastically deformable material; and a cutting member (508; 612) disposed on a distal end portion of the rotatable first drive shaft (110; 502; 610), wherein the cutting member (508; 612) includes the elastically deformable material; wherein the atherectomy device (100; 608) is configured such that, when the rotatable first drive shaft (110; 502; 610) is rotated at a rotational rate above a threshold rotational rate, centrifugal forces acting on the weight cause the cutting member (508; 612) to deform radially outward from the rotational axis.
A method of processing video data, the method comprising: decoding video data to produce a plurality of decoded layer components, each decoded layer component being of a type, wherein types of the plurality of decoded layer components include at least one of a texture view of multi-view video data, a depth view of multi-view video data, a base layer of scalable video data, or each of one or more enhancement layers of scalable video data; characterised by storing the plurality of decoded layer components in sub-units of a decoded picture buffer such that a different type of decoded layer component is stored in each respective sub-unit; and performing a DPB management process on the sub-units, wherein the DPB management process is managed independently for each of the sub-units. decoding video data to produce a plurality of decoded layer components, each decoded layer component being of a type, wherein types of the plurality of decoded layer components include at least one of a texture view of multi-view video data, a depth view of multi-view video data, a base layer of scalable video data, or each of one or more enhancement layers of scalable video data; characterised by storing the plurality of decoded layer components in sub-units of a decoded picture buffer such that a different type of decoded layer component is stored in each respective sub-unit; and performing a DPB management process on the sub-units, wherein the DPB management process is managed independently for each of the sub-units.
A vacuum installation for industrial application comprising: a vacuum chamber having an inlet for aspirating a quantity of liquid or particulate material; a cyclone separation unit comprising a plurality of cyclones, communicating in parallel to each other with the interior of the vacuum chamber; a vacuum pump connected to the cyclone separation unit to draw air from the vacuum chamber through the cyclones to induce a separating vortex flow within the cyclones; and a controller, arranged to control the vacuum pump to provide a chosen flow rate, the controller being further arranged to selectively deactivate one or more of the cyclones in order to back flush the deactivated cyclones while continuing to aspirate through active cyclones, characterised in that the cyclone separation unit comprises a plurality of collectors (14A, 14B) arranged to receive the separated material each provided with a respective flush valve (34A, 34B) connecting the collector to the vacuum chamber and the controller selectively operates the flush valves to back flush the separated material from one or more of the collectors to the vacuum chamber. a vacuum chamber having an inlet for aspirating a quantity of liquid or particulate material; a cyclone separation unit comprising a plurality of cyclones, communicating in parallel to each other with the interior of the vacuum chamber; a vacuum pump connected to the cyclone separation unit to draw air from the vacuum chamber through the cyclones to induce a separating vortex flow within the cyclones; and a controller, arranged to control the vacuum pump to provide a chosen flow rate, the controller being further arranged to selectively deactivate one or more of the cyclones in order to back flush the deactivated cyclones while continuing to aspirate through active cyclones, characterised in that the cyclone separation unit comprises a plurality of collectors (14A, 14B) arranged to receive the separated material each provided with a respective flush valve (34A, 34B) connecting the collector to the vacuum chamber and the controller selectively operates the flush valves to back flush the separated material from one or more of the collectors to the vacuum chamber.
A controller, comprising: a single memory activate pin to provide a memory activate command at a first or at a second value; one or more address signal pins; one or more combined memory command/address signal pins; and a selection circuit adapted to use signals on the one or more combined memory command/address signal pins as either additional memory address signals or as memory command signals in response to the value of the memory activate command. a single memory activate pin to provide a memory activate command at a first or at a second value; one or more address signal pins; one or more combined memory command/address signal pins; and a selection circuit adapted to use signals on the one or more combined memory command/address signal pins as either additional memory address signals or as memory command signals in response to the value of the memory activate command.
A method of dewatering whole stillage comprising the steps of i) subjecting whole stillage derived from a process of producing ethanol utilizing starch-containing material as feedstock to one or more carbohydrases selected from the group consisting of amylase, cellulase, beta-glucanase, hemicellulase, pectinase, mannanase, and protease, ii) separating the material into a solid fraction and a liquid fraction. i) subjecting whole stillage derived from a process of producing ethanol utilizing starch-containing material as feedstock to one or more carbohydrases selected from the group consisting of amylase, cellulase, beta-glucanase, hemicellulase, pectinase, mannanase, and protease, ii) separating the material into a solid fraction and a liquid fraction.
Electric propulsion unit of an aircraft comprising: - at least an electric power system, - at least an electric motor comprising an output shaft and powered by the electric power system, - a propeller driven in rotation by the electric motor, - a cooling system for the electric power system comprising a main cooling circuit which comprises: o a main air inlet, o at least one intake duct, o at least one main heat exchanger, o at least an exhaust duct, o a main air outlet, - a nacelle housing the electric power system and the electric motor and comprising: o a central fairing, o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1), wherein the front fairing comprises a protrude positioned in a lower part of the front fairing, said protrude having a front face located in a transverse plane perpendicular to the output shaft, wherein the main air inlet is positioned on the front face, wherein the main cooling circuit is sized for the cooling needs of the electric power system during the cruise flight and wherein the cooling system comprises at least one secondary cooling circuit which comprises a secondary air inlet, at least one intake duct, at least one secondary heat exchanger, at least an exhaust duct, a secondary air outlet, said at least one secondary cooling circuit being sized to increase the cooling capacity of the main cooling circuit. - at least an electric power system, - at least an electric motor comprising an output shaft and powered by the electric power system, - a propeller driven in rotation by the electric motor, - a cooling system for the electric power system comprising a main cooling circuit which comprises: o a main air inlet, o at least one intake duct, o at least one main heat exchanger, o at least an exhaust duct, o a main air outlet, o a main air inlet, o at least one intake duct, o at least one main heat exchanger, o at least an exhaust duct, o a main air outlet, - a nacelle housing the electric power system and the electric motor and comprising: o a central fairing, o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1), o a central fairing, o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1),
Process for converting biomass into liquid fuel, comprising the following process steps: a) introduction of biomass into a reaction vessel, b) subjection of the biomass in the reaction vessel with exclusion of oxygen for between 1 and 15 min to a temperature of between 350 and 550°C under ambient pressure, to form liquid pyrolysis oil, pyrolysis gas and solid pyrolysis coke, c) separate withdrawal of pyrolysis coke and also a pyrolysis vapour, comprising pyrolysis gas and pyrolysis oil, from the reaction vessel, d) condensation of the pyrolysis oil from the pyrolysis vapour, e) operationally integrated, catalyst-free refining of the pyrolysis oil with high accumulation of aliphatics and free fatty acids and also fatty acid esters, where, for the refining, the phenol-containing phase are isolated by chromatography and/or membrane technology or by pH variation and supplied as fuel to a combustion operation. a) introduction of biomass into a reaction vessel, b) subjection of the biomass in the reaction vessel with exclusion of oxygen for between 1 and 15 min to a temperature of between 350 and 550°C under ambient pressure, to form liquid pyrolysis oil, pyrolysis gas and solid pyrolysis coke, c) separate withdrawal of pyrolysis coke and also a pyrolysis vapour, comprising pyrolysis gas and pyrolysis oil, from the reaction vessel, d) condensation of the pyrolysis oil from the pyrolysis vapour, e) operationally integrated, catalyst-free refining of the pyrolysis oil with high accumulation of aliphatics and free fatty acids and also fatty acid esters, where, for the refining, the phenol-containing phase are isolated by chromatography and/or membrane technology or by pH variation and supplied as fuel to a combustion operation.
An exhaust gas analysis method for analyzing exhaust gas exhausted from an engine comprising: upon using isooctane as a fuel for the engine, analyzing the exhaust gas exhausted from the engine; measuring the particulate matters contained in the analyzed exhaust gas as particulate matters derived from lubricating oil; characterized by measuring a total sulfur component concentration contained in the exhaust gas as a concentration of the sulfur component derived from the lubricating oil; calculating a consumption amount of the lubricating oil based on the total sulfur component concentration; associating the consumption amount with the measurement result of the particulate matters derived from the lubricating oil. upon using isooctane as a fuel for the engine, analyzing the exhaust gas exhausted from the engine; measuring the particulate matters contained in the analyzed exhaust gas as particulate matters derived from lubricating oil; characterized by measuring a total sulfur component concentration contained in the exhaust gas as a concentration of the sulfur component derived from the lubricating oil; calculating a consumption amount of the lubricating oil based on the total sulfur component concentration; associating the consumption amount with the measurement result of the particulate matters derived from the lubricating oil.
A method for producing an electrical contact between multiple first fibres and multiple second fibres by means of a connection device that features multiple electrically conductive elements, the method comprising the following steps: A. positioning a first fibre on an electrically conductive element, B. positioning a second fibre on the electrically conductive element so that an electrical contact between the first fibre and the second fibre is established, and C. fixing the first fibre and the second fibre to the connection device, characterised in that the connection device has a coating layer that is folded and/or folded over in such a way that it completely surrounds the electrically conductive element and that is made of a waterproof material or comprises a layer made of waterproof material. A. positioning a first fibre on an electrically conductive element, B. positioning a second fibre on the electrically conductive element so that an electrical contact between the first fibre and the second fibre is established, and C. fixing the first fibre and the second fibre to the connection device,