mhurhangee/ep-ind-claims huggingface dataset:
A monochromator comprising: a. a detector; b. a primary reflector, which is an off-axis parabolic mirror, the primary reflector being aligned so as to reflect input light in collimated form; c. a diffraction grating receiving the collimated input light containing multiple light wavelengths from the primary reflector and reflecting the different light wavelengths of the collimated light from the primary reflector at different respective angles; d. a first secondary reflector receiving and reflecting the different light wavelengths from the diffraction grating; and e. a second secondary reflector receiving the different light wavelengths from the first secondary reflector and reflecting the different light wavelengths onto different respective regions of the detector. a. a detector; b. a primary reflector, which is an off-axis parabolic mirror, the primary reflector being aligned so as to reflect input light in collimated form; c. a diffraction grating receiving the collimated input light containing multiple light wavelengths from the primary reflector and reflecting the different light wavelengths of the collimated light from the primary reflector at different respective angles; d. a first secondary reflector receiving and reflecting the different light wavelengths from the diffraction grating; and e. a second secondary reflector receiving the different light wavelengths from the first secondary reflector and reflecting the different light wavelengths onto different respective regions of the detector.
A fragrance composition comprising (i) a fragrance compound selected from: 2-methoxy-2-methylheptane; 7 -methoxy-2,4-dimethyloct - 2-ene; 7-methoxy-2,4,7-trimethyloct-2-ene; 7-(allyloxy)-2,4-dimethyloct-2-ene; 7 -methoxy-2,4-dimethyloctane; 4-(allyloxy)-2,6-dimethylheptane; 2,6-dimethyl-4-((2-methylallyl)oxy)heptane; 4-methoxy-2,6-dimethylheptane; 2-methyl-4-((2-methylallyl)oxy)pentane; 2-(allyloxy)-4-methylpentane; 2-methyl-4-((3-methylbut-2-en-1-yl)oxy)pentane; stereoisomers thereof; and combinations thereof, and (ii) an additional fragrance compound selected from a citrus compound, a floral compound, a fruity compound, a gourmand compound, a green compound, a musk compound, a spicy compound, a woody compound, and combinations thereof. (i) a fragrance compound selected from: 2-methoxy-2-methylheptane; 7 -methoxy-2,4-dimethyloct - 2-ene; 7-methoxy-2,4,7-trimethyloct-2-ene; 7-(allyloxy)-2,4-dimethyloct-2-ene; 7 -methoxy-2,4-dimethyloctane; 4-(allyloxy)-2,6-dimethylheptane; 2,6-dimethyl-4-((2-methylallyl)oxy)heptane; 4-methoxy-2,6-dimethylheptane; 2-methyl-4-((2-methylallyl)oxy)pentane; 2-(allyloxy)-4-methylpentane; 2-methyl-4-((3-methylbut-2-en-1-yl)oxy)pentane; stereoisomers thereof; and combinations thereof, and 2-methoxy-2-methylheptane; 7 -methoxy-2,4-dimethyloct - 2-ene; 7-methoxy-2,4,7-trimethyloct-2-ene; 7-(allyloxy)-2,4-dimethyloct-2-ene; 7 -methoxy-2,4-dimethyloctane; 4-(allyloxy)-2,6-dimethylheptane; 2,6-dimethyl-4-((2-methylallyl)oxy)heptane; 4-methoxy-2,6-dimethylheptane; 2-methyl-4-((2-methylallyl)oxy)pentane; 2-(allyloxy)-4-methylpentane; 2-methyl-4-((3-methylbut-2-en-1-yl)oxy)pentane; stereoisomers thereof; and combinations thereof, and (ii) an additional fragrance compound selected from a citrus compound, a floral compound, a fruity compound, a gourmand compound, a green compound, a musk compound, a spicy compound, a woody compound, and combinations thereof.
A wave power plant comprising: - a frame construction (2, 2'); - a plurality of rocking rotors arranged on the frame construction (2, 2') on at least one rotor shaft journaled on the frame construction (2, 2'); - a drive shaft connected to a generator and journaled in said frame construction (2, 2'); characterised in - at least one belt drive connection arranged between the rotor shaft and the drive shaft for each rocking rotor - at least one rotor drive wheel (41, 41', 42, 42') is arranged on or integrated with each rocking rotor; and - at least one first shaft drive wheel arranged on the drive shaft for each rocking rotor, - wherein said at least one belt drive connection comprises a belt portion (43, 43') having - a first end (44, 44') connected to the rotor drive wheel (41, 41', 42, 42'); and - an opposite end connected to the first shaft drive wheel, - and wherein said belt portion (43, 43') being arranged to wind and unwind on the rotor drive wheel (41, 41', 42, 42') and first shaft drive wheel. - a frame construction (2, 2'); - a plurality of rocking rotors arranged on the frame construction (2, 2') on at least one rotor shaft journaled on the frame construction (2, 2'); - a drive shaft connected to a generator and journaled in said frame construction (2, 2'); characterised in - at least one belt drive connection arranged between the rotor shaft and the drive shaft for each rocking rotor - at least one rotor drive wheel (41, 41', 42, 42') is arranged on or integrated with each rocking rotor; and - at least one first shaft drive wheel arranged on the drive shaft for each rocking rotor, - wherein said at least one belt drive connection comprises a belt portion (43, 43') having - a first end (44, 44') connected to the rotor drive wheel (41, 41', 42, 42'); and - an opposite end connected to the first shaft drive wheel, - and wherein said belt portion (43, 43') being arranged to wind and unwind on the rotor drive wheel (41, 41', 42, 42') and first shaft drive wheel.
A method of calibrating an anemotropometer of a wind energy installation, which anemotropometer is arranged, together with two anemometers (2a, 2b), on a leeward side of a rotor of the wind energy installation, wherein the method comprises the following method steps: measuring a first wind speed by means of a first anemometer, a second wind speed by means of a second anemometer and a wind direction (μ) by means of the anemotropometer, wherein a plurality of measurement values are recorded over a specific period of time; determining differences between the first wind speed and the second wind speed at respective points in time which are at least substantially the same; determining a model function (Δ i, Δ j) for a relationship between measured wind directions (μ) and differences which have been determined which correspond at least substantially to the same points in time, wherein at least a first model function (Δ i) is determined for a first wind speed bin (i) and a second model function (j) is determined for a second wind speed bin (Δ j); determining at least one intersection point value of the measured wind direction (μ) at which the first model function (Δ i) and the second model function (Δ j) intersect; outputting the intersection point value as a mounting angle (φ) of the anemotropometer. measuring a first wind speed by means of a first anemometer, a second wind speed by means of a second anemometer and a wind direction (μ) by means of the anemotropometer, wherein a plurality of measurement values are recorded over a specific period of time; determining differences between the first wind speed and the second wind speed at respective points in time which are at least substantially the same; determining a model function (Δ i, Δ j) for a relationship between measured wind directions (μ) and differences which have been determined which correspond at least substantially to the same points in time, wherein at least a first model function (Δ i) is determined for a first wind speed bin (i) and a second model function (j) is determined for a second wind speed bin (Δ j); determining at least one intersection point value of the measured wind direction (μ) at which the first model function (Δ i) and the second model function (Δ j) intersect; outputting the intersection point value as a mounting angle (φ) of the anemotropometer.
Method for parameterization of a field device, wherein at least one parameter value is transmitted to the field device by at least one parameter unit, wherein at least one parameter value is received by the field device, wherein at least one feedback character string is generated by the field device from the at least one received parameter value, wherein the feedback character string is transmitted to the parameterization unit by the field device and wherein the received feedback character string is output by the parameterization unit so that it is understandable for the user - in particular, is visually displayed - characterized in that the feedback character string is generated by the field device in such a manner that the parameter value received by the field device is converted into a character string and that at least one character - in particular understandable for the user and predeterminable or set solely by the field device - is inserted in the character string of the received parameter value at at least one position - in particular predeterminable or set solely by the field device.
A method of ion mobility separation comprising: providing an ion mobility separator separation region and an ion trap for releasing packets of ions into the IMS; and characterised by: selecting a predetermined maximum charge desired to be released into the IMS in each packet of ions released from the ion trap into the IMS; releasing a first packet of ions from the ion trap; detecting the charge of ions in the first packet of ions using a detector; determining a difference between the charge detected by the detector and said predetermined maximum charge; and releasing a second, subsequent packet of ions from the ion trap into the IMS, wherein the formation of the second packet of ions is controlled based on the difference between the charge detected in the first packet of ions and the predetermined maximum charge, such that the charge of ions in the second packet of ions is substantially the same or less than said predetermined maximum charge. selecting a predetermined maximum charge desired to be released into the IMS in each packet of ions released from the ion trap into the IMS; releasing a first packet of ions from the ion trap; detecting the charge of ions in the first packet of ions using a detector; determining a difference between the charge detected by the detector and said predetermined maximum charge; and releasing a second, subsequent packet of ions from the ion trap into the IMS, wherein the formation of the second packet of ions is controlled based on the difference between the charge detected in the first packet of ions and the predetermined maximum charge, such that the charge of ions in the second packet of ions is substantially the same or less than said predetermined maximum charge.
Oven for the thermal conditioning of preforms made of thermoplastic material, an oven which is passed through from upstream to downstream by an airstream for cooling the preforms and which comprises, in succession in the direction of flow of said airstream: - an air intake zone, which comprises at least one air intake opening through which said airstream flows from the outside of the oven to the inside of the oven, - a preform heating zone, which comprises preform heating means and at least one ventilation module which is capable of guiding the airstream coming from the intake zone to the preforms, - an air extraction zone comprising at least one air extraction duct, the extraction zone being passed through by the airstream which flows from the heating zone to the outside of the oven, characterized in that the air intake zone comprises: - at least two ventilation modules, and - at least one air distribution chamber, called plenum which is interposed between the air intake opening and each of the ventilation modules, each ventilation module being linked to the distribution chamber. - an air intake zone, which comprises at least one air intake opening through which said airstream flows from the outside of the oven to the inside of the oven, - a preform heating zone, which comprises preform heating means and at least one ventilation module which is capable of guiding the airstream coming from the intake zone to the preforms, - an air extraction zone comprising at least one air extraction duct, the extraction zone being passed through by the airstream which flows from the heating zone to the outside of the oven, - at least two ventilation modules, and - at least one air distribution chamber, called plenum which is interposed between the air intake opening and each of the ventilation modules, each ventilation module being linked to the distribution chamber.
A branched-chain amino acid permease variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein alanine, which is an amino acid corresponding to position 112 of SEQ ID NO: 3, is substituted with threonine.
A sensor assembly for a terminal that has a cover plate in which a groove is defined, wherein the sensor assembly comprises: a printed circuit board; a fingerprint module comprising a fingerprint panel received in the groove of the cover plate, and a fingerprint sensor located below the fingerprint panel, wherein the fingerprint sensor is electrically connected to the printed circuit board; and characterized in that a proximity sensor located below the fingerprint panel and electrically connected to the printed circuit board and comprising a light emitter and a light receiver, wherein light emitted by the light emitter exits through the fingerprint panel and is then reflected by an external object to form reflected light which is received by the light receiver through the fingerprint panel, wherein the light emitter and the light receiver are respectively disposed on two sides of the fingerprint sensor, or the light emitter and the light receiver are disposed on the same side of the fingerprint sensor. a printed circuit board; a fingerprint module comprising a fingerprint panel received in the groove of the cover plate, and a fingerprint sensor located below the fingerprint panel, wherein the fingerprint sensor is electrically connected to the printed circuit board; and characterized in that a proximity sensor located below the fingerprint panel and electrically connected to the printed circuit board and comprising a light emitter and a light receiver, wherein light emitted by the light emitter exits through the fingerprint panel and is then reflected by an external object to form reflected light which is received by the light receiver through the fingerprint panel, wherein the light emitter and the light receiver are respectively disposed on two sides of the fingerprint sensor, or the light emitter and the light receiver are disposed on the same side of the fingerprint sensor.
Vehicle electrical system component for a motor vehicle, comprising an electrical module which is surrounded by casting at least in certain areas by a cast component, characterized in that the cast component is produced by an in-situ polymerization method.
An apparatus, comprising: a device including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: receiving (686; 786) a request for cryptographic resources, wherein the request for cryptographic resources includes a binding identity; fetching (688; 788) cryptographic resources from at least one cryptographic resource pool of a plurality of cryptographic resource pools responsive to the request for cryptographic resources, wherein separate cryptographic resource pools of the plurality of cryptographic resource pools are pools of separate types of cryptographic resources; determining (689; 789) which type of proof generation code is suitable for each fetched cryptographic resource; and for each fetched cryptographic resource, injecting (690; 790) the determined type of proof generation code into the fetched cryptographic resource. receiving (686; 786) a request for cryptographic resources, wherein the request for cryptographic resources includes a binding identity; fetching (688; 788) cryptographic resources from at least one cryptographic resource pool of a plurality of cryptographic resource pools responsive to the request for cryptographic resources, wherein separate cryptographic resource pools of the plurality of cryptographic resource pools are pools of separate types of cryptographic resources; determining (689; 789) which type of proof generation code is suitable for each fetched cryptographic resource; and for each fetched cryptographic resource, injecting (690; 790) the determined type of proof generation code into the fetched cryptographic resource.
A connection setup method of a wireless communication device adapted to be operated in a heterogeneous cellular communication network, wherein the heterogeneous cellular communication network comprises at least a first cell and a second cell, the first and second cell being respectively associated with a first cell layer and a second cell layer of the heterogeneous cellular communication network, and wherein the wireless communication device is adapted to use a serving cell associated with the first cell layer or the second cell layer when the wireless communication device is in an active mode, and characterized by using a camping cell associated with the first cell layer when the wireless communication device is in an idle mode, the method further comprising: detecting, when the wireless communication device is in the active mode and uses the second cell as the serving cell, that the serving cell is associated with the second cell layer; detecting an upcoming transfer to the idle mode; storing connection setup parameters of the second cell in response to detecting the upcoming transfer to the idle mode; transferring to the idle mode, wherein transferring comprises selecting the first cell as the camping cell; detecting an upcoming transfer to the active mode; and transferring to the active mode, wherein transferring comprises setting up a connection to a cell of the heterogeneous cellular communication network based on the stored connection setup parameters of the second cell. detecting, when the wireless communication device is in the active mode and uses the second cell as the serving cell, that the serving cell is associated with the second cell layer; detecting an upcoming transfer to the idle mode; storing connection setup parameters of the second cell in response to detecting the upcoming transfer to the idle mode; transferring to the idle mode, wherein transferring comprises selecting the first cell as the camping cell; detecting an upcoming transfer to the active mode; and transferring to the active mode, wherein transferring comprises setting up a connection to a cell of the heterogeneous cellular communication network based on the stored connection setup parameters of the second cell.
A vinyl thermosetting resin composition, comprising the following components: a vinyl thermosetting resin; a curing agent; and hollow borosilicate microspheres with surfaces chemically modified by a vinyl polyphenylene ether resin. a vinyl thermosetting resin; a curing agent; and hollow borosilicate microspheres with surfaces chemically modified by a vinyl polyphenylene ether resin.
Electronic apparatus including at least one electronic card provided with at least one connector for external connection and at least one radio transceiver device including at least one antenna tuned to a predetermined frequency, the connector having a metal casing connected to an electrical ground of the electronic apparatus, the apparatus being characterized in that at least one metal tab is fastened to the metal casing of the connector in order to protrude sideways from the casing in order to attenuate, in the vicinity of the antenna, an interfering electromagnetic field produced by the connector in operation, the tab having a length that is suitable for resonating at the predetermined frequency.
A light emitting device comprising: a light emitting section provided on a substrate, the light emitting section including (i) a plurality of light emitting elements provided on the substrate and (ii) a sealing resin with which the plurality of light emitting elements are sealed, (a) phosphors and (b) light storing phosphors each having an afterglow time longer than that of each of the phosphors, being both mixed in the sealing resin characterized in that the light storing phosphors are arranged so as to form a character or a symbol. a light emitting section provided on a substrate, the light emitting section including (i) a plurality of light emitting elements provided on the substrate and (ii) a sealing resin with which the plurality of light emitting elements are sealed, (a) phosphors and (b) light storing phosphors each having an afterglow time longer than that of each of the phosphors, being both mixed in the sealing resin characterized in that the light storing phosphors are arranged so as to form a character or a symbol. (a) phosphors and (b) light storing phosphors each having an afterglow time longer than that of each of the phosphors, being both mixed in the sealing resin characterized in that the light storing phosphors are arranged so as to form a character or a symbol.
Process to produce propargylic alcohol, wherein acetylene is reacted with formaldehyde in the liquid phase in the presence of a copper catalyst and at least one phosphine.
A seed meter comprising: a housing having an interior and having an opening in the housing configured to receive first and second seed passages (128, 130) for delivery of seed to the housing interior; a metering member within the housing; and a gate (150, 250, 350) within the housing movable between positions to close or open the seed passages (128, 130) wherein when a seed passage (128, 130) is open, seed is allowed to flow from the seed passage (128, 130) into the interior of the housing and wherein when a seed passage (128, 130) is closed, seed is blocked from flowing into the interior of the housing characterized in that the metering member rotates about a meter axis and wherein the gate (150, 250, 350) also rotates about the meter axis. a housing having an interior and having an opening in the housing configured to receive first and second seed passages (128, 130) for delivery of seed to the housing interior; a metering member within the housing; and a gate (150, 250, 350) within the housing movable between positions to close or open the seed passages (128, 130) wherein when a seed passage (128, 130) is open, seed is allowed to flow from the seed passage (128, 130) into the interior of the housing and wherein when a seed passage (128, 130) is closed, seed is blocked from flowing into the interior of the housing characterized in that the metering member rotates about a meter axis and wherein the gate (150, 250, 350) also rotates about the meter axis.
A dishwasher detergent composition comprising a strong biodegradable builder selected from methyl-glycine-diacetic acid and glutamic-N,N-diacetic acid, and/ or salts thereof; a secondary builder; a bleach; a sulfonated polymer; and one or more enzymes; wherein the composition is provided without phosphorous-containing compound(s), wherein the bleach is present in an amount from 1 wt% up to 30 wt%, wherein the sulfonated polymer, includes, as a or the monomer unit, 2-acrylamido-2-methyl-1-propanesulfonic acid.