mhurhangee/ep-ind-claims huggingface dataset:
A skin care spray device for hydrogen generation, comprising: a hydrogen-generating ceramic filter comprising a porous ceramic container containing magnesium fragments, one opened end of which is sealed with a ceramic cap, so as to prevent external leakage of the magnesium fragments; an aluminum pouch containing the hydrogen-generating ceramic filter and a phytoncide moisturizing liquid composition and provided with a check valve for preventing the phytoncide moisturizing liquid composition from running back from an upper part of the aluminum pouch; a cylindrical aluminum can, an open upper part of which is coupled with an upper part of the aluminum pouch; and a nozzle for spraying the phytoncide moisturizing liquid composition filled in the aluminum pouch, the nozzle being mounted on an upper part of the aluminum can. a hydrogen-generating ceramic filter comprising a porous ceramic container containing magnesium fragments, one opened end of which is sealed with a ceramic cap, so as to prevent external leakage of the magnesium fragments; an aluminum pouch containing the hydrogen-generating ceramic filter and a phytoncide moisturizing liquid composition and provided with a check valve for preventing the phytoncide moisturizing liquid composition from running back from an upper part of the aluminum pouch; a cylindrical aluminum can, an open upper part of which is coupled with an upper part of the aluminum pouch; and a nozzle for spraying the phytoncide moisturizing liquid composition filled in the aluminum pouch, the nozzle being mounted on an upper part of the aluminum can.
A method for prediction of wave properties at one or more target locations within a body of water, wherein a computer processor is programmed for executing the steps of: collecting a data stream of time series data from at least one wave measurement device floating on or submerged within the body of water at a source location, the data stream comprising location data comprising x, y and z coordinates relative to a fixed reference in space, time data, GPS position, and water depth, wherein the source location is located at an up-wave distance from the one or more target locations; defining an initial time-history within the data stream, the initial time-history having a predetermined time length starting at a start time; for data within the initial time-history, calculating wave model input parameters by transforming the time data and location data into a frequency domain to identify amplitude, phase, and direction components in the frequency domain and propagating a wave model to the one or more target locations within the body of water using the wave model input parameters to estimate one or more of wave elevation, direction and velocity at one of more target locations and generating an output therefrom; and incrementing to a subsequent time-history within the data stream and repeating calculating and generating an output for a series of subsequent time-histories, wherein each subsequent time-history partially overlaps a preceding time-history, and wherein a continuous, real-time prediction of wave properties at the one or more target locations is generated. collecting a data stream of time series data from at least one wave measurement device floating on or submerged within the body of water at a source location, the data stream comprising location data comprising x, y and z coordinates relative to a fixed reference in space, time data, GPS position, and water depth, wherein the source location is located at an up-wave distance from the one or more target locations; defining an initial time-history within the data stream, the initial time-history having a predetermined time length starting at a start time; for data within the initial time-history, calculating wave model input parameters by transforming the time data and location data into a frequency domain to identify amplitude, phase, and direction components in the frequency domain and propagating a wave model to the one or more target locations within the body of water using the wave model input parameters to estimate one or more of wave elevation, direction and velocity at one of more target locations and generating an output therefrom; and incrementing to a subsequent time-history within the data stream and repeating calculating and generating an output for a series of subsequent time-histories, wherein each subsequent time-history partially overlaps a preceding time-history, and wherein a continuous, real-time prediction of wave properties at the one or more target locations is generated.
A method for manufacturing an individually sheathed strand, comprising: conveying a group of metal wires through a die; upstream of the die, applying a first filler product to a first portion of the strand; upstream of the die, applying a second filler product to a second portion of the strand distinct from the first portion, the first and second portions (11, 12) extending in succession along the strand, the second filler product having greater adhesion to the group of metal wires than the first filler product; and extruding a plastic material around the group of metal wires passing through the die, so as to envelop the group of metal wires coated with the first and second filler products (17, 18) in a continuous and having a constant exterior section sheath formed of the extruded plastic material, the second filler product having a greater adhesion to the sheath than the first filler product, wherein the second filler product adheres both to the metal wires and to the internal surface of the sheath. conveying a group of metal wires through a die; upstream of the die, applying a first filler product to a first portion of the strand; upstream of the die, applying a second filler product to a second portion of the strand distinct from the first portion, the first and second portions (11, 12) extending in succession along the strand, the second filler product having greater adhesion to the group of metal wires than the first filler product; and extruding a plastic material around the group of metal wires passing through the die, so as to envelop the group of metal wires coated with the first and second filler products (17, 18) in a continuous and having a constant exterior section sheath formed of the extruded plastic material, the second filler product having a greater adhesion to the sheath than the first filler product, wherein the second filler product adheres both to the metal wires and to the internal surface of the sheath.
A method for encrypting plaintext data comprising: receiving at least one plaintext data input; applying an encryption function by encrypting the at least one plaintext data input by a first sequence of round functions modeling the encryption function before a Nonce is applied, and thereafter, applying the Nonce through a function to create Nonced data outputs, and the Nonced data outputs are encrypted by a second sequence of round functions modeling the encryption function to create encrypted output data; and transmitting the encrypted output data to memory. receiving at least one plaintext data input; applying an encryption function by encrypting the at least one plaintext data input by a first sequence of round functions modeling the encryption function before a Nonce is applied, and thereafter, applying the Nonce through a function to create Nonced data outputs, and the Nonced data outputs are encrypted by a second sequence of round functions modeling the encryption function to create encrypted output data; and transmitting the encrypted output data to memory.
A permanent magnet electric motor in which a rotor is configured by a rotor core and a plurality of magnetic poles (3, 4) formed inside the rotor core by using for each pole (3, 4) two types of permanent magnets, in which a stator is located outside the rotor with an air gap intervening between them and configured by an armature core and an armature winding, in which at least one permanent magnet forming the magnetic poles (3, 4) of the rotor is magnetized by a magnetic field generated by a current of the armature winding to change a magnetic flux content thereof irreversibly, the two types of permanent magnets selected such that a product of coercivity and thickness in a magnetization direction of each magnet is different from each other, characterized in that: a short circuited coil is provided so as to surround a magnetic path portion of the other permanent magnet excluding the permanent magnet of which magnetic flux content is changed irreversibly and a portion adjacent to the other permanent magnet where the magnetic flux leaks, and wherein a short-circuit current is generated in the short circuited coil by the magnetic flux which is generated by conducting a magnetization current to the armature winding, and a magnetic field, having a magnetic force in an opposite direction to the magnetic field generated by the magnetization current, is generated by the short-circuit current.
Use of a device (101; 201; 301; 401; 501), intended for mounting in a vessel (10; 20; 30; 400), for provision of an atmosphere having disinfecting action in the vessel, wherein the vessel is intended for intermediate storage of material (14; 34; 44) and the device comprises at least one carrier (102; 202; 302; 402; 502) that has been admixed with organic ozonides or a mixture of organic ozonides and organic hydroperoxides that have been produced by a treatment of unsaturated fatty acids with ozone-containing oxygen.
A method of preparing a negative electrode active material for lithium secondary batteries, the negative electrode active material comprising a core including a lithium titanium oxide represented by Formula 1 below and a coating layer located in a surface of the core and including fluorine: [Formula 1] Li 3x Ti 3y O 12, (wherein 0.8≤x≤1.4 and 1.6≤y≤2.2), wherein the coating layer is included in an amount of 0.1 to 3 parts by weight based on 100 parts by weight of the core, the method comprising reacting a core including a lithium titanium oxide represented by Formula 1 and a fluorine-containing polymer at 300°C to 500°C.
Radar device comprising a transmit module, at least one receive module and an electronic analysis unit (16, 17) connected to the output of the receive module, wherein chirp pulses and fixed-frequency pulses can be emitted by means of the transmit module in a predetermined transmit sequence, characterized in that two separate electronic analysis units (16, 17) are provided, which analyse the pulse-specific receive signals (23, 24) received by the receive module and generate separate pulse-specific analysis signals, wherein the fixed-frequency pulses are transmitted according to the analysis of a previously detected chirp receive signal.
A silicone polycarbonate elastomeric block copolymer prepared by the reaction of: 60 to 70 weight percent of at least one difunctional phenolic terminated polydiorganosiloxane having 30 to 50 organosiloxane repeat units, 30 to 40 weight percent of at least one bisphenol containing 6 to 36 carbon atoms, and a carbonate precursor; wherein less than 10% of carbonate linkages formed by the carbonate precursor are between phenolic terminated polydiorganosiloxanes as determined by 13 C NMR; and wherein the block copolymer has at least 30% elongation before yield as measured by ASTM D638-03. 60 to 70 weight percent of at least one difunctional phenolic terminated polydiorganosiloxane having 30 to 50 organosiloxane repeat units, 30 to 40 weight percent of at least one bisphenol containing 6 to 36 carbon atoms, and a carbonate precursor;
A camping insert for clamping jaws of a clamping chuck, which has a multi-part holding segment to be fastened to a clamping jaw, in which individual clamping teeth are held, which together describe a curved toothed engagement contour corresponding with the dimensioning of a toothed component to be clamped, characterised in that the majority of the plurality of teeth is received in the holding segment with play in the circumferential direction.
A vane for an exhaust turbine assembly of a turbocharger, the vane comprising: a first airfoil (301, 501, 601, 701, 801) that comprises a length between a leading edge (311, 511, 611, 711, 811) and a trailing edge (313, 513, 613, 713, 813); a second airfoil (303, 503, 603, 703, 803) that comprises a length between a leading edge (315, 515, 615, 715, 815) and a trailing edge (317, 517, 617, 717, 817); and one or more intra-vane throats defined at least in part by both the first airfoil and the second airfoil wherein exhaust enters the one or more intra-vane throats between the leading edges (311, 315, 511, 515, 611, 615, 711, 715, 811, 815); characterized in that each of the first and second airfoils comprises a convex inner airfoil surface (314, 316, 514, 516, 614, 616, 714, 716, 814, 816) that defines, at least in part, the one or more throats and in that each of the first and second airfoils comprises a concave outer airfoil surface (312, 318, 512, 518, 618, 718, 818). a first airfoil (301, 501, 601, 701, 801) that comprises a length between a leading edge (311, 511, 611, 711, 811) and a trailing edge (313, 513, 613, 713, 813); a second airfoil (303, 503, 603, 703, 803) that comprises a length between a leading edge (315, 515, 615, 715, 815) and a trailing edge (317, 517, 617, 717, 817); and one or more intra-vane throats defined at least in part by both the first airfoil and the second airfoil wherein exhaust enters the one or more intra-vane throats between the leading edges (311, 315, 511, 515, 611, 615, 711, 715, 811, 815); characterized in that each of the first and second airfoils comprises a convex inner airfoil surface (314, 316, 514, 516, 614, 616, 714, 716, 814, 816) that defines, at least in part, the one or more throats and in that each of the first and second airfoils comprises a concave outer airfoil surface (312, 318, 512, 518, 618, 718, 818).
Cycloid gear comprising a first gear stage which has a first and a second cam disc (24, 26) each having cam portions, which cam discs are movement-coupled by a plurality of driving pins, and comprising a drive shaft which can be driven so as to rotate about a gear axis, and at least one output shaft arranged coaxially with respect to the gear axis, the drive shaft being eccentrically movement-coupled to the cam discs (24, 26) of the first gear stage and a second gear stage being provided which has a first and a second cam disc (34, 36) each having cam portions, which cam discs are movement-coupled by a plurality of driving pins, an intermediate shaft being provided on which the cam discs (34, 36) of the second gear stage are eccentrically mounted, a first pin ring that is eccentrically movement-coupled to the second gear stage being provided, in which pin ring the cam discs (24, 26) of the first gear stage roll and the cam discs of the second gear stage being eccentrically movement-coupled to the output shaft, the first pin ring being part of the first gear stage and being arranged on the intermediate shaft, characterized in that the intermediate shaft is arranged coaxially with respect to the gear axis radially between the first gear stage and the second gear stage, the drive shaft axially passing through the cycloid gear and the intermediate shaft being mounted by means of a rolling bearing arranged on the drive shaft.
A method to locate a mobile device in an emergency situation comprising: receiving, by the mobile device, an emergency mode request from a user; monitoring, by the mobile device, received signals to locate a base station, wherein once a base station is located, a short emergency message is transmitted to the base station including the location of the mobile device; monitoring, by the mobile device, received signals to receive an acknowledgement signal from the base station; and reducing, by the mobile device, a plurality of first non-essential functions of the mobile device to reduce power consumption after receipt of the acknowledgement signal. receiving, by the mobile device, an emergency mode request from a user; monitoring, by the mobile device, received signals to locate a base station, wherein once a base station is located, a short emergency message is transmitted to the base station including the location of the mobile device; monitoring, by the mobile device, received signals to receive an acknowledgement signal from the base station; and reducing, by the mobile device, a plurality of first non-essential functions of the mobile device to reduce power consumption after receipt of the acknowledgement signal.
Oven, having an oven chamber with a self-cleaning inner surface, wherein at least one visible subarea (5, 11) of the inner surface has reduced self-cleaning capability and wherein the self-cleaning capability of the subarea (5, 11) with reduced self-cleaning capability is also provided, characterised in that - the subarea (5, 11) with reduced self-cleaning capability is embodied such that it permits an optical comparison with a fully self-cleaning subarea and - the at least one subarea with reduced self-cleaning capability is arranged on a reflector plate. - the subarea (5, 11) with reduced self-cleaning capability is embodied such that it permits an optical comparison with a fully self-cleaning subarea and - the at least one subarea with reduced self-cleaning capability is arranged on a reflector plate.
A method for transmitting a radio frequency signal, comprising: processing a transmit signal comprising at least one transmit subband (UL A,UL B, UL C) and at least one receive subband in a transmit chain (TDL A, TDLB, TDL); amplifying the transmit signal using a power amplifier; transmitting the amplified transmit signal via an output port; generating, from the transmit signal comprising the at least one transmit subband (UL A,UL B, UL C) a correction signal in the at least one receive subband (DL A,DL B) by subtracting an output signal indicative of the amplified transmit signal and the transmit signal from each other, wherein said output signal is obtained by applying a power amplifier model modelling non-linearities of the power amplifier to the transmit signal; passing the correction signal through at least one filter (215A, 215B, 215N) for cancelling components outside of the at least one receive subband (DL A,DL B) to obtain a filtered correction signal; and adding the filtered correction signal to the amplified transmit signal prior to the transmission for cancelling intermodulation products in the amplified transmit signal produced by the power amplifier. processing a transmit signal comprising at least one transmit subband (UL A,UL B, UL C) and at least one receive subband in a transmit chain (TDL A, TDLB, TDL); amplifying the transmit signal using a power amplifier; transmitting the amplified transmit signal via an output port; generating, from the transmit signal comprising the at least one transmit subband (UL A,UL B, UL C) a correction signal in the at least one receive subband (DL A,DL B) by subtracting an output signal indicative of the amplified transmit signal and the transmit signal from each other, wherein said output signal is obtained by applying a power amplifier model modelling non-linearities of the power amplifier to the transmit signal; passing the correction signal through at least one filter (215A, 215B, 215N) for cancelling components outside of the at least one receive subband (DL A,DL B) to obtain a filtered correction signal; and adding the filtered correction signal to the amplified transmit signal prior to the transmission for cancelling intermodulation products in the amplified transmit signal produced by the power amplifier.
A computer-implemented method comprising: receiving at a messaging server a plurality of messages directed toward a plurality of computing devices, the plurality of messages including one or more messages for transmission to a first computing device; classifying each of the one or more messages as either high priority or low priority, wherein a rule for classifying the one or more messages associated to applications varies based on a usage history of the applications at the first computing device; postponing delivery of the one or more messages until at least one of a set of predetermined conditions is met, wherein the predetermined conditions include a first predetermined condition that at least one received message is classified as high priority; detecting, with a computer processor, that at least one of the predetermined conditions is met; and transmitting the one or more messages to the first computing device in response to the detection that at least one of the predetermined conditions is met. receiving at a messaging server a plurality of messages directed toward a plurality of computing devices, the plurality of messages including one or more messages for transmission to a first computing device; classifying each of the one or more messages as either high priority or low priority, wherein a rule for classifying the one or more messages associated to applications varies based on a usage history of the applications at the first computing device; postponing delivery of the one or more messages until at least one of a set of predetermined conditions is met, wherein the predetermined conditions include a first predetermined condition that at least one received message is classified as high priority; detecting, with a computer processor, that at least one of the predetermined conditions is met; and transmitting the one or more messages to the first computing device in response to the detection that at least one of the predetermined conditions is met.
A power generation system (100, 200, 300, 400) comprising: a first compressor configured to receive and compress one or more oxidants; a first combustion chamber configured to receive and stoichiometrically combust the compressed oxidant and at least one first fuel to generate an exhaust stream; a first expander configured to receive the exhaust stream from the first combustion chamber and generate a gaseous exhaust stream; a separator configured to receive and separate the gaseous exhaust stream into a CO 2 rich stream and a CO 2 lean stream, and wherein the power generation system is configured to recycle at least a portion of the CO 2 rich stream to the first combustion chamber. a first compressor configured to receive and compress one or more oxidants; a first combustion chamber configured to receive and stoichiometrically combust the compressed oxidant and at least one first fuel to generate an exhaust stream; a first expander configured to receive the exhaust stream from the first combustion chamber and generate a gaseous exhaust stream; a separator configured to receive and separate the gaseous exhaust stream into a CO 2 rich stream and a CO 2 lean stream, and wherein the power generation system is configured to recycle at least a portion of the CO 2 rich stream to the first combustion chamber.