mhurhangee/ep-ind-claims huggingface dataset:
Magnetic attraction module, comprising: - at least one permanent magnet, - for each permanent magnet, a cavity associated with this magnet and located inside a pin comprising two ends, of which a first end comprises an entrance hole into the cavity and a second end comprises a cavity head, these two ends being connected by a side wall, - means for moving each magnet in question along a movement axis parallel to a movement direction between two positions, including an interaction position for which part of this magnet in question is accommodated inside its associated cavity via the entrance hole of this cavity and being in contact with the head of this cavity, and a retraction position for which this magnet in question is extracted from its associated cavity via the entrance hole relative to its interaction position, characterized in that the head of each cavity is made of ferromagnetic material. - at least one permanent magnet, - for each permanent magnet, a cavity associated with this magnet and located inside a pin comprising two ends, of which a first end comprises an entrance hole into the cavity and a second end comprises a cavity head, these two ends being connected by a side wall, - means for moving each magnet in question along a movement axis parallel to a movement direction between two positions, including an interaction position for which part of this magnet in question is accommodated inside its associated cavity via the entrance hole of this cavity and being in contact with the head of this cavity, and a retraction position for which this magnet in question is extracted from its associated cavity via the entrance hole relative to its interaction position,
A high-strength stainless steel pipe excellent in sulfide stress cracking resistance and high-temperature carbonic-acid gas corrosion resistance and having a yield strength of 758MPa or more, characterized in that: the stainless steel pipe consists of, by mass%, C: 0.05% or less, Si: 1.0% or less, P: 0.05% or less, S: less than 0.002%, Cr: more than 16% and 18% or less, Mo: more than 2% and 3% or less, Cu: 1% to 3.5%, Ni: 3% or more and less than 5%, Al: 0.001% to 0.1% and O: 0.01% or less, Mn: 1% or less and N: 0.05% or less, and Mn and N in the above ranges satisfy formula, and optionally one or more of Ca: 0.01% or less, B: 0.01% or less, V: 0.3% or less, Ti: 0.3% or less, Zr: 0.3% or less and Nb: 0.3% or less, and the balance being Fe and impurities; and the metal micro-structure of the stainless steel pipe comprises, by volume fraction, 50% or more of a martensitic phase, 10 to 40% of a ferritic phase and 10% or less of a retained γ-phase: Mn × N - 0.0045 ≤ 0.001 wherein the symbols of elements respectively represent the contents (unit: mass%) of the elements in the steel. the stainless steel pipe consists of, by mass%, C: 0.05% or less, Si: 1.0% or less, P: 0.05% or less, S: less than 0.002%, Cr: more than 16% and 18% or less, Mo: more than 2% and 3% or less, Cu: 1% to 3.5%, Ni: 3% or more and less than 5%, Al: 0.001% to 0.1% and O: 0.01% or less, Mn: 1% or less and N: 0.05% or less, and Mn and N in the above ranges satisfy formula, and optionally one or more of Ca: 0.01% or less, B: 0.01% or less, V: 0.3% or less, Ti: 0.3% or less, Zr: 0.3% or less and Nb: 0.3% or less, and the balance being Fe and impurities; and the metal micro-structure of the stainless steel pipe comprises, by volume fraction, 50% or more of a martensitic phase, 10 to 40% of a ferritic phase and 10% or less of a retained γ-phase: Mn × N - 0.0045 ≤ 0.001 wherein the symbols of elements respectively represent the contents (unit: mass%) of the elements in the steel.
A method for receiving an uplink frame in a wireless communication system, the method comprising: receiving, by an access point, AP, an uplink orthogonal frequency division multiple access, OFDMA, frame, wherein the uplink OFDMA frame comprises resource units, RUs, communicated by different mobile devices, wherein each of the RUs in the uplink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the uplink OFDMA frame by tracking a phase of each symbol 2. in the RUs based on the pilot tones carried in the RUs, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the uplink OFDMA frame. receiving, by an access point, AP, an uplink orthogonal frequency division multiple access, OFDMA, frame, wherein the uplink OFDMA frame comprises resource units, RUs, communicated by different mobile devices, wherein each of the RUs in the uplink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the uplink OFDMA frame by tracking a phase of each symbol 2. in the RUs based on the pilot tones carried in the RUs, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the uplink OFDMA frame.
A system configured to prepare and dispense both non gas-infused and gas-infused beverages comprising: a gas source; a pressurizable container connected to the gas source to receive a first flow of gas from the gas source; a gas infusion vessel connected to the gas source to receive a second flow of gas from the gas source; a first dispensing tap that receives a portion of preprocessed beverage stored in the pressurizable container that flows under pressure applied from a portion of the first flow of gas to dispense a non gas-infused beverage from the first dispensing tap; and a second dispensing tap that receives gas-infused beverage from the gas infusion vessel to dispense the gas-infused beverage by the second dispensing tap, the gas infusion vessel receiving a portion of the preprocessed beverage from the pressurizable container to infuse the preprocessed beverage in the gas infusion vessel with at least a portion of the second flow of gas; wherein the non gas-infused beverage has a lower concentration of gas than the gas-infused beverage, wherein the system further comprises a pump to drive preprocessed beverage from the pressurizable container to the gas infusion vessel connected between the pressurizable container and the gas infusion vessel, characterized in a second cutoff switch that is a low fluid detection cutoff switch configured to detect if a flow rate of the preprocessed beverage is higher or lower than a pre-determined flow rate for operation of the pump, wherein the second cutoff switch is between the pressurizable container and the pump. a pressurizable container connected to the gas source to receive a first flow of gas from the gas source; a gas infusion vessel connected to the gas source to receive a second flow of gas from the gas source; a first dispensing tap that receives a portion of preprocessed beverage stored in the pressurizable container that flows under pressure applied from a portion of the first flow of gas to dispense a non gas-infused beverage from the first dispensing tap; and a second dispensing tap that receives gas-infused beverage from the gas infusion vessel to dispense the gas-infused beverage by the second dispensing tap, the gas infusion vessel receiving a portion of the preprocessed beverage from the pressurizable container to infuse the preprocessed beverage in the gas infusion vessel with at least a portion of the second flow of gas; wherein the non gas-infused beverage has a lower concentration of gas than the gas-infused beverage, wherein the system further comprises a pump to drive preprocessed beverage from the pressurizable container to the gas infusion vessel connected between the pressurizable container and the gas infusion vessel, characterized in a second cutoff switch that is a low fluid detection cutoff switch configured to detect if a flow rate of the preprocessed beverage is higher or lower than a pre-determined flow rate for operation of the pump, wherein the second cutoff switch is between the pressurizable container and the pump.
A terminal apparatus which is configured to perform periodic channel state information reporting to a base station apparatus, the terminal apparatus comprising: a receiver configured to receive index information indicating a periodicity value for the channel state information reporting, and at least one of first information and second information, from the base station apparatus; and a transmission control circuit configured to determine the periodicity value for the channel state information reporting based on the index information, wherein the periodicity value is one of one or a plurality of periodicity values which depends on at least a UL-DL configuration, in a case where the second information is configured, the UL-DL configuration is a first UL-DL configuration which is indicated by the second information, in a case where the second information is not configured, the UL-DL configuration is a second UL-DL configuration which is indicated by the first information, and the receiver is configured to receive third information, a third UL-DL configuration indicated by the third information is used for monitoring of physical downlink control channel. a receiver configured to receive index information indicating a periodicity value for the channel state information reporting, and at least one of first information and second information, from the base station apparatus; and a transmission control circuit configured to determine the periodicity value for the channel state information reporting based on the index information, wherein the periodicity value is one of one or a plurality of periodicity values which depends on at least a UL-DL configuration, in a case where the second information is configured, the UL-DL configuration is a first UL-DL configuration which is indicated by the second information, in a case where the second information is not configured, the UL-DL configuration is a second UL-DL configuration which is indicated by the first information, and the receiver is configured to receive third information, a third UL-DL configuration indicated by the third information is used for monitoring of physical downlink control channel.
Method for processing iron sulfate heptahydrate, comprising: a) providing a first mixture comprising an aqueous solution or suspension of iron sulfate heptahydrate in a vessel (Mixture I); b) conveying Mixture I into a first pressure vessel and heating the Mixture I to a temperature T1 that is above the boiling temperature of the Mixture I at atmospheric pressure, wherein a first pressure P1 is formed and wherein solid iron sulfate monohydrate and a solution II are formed; c) separating the solid iron sulfate monohydrate from the solution II in a second pressure vessel at a temperature T2 and a pressure P2 to form a separated iron sulfate solid that comprises iron sulfate monohydrate and an adhered portion of the solution II; d) conveying the separated iron sulfate monohydrate solid into a third pressure vessel having a pressure P3, wherein P3 is less than P2 and wherein the temperature of the iron sulfate monohydrate solid entering the third pressure vessel is above the boiling temperature of solution II at the pressure P3, and wherein over the course of step d) the temperature of the iron sulfate monohydrate solid falls to a temperature T3 corresponding to the pressure P3. a) providing a first mixture comprising an aqueous solution or suspension of iron sulfate heptahydrate in a vessel (Mixture I); b) conveying Mixture I into a first pressure vessel and heating the Mixture I to a temperature T1 that is above the boiling temperature of the Mixture I at atmospheric pressure, wherein a first pressure P1 is formed and wherein solid iron sulfate monohydrate and a solution II are formed; c) separating the solid iron sulfate monohydrate from the solution II in a second pressure vessel at a temperature T2 and a pressure P2 to form a separated iron sulfate solid that comprises iron sulfate monohydrate and an adhered portion of the solution II; d) conveying the separated iron sulfate monohydrate solid into a third pressure vessel having a pressure P3, wherein P3 is less than P2 and wherein the temperature of the iron sulfate monohydrate solid entering the third pressure vessel is above the boiling temperature of solution II at the pressure P3, and wherein over the course of step d) the temperature of the iron sulfate monohydrate solid falls to a temperature T3 corresponding to the pressure P3.
Filter element for filtering a fluid with a longitudinal axis, comprising a filter bellows disposed around the longitudinal axis with a first end disk on a first front side and a second end disk on a second front side, characterized in that the filter element comprises a central element rotatably disposed in the inside of the filter bellows around the longitudinal axis relative to the filter bellows, wherein the central element features one or more positioning elements (22, 24) which are provided in the case of intended assembly for interacting with one or more positioning counter elements (116, 118) of a housing upper part of a filter housing of a filter system in order to fix the central element in the housing upper part in a defined angular position relative to the one or several positioning counter elements (116, 118), wherein the central element features at least one element-sided electrical connecting element which is provided in the case of intended assembly in the filter housing for electrically contacting at least one housing-sided electrical connecting element.
An electronic mirror device that is attached to a vehicle interior and is used for rearward visual recognition, the electronic mirror device comprising: an optical member that reflects incident light from a front surface side, and transmits incident light from a rear surface side; and a liquid crystal display that includes a liquid crystal panel disposed on the rear surface side of the optical member and a backlight that irradiates the liquid crystal panel with light, and displays an image of a rear view of a vehicle, characterized in that a peak angle of the backlight is directed downward with respect to a front direction of the liquid crystal panel. an optical member that reflects incident light from a front surface side, and transmits incident light from a rear surface side; and a liquid crystal display that includes a liquid crystal panel disposed on the rear surface side of the optical member and a backlight that irradiates the liquid crystal panel with light, and displays an image of a rear view of a vehicle, characterized in that a peak angle of the backlight is directed downward with respect to a front direction of the liquid crystal panel.
Device for the reduction of gust loads occurring on a number n of aerodynamic control surfaces of an aircraft, where n ≥ 1, wherein the aerodynamic control surfaces can be moved in each case by at least one actuator, and a flight control system provides command variables X soll and/or Ẋ soll for purposes of actuating the at least one actuator of a respective aerodynamic control surface, wherein X soll indicates a target position, or a target force, or a target moment, and Ẋ soll indicates a change in X soll over time, comprising: - a sensor system for each aerodynamic control surface, which determines external forces/moments F ext,Boe, generated by gusts, acting on the respective aerodynamic control surface, and - a respective controller, for purposes of controlling the at least one actuator on the basis of: F ext,Boe, the command variables X soll and/or Ẋ soll, as well as control variables X and/or X, generated by the actuator, and detected by a sensor system, wherein the controller has a control behaviour, in which the forces/moments F ext,Boe generated by gusts are compensated for on the respective aerodynamic control surface. - a sensor system for each aerodynamic control surface, which determines external forces/moments F ext,Boe, generated by gusts, acting on the respective aerodynamic control surface, and - a respective controller, for purposes of controlling the at least one actuator on the basis of: F ext,Boe, the command variables X soll and/or Ẋ soll, as well as control variables X and/or X, generated by the actuator, and detected by a sensor system, wherein the controller has a control behaviour, in which the forces/moments F ext,Boe generated by gusts are compensated for on the respective aerodynamic control surface.
A method for testing the sealing tightness of a specimen containing a gas, in a film chamber made from flexible material, the film chamber being evacuated by a vacuum pump, wherein the gas flow flowing out from the film chamber and generated by the vacuum pump is measured during the evacuation and is examined with respect to a possible leak of the specimen, characterized in that the course of the gas flow measured is compared with the course of a reference gas flow, i.e. the gas flow for a tight specimen.
Motorizing system for powering a wheel associated with a suspension of an aircraft so that the latter can be moved around on the ground, comprising a motor unit (4, 104), a drive member that is able to be secured to the wheel, and a clutch device connecting the output shaft of the motor unit (4, 104) to the drive member, in which the motor unit (4, 104) comprises an electric motor and is able to be carried by an un-sprung part of a suspension strut, and in which the transmission between the output shaft and the drive member is a positive transmission, the drive member being a ring gear that is able to be carried by the rim of the wheel and designed to enter into mesh with the output gear of the motor unit (4, 104) when the latter is in its engaged position, characterized in that the in-mesh position of the output gear is defined by two rolling lips carried by the ring gear and designed to have, rolling along them without sliding, two runway tracks carried by the gear.
A catalytic DNA molecule having site-specific endonuclease activity specific for a nucleotide sequence defining a cleavage site in a preselected substrate nucleic acid sequence, said catalytic molecule having first and second substrate binding regions flanking a core region, said molecule having the formula: 5' (X-R)- GGCTAGCT 8 ACAACGA - 3' wherein each X is any nucleotide sequence, (X-R) represents said first substrate binding region, represents said second substrate binding region, R is a nucleotide capable of forming a base pair with a pyrimidine in the preselected substrate nucleic acid sequence, T 8 may be replaced by C or A, said first substrate binding region having a sequence capable of binding through complementary base-pairing to a first portion of said preselected substrate nucleic acid sequence, said second substrate binding region having a sequence capable of binding through complementary base-pairing to a second portion of said preselected substrate nucleic acid sequence, with the proviso that said catalytic molecule is not a molecule in which the first and second binding regions can bind through complementary base-pairing to a substrate nucleic acid which is 5' - GGAAAAAGUAACUAGAGAUGGAAG - 3' (SEQ ID NO 135).
An adhesive composition which is suitable as a thermally conductive adhesive composition comprising: at least one filler, wherein said at least one filler is selected from the group consisting of expanded clay, expanded graphite, expanded mica, expanded shale, expanded vermiculite, pumice, scoria, ceramic microspheres, diatomaceous earth, perlite, fumed silica or combinations thereof; at least one filler, wherein said at least one filler is (i) different from and has an aspect ratio of 1 to 10; at least one filler, wherein said at least one filler is (i) different from and has an aspect ratio of more than 10; at least one (co)polymer; optionally at least one tackifier; and optionally at least one additive. at least one filler, wherein said at least one filler is selected from the group consisting of expanded clay, expanded graphite, expanded mica, expanded shale, expanded vermiculite, pumice, scoria, ceramic microspheres, diatomaceous earth, perlite, fumed silica or combinations thereof; at least one filler, wherein said at least one filler is (i) different from and has an aspect ratio of 1 to 10; (i) different from and has an aspect ratio of 1 to 10; at least one filler, wherein said at least one filler is (i) different from and has an aspect ratio of more than 10; (i) different from and has an aspect ratio of more than 10; at least one (co)polymer; optionally at least one tackifier; and optionally at least one additive.
A zinc-air fuel cell of the fluidised bed type, comprising a main body and a pair of electrode plates (14, 16), anode and cathode respectively, fixed to a pair of opposite first faces of the main body, in which the main body encloses a chamber suitable to be fed with an electrolyte and with zinc particles, said chamber having a bottom wall wherein the main body is provided with at least one feeding conduit for feeding the zinc particles to the cell, at least two inlet conduits for feeding the electrolyte to the cell, and at least one discharge conduit for discharging from the cell the electrolyte and zinc particles consumed during operation of the cell, wherein said at least two inlet conduits are arranged coaxially to each other on a pair of opposing second faces of said main body extending below said bottom wall, and wherein the main body further has a plurality of diffuser channels communicating with said at least two inlet conduits and flowing at said bottom wall to diffuse into said chamber the electrolyte fed to the cell through said at least two inlet conduits. in which the main body encloses a chamber suitable to be fed with an electrolyte and with zinc particles, said chamber having a bottom wall wherein the main body is provided with at least one feeding conduit for feeding the zinc particles to the cell, at least two inlet conduits for feeding the electrolyte to the cell, and at least one discharge conduit for discharging from the cell the electrolyte and zinc particles consumed during operation of the cell, wherein said at least two inlet conduits are arranged coaxially to each other on a pair of opposing second faces of said main body extending below said bottom wall, and wherein the main body further has a plurality of diffuser channels communicating with said at least two inlet conduits and flowing at said bottom wall to diffuse into said chamber the electrolyte fed to the cell through said at least two inlet conduits.