mhurhangee/ep-ind-claims huggingface dataset:
A rotary device for a nuclear power facility, the rotary device being placed in a circuit for primary cooling helium containing radioactive nuclides in the nuclear power facility, the rotary device comprising: a casing; and a rotary mechanism provided with, in the casing, a rotor and a rotor shaft that come into contact with the primary cooling helium containing the radioactive nuclides passing through the casing, characterized in that regarding the casing and the rotary mechanism, at least the rotor and the rotor shaft of the rotary mechanism are composed of a monocrystalline material. a casing; and a rotary mechanism provided with, in the casing, a rotor and a rotor shaft that come into contact with the primary cooling helium containing the radioactive nuclides passing through the casing, characterized in that regarding the casing and the rotary mechanism, at least the rotor and the rotor shaft of the rotary mechanism are composed of a monocrystalline material.
An absorbent article, comprising a polymer sheet in which a super absorbent polymer exists between an upper layer sheet arranged on a skin side and a lower layer sheet arranged on a non-skin side, the absorbent article being characterized in that a fiber absorber comprising pulp fiber is disposed adjacent to a surface on a skin side of an area corresponding to a body fluid discharge region of a wearer in the polymer sheet, and the super absorbent polymer is not arranged in an area which overlaps with the fiber absorber, and is arranged in the other area. the absorbent article being characterized in that a fiber absorber comprising pulp fiber is disposed adjacent to a surface on a skin side of an area corresponding to a body fluid discharge region of a wearer in the polymer sheet, and the super absorbent polymer is not arranged in an area which overlaps with the fiber absorber, and is arranged in the other area.
Method for producing a multicoat color and/or effect paint system, by applying a pigmented aqueous basecoat material to a substrate, forming a polymer film from the coating material applied in stage, applying a clearcoat material to the resultant basecoat film, and subsequently curing the basecoat film together with the clearcoat film, characterized in that in stage a pigmented aqueous basecoat material is used which comprises at least one phosphine oxide of the following structural formula: where the radicals R 1 to R 3 are selected from the group of the aliphatic or aromatic hydrocarbons and, furthermore, the sum total of the weight percentage fractions of all of the phosphine oxides of structural formula is 0.1% to 5% by weight, based on the total weight of the aqueous basecoat material applied in stage. applying a pigmented aqueous basecoat material to a substrate, forming a polymer film from the coating material applied in stage, applying a clearcoat material to the resultant basecoat film, and subsequently curing the basecoat film together with the clearcoat film, characterized in that in stage a pigmented aqueous basecoat material is used which comprises at least one phosphine oxide of the following structural formula: where the radicals R 1 to R 3 are selected from the group of the aliphatic or aromatic hydrocarbons and, furthermore, the sum total of the weight percentage fractions of all of the phosphine oxides of structural formula is 0.1% to 5% by weight, based on the total weight of the aqueous basecoat material applied in stage.
A method of forming a switch, comprising: forming a first bottom electrode over a base; forming a first electrically conductive structure directly over the first bottom electrode; forming dielectric material along a sidewall of the first electrically conductive structure, the first electrically conductive structure and the dielectric material together covering a first portion of the first bottom electrode and leaving a second portion of the first bottom electrode exposed; forming a first graphene structure electrically coupled with the exposed portion of the first bottom electrode, along the dielectric material and laterally spaced from the first electrically conductive structure by the dielectric material; forming a second electrically conductive structure on an opposing side of the first graphene structure from the first electrically conductive structure, the second electrically conductive structure being directly over the first bottom electrode; forming a first top electrode over the first graphene structure; the first bottom electrode being electrically coupled with the first electrically conductive structure, the first top electrode being electrically coupled with the second electrically conductive structure; and wherein the first and second electrically conductive structures (108, 122) are configured to provide an electric field across the first graphene structure. forming a first bottom electrode over a base; forming a first electrically conductive structure directly over the first bottom electrode; forming dielectric material along a sidewall of the first electrically conductive structure, the first electrically conductive structure and the dielectric material together covering a first portion of the first bottom electrode and leaving a second portion of the first bottom electrode exposed; forming a first graphene structure electrically coupled with the exposed portion of the first bottom electrode, along the dielectric material and laterally spaced from the first electrically conductive structure by the dielectric material; forming a second electrically conductive structure on an opposing side of the first graphene structure from the first electrically conductive structure, the second electrically conductive structure being directly over the first bottom electrode; forming a first top electrode over the first graphene structure; the first bottom electrode being electrically coupled with the first electrically conductive structure, the first top electrode being electrically coupled with the second electrically conductive structure; and wherein the first and second electrically conductive structures (108, 122) are configured to provide an electric field across the first graphene structure.
A system for determining a parameter of body tissue of a patient comprising: a flexible elongated device (400, 430, 430') configured and dimensioned for insertion into the body of the patient, the elongated device having a proximal portion, a distal portion and a tubular portion (402, 432, 432') having a distal region, a proximal region and an intermediate region and having a lumen formed therein, the tubular portion having a reduced diameter region in the distal region, the elongated device configured for insertion so the distal portion thereof is adjacent target tissue; a radiopaque marker element (422, 438, 438'); a sensor configured to determine a parameter of body tissue; and a connector operably connecting the tubular portion to an indicator, the sensor determining the parameter and the indicator configured to provide an indication of the parameter measured by the sensor, further that the marker element (422, 438, 438') is positioned distally of a distalmost tip of the tubular portion (402, 432, 432') and in that the sensor is positioned within the marker element and wherein the tubular portion has a first wall thickness and the marker element has a second wall thickness, the second wall thickness being less than the first wall thickness and the marker element has a larger outer diameter and a larger inner diameter than that of the reduced diameter distal region of the tubular portion, to provide the marker element with a larger internal space for the sensor relative to the distal region of the tubular portion. a flexible elongated device (400, 430, 430') configured and dimensioned for insertion into the body of the patient, the elongated device having a proximal portion, a distal portion and a tubular portion (402, 432, 432') having a distal region, a proximal region and an intermediate region and having a lumen formed therein, the tubular portion having a reduced diameter region in the distal region, the elongated device configured for insertion so the distal portion thereof is adjacent target tissue; a radiopaque marker element (422, 438, 438'); a sensor configured to determine a parameter of body tissue; and a connector operably connecting the tubular portion to an indicator, the sensor determining the parameter and the indicator configured to provide an indication of the parameter measured by the sensor, further that the marker element (422, 438, 438') is positioned distally of a distalmost tip of the tubular portion (402, 432, 432') and in that the sensor is positioned within the marker element and wherein the tubular portion has a first wall thickness and the marker element has a second wall thickness, the second wall thickness being less than the first wall thickness and the marker element has a larger outer diameter and a larger inner diameter than that of the reduced diameter distal region of the tubular portion, to provide the marker element with a larger internal space for the sensor relative to the distal region of the tubular portion.
A cleaning mechanism, comprising: a cleaning roller configured to rotate in a first direction; a clearing component contacting the cleaning roller and configured to rotate in the first direction; and a scraper having an arc-shaped surface facing the cleaning roller, wherein: a top surface of the scraper and a shell, spaced apart from the scraper, define an opening in which the clearing component is disposed, and the scraper is disposed between the cleaning roller and a trash bin, characterized in that the clearing component comprises a plurality of clearing elements extending from a cylindrical-shaped rotation body of the clearing component, wherein: the plurality of clearing elements comprises a first clearing element and a second clearing element, and the first clearing element is spaced apart from the second clearing element by a gap. a cleaning roller configured to rotate in a first direction; a clearing component contacting the cleaning roller and configured to rotate in the first direction; and a scraper having an arc-shaped surface facing the cleaning roller, wherein: a top surface of the scraper and a shell, spaced apart from the scraper, define an opening in which the clearing component is disposed, and the scraper is disposed between the cleaning roller and a trash bin, a top surface of the scraper and a shell, spaced apart from the scraper, define an opening in which the clearing component is disposed, and the scraper is disposed between the cleaning roller and a trash bin, characterized in that the clearing component comprises a plurality of clearing elements extending from a cylindrical-shaped rotation body of the clearing component, wherein: the plurality of clearing elements comprises a first clearing element and a second clearing element, and the first clearing element is spaced apart from the second clearing element by a gap. the plurality of clearing elements comprises a first clearing element and a second clearing element, and the first clearing element is spaced apart from the second clearing element by a gap.
A composition comprising maltose and steviol glycoside, said composition further comprising one or more nutritive sweeteners, characterized in that the maltose content of the composition is in a range of from 2.25 to 52.5 w/w% based on the one or more nutritive sweeteners and wherein the weight ratio maltose to steviol glycoside is from 30 to 480.
A method of transmitting data on carriers each using a non-sinusoidal waveform, the method comprising or initiating the steps of: assigning a fundamental frequency to each of the carriers using the non-sinusoidal waveform, wherein baseband frequencies corresponding to a set of harmonic components of the non-sinusoidal waveform at each of the assigned fundamental frequencies are disjoint, an energy of each of the harmonic components in the set being greater than a predefined threshold value, wherein the threshold value for the energy of each of the harmonic components in the set is relative to an energy of the fundamental frequency of the non-sinusoidal waveform; and transmitting modulation symbols representative of the data on at least one or all of the carriers. assigning a fundamental frequency to each of the carriers using the non-sinusoidal waveform, wherein baseband frequencies corresponding to a set of harmonic components of the non-sinusoidal waveform at each of the assigned fundamental frequencies are disjoint, an energy of each of the harmonic components in the set being greater than a predefined threshold value, wherein the threshold value for the energy of each of the harmonic components in the set is relative to an energy of the fundamental frequency of the non-sinusoidal waveform; and transmitting modulation symbols representative of the data on at least one or all of the carriers.
A multiple antenna mode control method based on Station, applicable to communication systems comprising an Access Point and a Station, comprising the following steps: Step 1, the Station reports a multiple antenna mode set or subset supported by the Station to the Access Point; Step 2, the Access Point returns a multiple antenna mode set or subset supported by the Access Point to the Station, or returns directly a multiple antenna mode set or subset supported by both the Station and the Access Point to the Station; and Step 3, a multiple antenna mode is chosen from a multiple antenna mode set or subset supported by both the Station and the Access Point for communicating between the Station and the Access Point; characterized in that each of the multiple antenna mode set or subset supported by the Access Point, the multiple antenna mode set or subset supported by the Station and the multiple antenna mode set or subset supported by both the Station and the Access Point comprises spatial multiplexing, spatial diversity and beam forming at the same time; and in that the multiple antenna mode set includes multiple antenna mode set comprising all transmitting antenna modes and receiving antenna modes supported by the Station and the Access Point agreed in advance according to communication protocol, wherein, each multiple antenna mode is determined according to the number of antennas of both sending and receiving ends as well as a corresponding algorithm. Step 1, the Station reports a multiple antenna mode set or subset supported by the Station to the Access Point; Step 2, the Access Point returns a multiple antenna mode set or subset supported by the Access Point to the Station, or returns directly a multiple antenna mode set or subset supported by both the Station and the Access Point to the Station; and Step 3, a multiple antenna mode is chosen from a multiple antenna mode set or subset supported by both the Station and the Access Point for communicating between the Station and the Access Point; characterized in that each of the multiple antenna mode set or subset supported by the Access Point, the multiple antenna mode set or subset supported by the Station and the multiple antenna mode set or subset supported by both the Station and the Access Point comprises spatial multiplexing, spatial diversity and beam forming at the same time; and in that the multiple antenna mode set includes multiple antenna mode set comprising all transmitting antenna modes and receiving antenna modes supported by the Station and the Access Point agreed in advance according to communication protocol, wherein, each multiple antenna mode is determined according to the number of antennas of both sending and receiving ends as well as a corresponding algorithm.
A method for setting status of an application, the method comprising steps of: acquiring status setting permission information of the application; and setting the status of the application as an inactive status if the status setting permission information indicates that it is allowable to set the status of the application, characterized in that the application in the inactive status is disabled to receive system broadcast provided by an Android operating system, the method further characterized in that, the step of setting the status setting permission information comprises steps of: determining whether the application is in a preset white list when the application is installed, wherein the white list is used for recording the applications that need to be run in background, the white list being a list in which applications that need to be run in background are recorded and being offered by an authoritative organization; setting the status setting permission information of the application to indicate that it is unallowable to set the status of the application if the application is in the white list; and setting the status setting permission information of the application to indicate that it is allowable to set the status of the application if the application is not in the white list. acquiring status setting permission information of the application; and setting the status of the application as an inactive status if the status setting permission information indicates that it is allowable to set the status of the application, characterized in that the application in the inactive status is disabled to receive system broadcast provided by an Android operating system, the method further characterized in that, the determining whether the application is in a preset white list when the application is installed, wherein the white list is used for recording the applications that need to be run in background, the white list being a list in which applications that need to be run in background are recorded and being offered by an authoritative organization; setting the status setting permission information of the application to indicate that it is unallowable to set the status of the application if the application is in the white list; and setting the status setting permission information of the application to indicate that it is allowable to set the status of the application if the application is not in the white list.
An adapter module for use in a mobile communication device being connected to a network server via a communication network (101, 102) comprising a mobile terminal and a subscriber identification module, wherein the adapter module is connected between the mobile terminal and the subscriber identification module, wherein the adapter module comprises a backup component providing a backup functionality independent of the functions of the mobile terminal and the subscriber identification module, which is configured to access first data stored in the mobile communication device and to form a first data message from the first data, and wherein the adapter module comprises a transmission component, which is configured to instruct the mobile communication device to send the first data message to the network server via the communication network (101, 102).
A method for producing a steel sheet, comprising the steps of: reheating a steel slab having an alloy composition by weight of 0.005-0.06% carbon (c), 0.2% or less silicon (Si), 1.0-2.0% manganese (Mn), 0.01% or less sulfur, 0.2-2.0% aluminum (Al), one or more of chromium (Cr) and molybdenum (Mo) in an amount satisfying 0.3 ≤ [Cr wt%]+0.3[Mo wt%] ≤ 2.0 wt%, and 0.008% or less nitrogen, and optionally 0.02-0.08 wt% phosphorus, with a remainder being iron (Fe) and inevitable impurities; hot-rolling the reheated steel slab at a temperature equal to or higher than an Ar3 point of the steel slab to obtain a hot-rolled steel sheet; coiling the hot-rolled steel sheet at a temperature of 680°C or higher; pickling the coiled steel sheet; then cold rolling the pickled steel sheet; annealing the cold-rolled steel sheet such that an austenite volume fraction thereof is 20 vol% or less, followed by cooling the cold rolled steel sheet; and temper-rolling the cooled steel sheet, wherein the cooled steel sheet has a microstructure of a 2.0-10.0 vol% martensite and a remainder being ferrite, wherein a density of dislocations in a matrix of the ferrite is in a range of 1x10 13 /m 2 to 9.9x10 13 /m 2 evaluated by crystallographic misorientation analysis using Electron Backscatter Diffraction. reheating a steel slab having an alloy composition by weight of 0.005-0.06% carbon (c), 0.2% or less silicon (Si), 1.0-2.0% manganese (Mn), 0.01% or less sulfur, 0.2-2.0% aluminum (Al), one or more of chromium (Cr) and molybdenum (Mo) in an amount satisfying 0.3 ≤ [Cr wt%]+0.3[Mo wt%] ≤ 2.0 wt%, and 0.008% or less nitrogen, and optionally 0.02-0.08 wt% phosphorus, with a remainder being iron (Fe) and inevitable impurities; hot-rolling the reheated steel slab at a temperature equal to or higher than an Ar3 point of the steel slab to obtain a hot-rolled steel sheet; coiling the hot-rolled steel sheet at a temperature of 680°C or higher; pickling the coiled steel sheet; then cold rolling the pickled steel sheet; annealing the cold-rolled steel sheet such that an austenite volume fraction thereof is 20 vol% or less, followed by cooling the cold rolled steel sheet; and temper-rolling the cooled steel sheet, wherein the cooled steel sheet has a microstructure of a 2.0-10.0 vol% martensite and a remainder being ferrite, wherein a density of dislocations in a matrix of the ferrite is in a range of 1x10 13 /m 2 to 9.9x10 13 /m 2 evaluated by crystallographic misorientation analysis using Electron Backscatter Diffraction.