mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sequencing a nucleic acid molecule using a sequencing cell comprising a nanopore in a membrane that resides over a well, a first electrode at a bottom of the well, a second electrode in a chamber above the membrane, and an electrolyte in the well and the chamber, wherein the first electrode facilitates non-Faradaic conduction of ionic current and forms a capacitance with ions in the electrolyte , the method comprising: applying a first voltage signal across the first electrode and the second electrode, thereby creating a force that moves a nucleic acid molecule in the sequence cell through the nanopore, wherein the first voltage signal increases at a first rate that compensates for a change in the capacitance at the first electrode during application of the first voltage signal; determining a first set of signal values measured during the first voltage signal, the first set of signal values corresponding to one or more nucleotides in the nucleic acid molecule; characterized in that it further comprises: monitoring a nanopore voltage across the nanopore relative to a preset reference voltage; upon detecting a magnitude of nanopore voltage falling below the preset reference voltage , increasing the magnitude of the first voltage signal to a second voltage higher than the preset reference voltage; and determining a second set of signal values measured during the first voltage signal, the second set of signal values corresponding to one or more nucleotides in the nucleic acid molecule. applying a first voltage signal across the first electrode and the second electrode, thereby creating a force that moves a nucleic acid molecule in the sequence cell through the nanopore, wherein the first voltage signal increases at a first rate that compensates for a change in the capacitance at the first electrode during application of the first voltage signal; determining a first set of signal values measured during the first voltage signal, the first set of signal values corresponding to one or more nucleotides in the nucleic acid molecule; monitoring a nanopore voltage across the nanopore relative to a preset reference voltage; upon detecting a magnitude of nanopore voltage falling below the preset reference voltage , increasing the magnitude of the first voltage signal to a second voltage higher than the preset reference voltage; and determining a second set of signal values measured during the first voltage signal, the second set of signal values corresponding to one or more nucleotides in the nucleic acid molecule.
A package comprising: a plastic bag delimiting a seat sealingly housing a product (P), the plastic bag having - one or more plastic film walls , and - at least one connecting zone (6; 6a, 6b) comprising at least one sealing band (5; 5, 13; 5a; 5a, 13a) connecting together mutually facing wall portions of said plastic film walls , a tab coupled with the at least one connecting zone (6; 6a, 6b) of the plastic bag , wherein the tab includes an easy opening feature at one or more of its perimeter edges, characterized in that the plastic bag comprises a further easy opening feature , wherein the further easy opening feature is formed in the plastic material of the plastic bag and extends from a peripheral border of the plastic bag , and wherein the further easy opening feature is either adjacent to the connecting zone (6; 6a, 6b) of the plastic bag or partly crosses the connecting zone , in particular partly or completely crosses the at least one sealing band (5; 5, 13; 5a; 5a, 13a) of the plastic bag . a plastic bag delimiting a seat sealingly housing a product (P), the plastic bag having - one or more plastic film walls , and - at least one connecting zone (6; 6a, 6b) comprising at least one sealing band (5; 5, 13; 5a; 5a, 13a) connecting together mutually facing wall portions of said plastic film walls , - one or more plastic film walls , and - at least one connecting zone (6; 6a, 6b) comprising at least one sealing band (5; 5, 13; 5a; 5a, 13a) connecting together mutually facing wall portions of said plastic film walls , a tab coupled with the at least one connecting zone (6; 6a, 6b) of the plastic bag , wherein the tab includes an easy opening feature at one or more of its perimeter edges, characterized in that the plastic bag comprises a further easy opening feature , wherein the further easy opening feature is formed in the plastic material of the plastic bag and extends from a peripheral border of the plastic bag , and wherein the further easy opening feature is either adjacent to the connecting zone (6; 6a, 6b) of the plastic bag or partly crosses the connecting zone , in particular partly or completely crosses the at least one sealing band (5; 5, 13; 5a; 5a, 13a) of the plastic bag .
A two-component antifouling coating composition, comprising: a first component comprising a (meth)acrylic ester (A); a second component comprising an amino group-containing compound (B); and an antifoulant (C) in either the first component or the second component, wherein either or both of the (meth)acrylic ester (A) and the amino group-containing compound (B) have an ether structure; not less than 50% by weight of a tri- or higher functional (meth) acrylic ester is contained in a total weight of the (meth) acrylic ester (A); and the amino group-containing compound (B) is 20 to 100 parts by weight with respect to 100 parts by weight of the (meth) acrylic ester (A) . a first component comprising a (meth)acrylic ester (A); a second component comprising an amino group-containing compound (B); and an antifoulant (C) in either the first component or the second component, wherein either or both of the (meth)acrylic ester (A) and the amino group-containing compound (B) have an ether structure; not less than 50% by weight of a tri- or higher functional (meth) acrylic ester is contained in a total weight of the (meth) acrylic ester (A); and the amino group-containing compound (B) is 20 to 100 parts by weight with respect to 100 parts by weight of the (meth) acrylic ester (A) .
Device for producing heat, having a housing , a fluid which can flow through the housing and a heating device which is arranged in the housing for the fluid , wherein the heating device has a rotatable shaft having at least one magnet which is arranged on the shaft and a surround which is arranged at least in regions along a movement path of the at least one magnet which is moved by the shaft for the magnetic interaction of the at least one moved magnet with the surround , which interaction heats the surround , wherein the fluid in order to be heated is guided in terms of flow at least partially along the surround , wherein the housing has an inlet and an outlet for the fluid and wherein in the housing between the inlet and the outlet and around the surround an annular channel which surrounds the surround in an annular manner at the outer side of the surround is formed for a flow of the fluid , characterised in that a heat exchanger which can be placed over the surround is arranged in the annular channel .
An optical communication apparatus that is adapted to receive a wavelength division multiplexed signal in which a plurality of optical signals are wavelength multiplexed and in which each of the optical signals includes a plurality of multiplexed subcarriers, characterized in that the optical communication apparatus comprises: a plurality of transceivers (2-1 to 2-4), each of the transceivers corresponding to a respective one of the plurality of optical signals and adapted to perform a reception process on a band which is a processing target and in which a corresponding one of the optical signals is included, to calculate a frequency offset amount between a frequency of local light and a carrier frequency of the corresponding one of the optical signals, wherein said carrier frequency is a center frequency of the corresponding optical signal, and to calculate a carrier frequency interval that is a frequency interval between the frequency of the local light and a carrier frequency of an optical signal adjacent to the corresponding one of the optical signals; and a frequency control unit adapted to calculate an adjustment amount on a basis of the frequency offset amounts and the carrier frequency intervals calculated by each of the transceivers, and to transmit the calculated adjustment amount to an optical communication apparatus that is a source of the optical signals, the transmitted adjustment amount being intended to allow the source optical communication apparatus to adjust the carrier frequencies of the optical signals. a plurality of transceivers (2-1 to 2-4), each of the transceivers corresponding to a respective one of the plurality of optical signals and adapted to perform a reception process on a band which is a processing target and in which a corresponding one of the optical signals is included, to calculate a frequency offset amount between a frequency of local light and a carrier frequency of the corresponding one of the optical signals, wherein said carrier frequency is a center frequency of the corresponding optical signal, and to calculate a carrier frequency interval that is a frequency interval between the frequency of the local light and a carrier frequency of an optical signal adjacent to the corresponding one of the optical signals; and a frequency control unit adapted to calculate an adjustment amount on a basis of the frequency offset amounts and the carrier frequency intervals calculated by each of the transceivers, and to transmit the calculated adjustment amount to an optical communication apparatus that is a source of the optical signals, the transmitted adjustment amount being intended to allow the source optical communication apparatus to adjust the carrier frequencies of the optical signals.
A sensor electrode comprising: a base layer ; a plurality of electrically conductive members disposed on the base layer in an array, wherein: the array comprises at least 10 electrically conductive members ; the base layer comprises a plurality of indentations and the plurality of electrically conductive members are individually positioned within the plurality of indentations; the electrically conductive members each comprise an electroactive surface shaped as a circular disc and adapted to sense fluctuations in electrical current at the electroactive surface; and the array of electrically conductive members is coupled to a common electrical conduit so as to be electrically linked as a group. a base layer ; a plurality of electrically conductive members disposed on the base layer in an array, wherein: the array comprises at least 10 electrically conductive members ; the base layer comprises a plurality of indentations and the plurality of electrically conductive members are individually positioned within the plurality of indentations; the electrically conductive members each comprise an electroactive surface shaped as a circular disc and adapted to sense fluctuations in electrical current at the electroactive surface; and the array of electrically conductive members is coupled to a common electrical conduit so as to be electrically linked as a group. the array comprises at least 10 electrically conductive members ; the base layer comprises a plurality of indentations and the plurality of electrically conductive members are individually positioned within the plurality of indentations; the electrically conductive members each comprise an electroactive surface shaped as a circular disc and adapted to sense fluctuations in electrical current at the electroactive surface; and the array of electrically conductive members is coupled to a common electrical conduit so as to be electrically linked as a group.
A silicon carbide semiconductor device (101 to 103), comprising: a silicon carbide layer having a thickness direction, and having a first main surface (P1) and a second main surface (P2) opposite to said first main surface in said thickness direction, said silicon carbide layer including a first region forming said first main surface and having a first conductivity type, a second region provided on said first region and having a second conductivity type different from said first conductivity type, and a third region provided on said second region and having said first conductivity type, a trench (TR) having an inner surface being formed in said second main surface of said silicon carbide layer, said trench penetrating said second and third regions; a gate insulating film covering said inner surface of said trench; and a gate electrode filling at least a portion of said trench, characterised in that said inner surface of said trench has a first side wall (SW1) and a second side wall (SW2) located deeper than said first side wall and having a portion made of said second region, and inclination of said first side wall with respect to said second main surface is smaller than inclination of said second side wall with respect to said second main surface, and a bending point (K101, K103) between the first side wall (SW1) and the second side wall (SW2) on the inner surface of the trench (TR) is located at the boundary between the second and third regions or in the second region . a silicon carbide layer having a thickness direction, and having a first main surface (P1) and a second main surface (P2) opposite to said first main surface in said thickness direction, said silicon carbide layer including a first region forming said first main surface and having a first conductivity type, a second region provided on said first region and having a second conductivity type different from said first conductivity type, and a third region provided on said second region and having said first conductivity type, a trench (TR) having an inner surface being formed in said second main surface of said silicon carbide layer, said trench penetrating said second and third regions; a gate insulating film covering said inner surface of said trench; and a gate electrode filling at least a portion of said trench, characterised in that said inner surface of said trench has a first side wall (SW1) and a second side wall (SW2) located deeper than said first side wall and having a portion made of said second region, and inclination of said first side wall with respect to said second main surface is smaller than inclination of said second side wall with respect to said second main surface, and a bending point (K101, K103) between the first side wall (SW1) and the second side wall (SW2) on the inner surface of the trench (TR) is located at the boundary between the second and third regions or in the second region .
A method of manufacturing a preliminary formed body for an axisymmetrical component including a tapered portion and a flange portion projecting inward from a large-diameter portion of the tapered portion, the method comprising: an ironing step of forming a predetermined range (A) of a plate into a tapered shape in such a manner that while rotating the plate, a transform target portion of the plate is locally heated, and a processing tool is pressed against the transform target portion; and a thickening step of expanding inward a peripheral portion that is a distal end of the tapered shape of the plate in such a manner that while rotating the plate, the peripheral portion is locally heated, and a forming roller is pressed against the peripheral portion to push the peripheral portion in a direction orthogonal to a thickness direction of the peripheral portion. an ironing step of forming a predetermined range (A) of a plate into a tapered shape in such a manner that while rotating the plate, a transform target portion of the plate is locally heated, and a processing tool is pressed against the transform target portion; and a thickening step of expanding inward a peripheral portion that is a distal end of the tapered shape of the plate in such a manner that while rotating the plate, the peripheral portion is locally heated, and a forming roller is pressed against the peripheral portion to push the peripheral portion in a direction orthogonal to a thickness direction of the peripheral portion.
Thermal power plant for producing electricity or motive power, comprising at least one fuel or heat recovery boiler , at least one turbine, at least one main circuit for circulating a working fluid, at least one drum located in the boiler on said main circuit, at least one reheating module and at least one secondary circuit in which a reheating fluid circulates, wherein: - said main circuit comprises at least one initial stretch located in said at least one boiler , at least one first stretch for sending working fluid from said at least one boiler to a first set of at least one turbine section , and a second stretch for sending working fluid from said first set of at least one turbine section to a second set of at least one turbine section , and - said reheating module comprises at least one downstream heat exchanger located on the second stretch of the main circuit, where said secondary circuit comprises at least one upstream heat exchanger located in said boiler , the upstream heat exchanger enabling heat to be transferred from combustion fumes or recovery fluid to the reheating fluid circulating in the secondary circuit , said reheating fluid circulating in said secondary circuit between the upstream and downstream heat exchangers , characterized in that said plant is designed so that the reheating fluid can be, at the outlet of the upstream heat exchanger , at the nominal load point, at a pressure level at least ten bars higher than the pressure level at the nominal load point of the working fluid in said drum . - said main circuit comprises at least one initial stretch located in said at least one boiler , at least one first stretch for sending working fluid from said at least one boiler to a first set of at least one turbine section , and a second stretch for sending working fluid from said first set of at least one turbine section to a second set of at least one turbine section , and - said reheating module comprises at least one downstream heat exchanger located on the second stretch of the main circuit, where said secondary circuit comprises at least one upstream heat exchanger located in said boiler , the upstream heat exchanger enabling heat to be transferred from combustion fumes or recovery fluid to the reheating fluid circulating in the secondary circuit , said reheating fluid circulating in said secondary circuit between the upstream and downstream heat exchangers , characterized in that said plant is designed so that the reheating fluid can be, at the outlet of the upstream heat exchanger , at the nominal load point, at a pressure level at least ten bars higher than the pressure level at the nominal load point of the working fluid in said drum .
A method comprising: acquiring seismic data of a seismic survey of a region of the Earth that utilizes multiple seismic energy sources and seismic energy receivers wherein the seismic data comprise blended seismic data for a number of emissions from a corresponding number of the multiple seismic energy sources; determining spatially distributed coherent noise properties for the region using the blended seismic data; characterized in that via the spatially distributed coherent noise properties, modeling coherent noise as a coherent noise model for each emission from a selected number of the multiple seismic energy sources; blending the coherent noise models to model cross-talk noise using time delay information for the corresponding emissions; via the coherent noise models, attenuating coherent noise in at least a portion of the blended seismic data to generate coherent noise attenuated blended seismic data, wherein the attenuating comprises performing adaptive subtraction that subtracts the modeled cross-talk noise from a time window of the blended seismic data; deblending the coherent noise attenuated blended seismic data to generate deblended seismic data; and rendering an image of at least a portion of the region to a display using the deblended seismic data. acquiring seismic data of a seismic survey of a region of the Earth that utilizes multiple seismic energy sources and seismic energy receivers wherein the seismic data comprise blended seismic data for a number of emissions from a corresponding number of the multiple seismic energy sources; determining spatially distributed coherent noise properties for the region using the blended seismic data; characterized in that via the spatially distributed coherent noise properties, modeling coherent noise as a coherent noise model for each emission from a selected number of the multiple seismic energy sources; blending the coherent noise models to model cross-talk noise using time delay information for the corresponding emissions; via the coherent noise models, attenuating coherent noise in at least a portion of the blended seismic data to generate coherent noise attenuated blended seismic data, wherein the attenuating comprises performing adaptive subtraction that subtracts the modeled cross-talk noise from a time window of the blended seismic data; deblending the coherent noise attenuated blended seismic data to generate deblended seismic data; and rendering an image of at least a portion of the region to a display using the deblended seismic data.
Voltage divider assembly operable in a voltage-dividing sensor for sensing a voltage of a MV/HV power conductor in a power network of a national grid, the voltage divider assembly comprising a) a plurality of discrete impedance elements , electrically connected in series with each other such as to be operable as a cable side of the voltage-dividing sensor; characterised by : b) a cable connector for mechanical engagement with a cable plug at an end of a tap cable conducting the voltage of the power conductor to the voltage divider assembly, wherein the cable connector comprises a conductive portion, electrically connected with one discrete impedance element of the plurality of discrete impedance elements , and electrically connectable to the cable plug by engagement of the cable plug with the cable connector. a) a plurality of discrete impedance elements , electrically connected in series with each other such as to be operable as a cable side of the voltage-dividing sensor; characterised by : b) a cable connector for mechanical engagement with a cable plug at an end of a tap cable conducting the voltage of the power conductor to the voltage divider assembly,