mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a mono cell in which a sheet-like separator is disposed between a sheet-like positive electrode and a sheet-like negative electrode , said negative electrode being formed larger than said positive electrode , wherein the method comprises: bonding one surface of the separator to the negative electrode through adhesives disposed at a plurality of respective points on the negative electrode ; and bonding the other surface of the separator to the positive electrode through adhesives disposed at a plurality of respective points on the positive electrode , characterized in that when viewed in a lamination direction of the mono cell , the adhesives are disposed such that the adhesives of the negative electrode do not overlap the adhesives of the positive electrode , and the adhesives disposed at corresponding ones of peripheral edge portions of the negative electrode are positioned more on an outer side than the adhesives disposed at corresponding ones of peripheral edge portions of the positive electrode . bonding one surface of the separator to the negative electrode through adhesives disposed at a plurality of respective points on the negative electrode ; and bonding the other surface of the separator to the positive electrode through adhesives disposed at a plurality of respective points on the positive electrode , characterized in that when viewed in a lamination direction of the mono cell , the adhesives are disposed such that the adhesives of the negative electrode do not overlap the adhesives of the positive electrode , and the adhesives disposed at corresponding ones of peripheral edge portions of the negative electrode are positioned more on an outer side than the adhesives disposed at corresponding ones of peripheral edge portions of the positive electrode .
A method of monitoring a wake-up signal, WUS, in a wireless communication system, the method performed by a wireless device and comprising: monitoring the WUS based on a timing of a paging occasion, PO, wherein the WUS includes information expressed in a sequence; receiving the WUS; upon receiving the WUS, based on the sequence corresponding to a group of wireless devices to which the wireless device belongs, monitoring a physical downlink control channel, PDCCH, related to a reception of a paging message; and performing the reception of the paging message, wherein the WUS is mapped to resource elements, REs, and wherein, based on one or more of the REs for the WUS being used for cell-specific reference signals, CRSs, or narrowband reference signals, NRSs, the one or more of the REs are punctured. monitoring the WUS based on a timing of a paging occasion, PO, wherein the WUS includes information expressed in a sequence; receiving the WUS; upon receiving the WUS, based on the sequence corresponding to a group of wireless devices to which the wireless device belongs, monitoring a physical downlink control channel, PDCCH, related to a reception of a paging message; and performing the reception of the paging message, wherein the WUS is mapped to resource elements, REs, and wherein, based on one or more of the REs for the WUS being used for cell-specific reference signals, CRSs, or narrowband reference signals, NRSs, the one or more of the REs are punctured.
An apparatus for growing invertebrates, said apparatus comprising a rotatable casing defining a chamber and at least one growing platform inside said casing , wherein inside the casing there is a group of first pipes having a pipe wall, which first pipes are configured to act as growing platforms providing growing spaces for the invertebrates, which pipe walls of the first pipes have first openings for feeding nutrient inside the first pipe through the first openings , characterized in that inside at least one first pipe there is a second pipe , which second pipe has a pipe wall, which second pipe is configured to act as growing space for the invertebrates.
Spark-ignition reciprocating piston internal combustion engine with a prechamber ignition system which is arranged in a cylinder head of the reciprocating piston internal combustion engine and in which an ignition apparatus with an ignition electrode is arranged in a housing , which ignition electrode protrudes into a cavity of the prechamber ignition system , wherein the cavity is covered by a cover with respect to a combustion chamber of the reciprocating piston internal combustion engine, wherein the cover has at least one first aperture which connects the cavity and the combustion chamber to one another in a gas-conducting manner, wherein the metallic transfer strut which has at least one second aperture and connects opposite sides of the housing to one another is arranged in the cavity in the region of the ignition electrode , wherein the metallic transfer strut is made from a first metallic material in a central region , and is made from a second metallic material in a contact region with the housing , characterized in that the transverse strut is made from the same metallic material as the housing in the contact region .
A method for operating a device-to-device, D2D, enabled node , the method comprising controlling D2D transmit power of the D2D enabled node , wherein the controlling comprises: obtaining at least one D2D power related parameter; adapting the at least one D2D power related parameter, to control the D2D transmit power of the D2D enabled node , based on at least one power control rule; adapting at least one D2D transmit power configuration to meet the at least one power control rule, wherein the step of adapting the at least one D2D transmit power configuration comprises adapting a frequency position of at least one D2D signal, to be transmitted in a particular frequency band, with respect to a frequency band edge, and wherein the step of adapting the frequency position of the at least one D2D signal comprises allowing a higher D2D transmit power closer to a center of the particular frequency band and allowing a lower D2D transmit power closer to or at an edge of the frequency band edge; and using at least one of the adapted at least one D2D power related parameter and the adapted at least one D2D transmit power configuration to configure the D2D transmit power for the at least one D2D signal, wherein the at least one power control rule indicates that the configured D2D transmit power for the at least one D2D signal does not exceed a transmit power for cellular uplink transmission on a same carrier frequency and an offset. obtaining at least one D2D power related parameter; adapting the at least one D2D power related parameter, to control the D2D transmit power of the D2D enabled node , based on at least one power control rule; adapting at least one D2D transmit power configuration to meet the at least one power control rule, wherein the step of adapting the at least one D2D transmit power configuration comprises adapting a frequency position of at least one D2D signal, to be transmitted in a particular frequency band, with respect to a frequency band edge, and wherein the step of adapting the frequency position of the at least one D2D signal comprises allowing a higher D2D transmit power closer to a center of the particular frequency band and allowing a lower D2D transmit power closer to or at an edge of the frequency band edge; and using at least one of the adapted at least one D2D power related parameter and the adapted at least one D2D transmit power configuration to configure the D2D transmit power for the at least one D2D signal, wherein the at least one power control rule indicates that the configured D2D transmit power for the at least one D2D signal does not exceed a transmit power for cellular uplink transmission on a same carrier frequency and an offset.
A device comprising a first electrode provided at or in a source electrolyte , and at least one ion conductive channel , wherein said first electrolyte is arranged at a first portion of the ion conductive channel , and a second electrode provided in a target electrolyte , wherein said target electrolyte is arranged at a second portion of the ion conductive channel , and wherein said first and second electrodes provides an electrical control of an ion flow through the ion conductive channel c haracterized in that the device further comprises at least one controlled delivery electrode arranged adjacent to or in the second portion of the ion conductive channel , wherein said first and second electrodes further are arranged to provide an electrical control of an ion flow through the controlled delivery electrode to the target electrolyte , and wherein said controlled delivery electrode is adapted to deliver ions from said ion conductive channel to said target electrolyte , and wherein said controlled delivery electrode comprises an electronically and ionically conductive material , arranged between said target electrolyte and an electrical contact , wherein said controlled delivery electrode is arranged in ionic contact with, and between, said ion conductive channel and the target electrolyte , wherein said electrical contact provides for an electrical control potential (V CDE ) over the controlled delivery electrode to control an ion flow between the controlled delivery electrode and the target electrolyte , when a difference in potential is applied between the controlled delivery electrode and the second electrode , such that an internal state of the electronically and ionically conductive material is altered, and wherein a potential (V s ) is applied over said first electrode and said second electrode .
A merchandising fixture for presenting goods to be kept warm in an environment with elevated humidity, wherein the merchandising fixture comprises a heatable presentation plate arranged in a storeroom as well as humidifiers for providing an elevated humidity in the storeroom , and wherein the heatable presentation plate is arranged under a horizontally aligned access level , characterized in that a steam outlet of the humidifier arranged over a drip tray for leading a condensate before the steam exits is arranged above the presentation plate .
A method of estimating the amount of substrate vaporised by a heating element in an electronic cigarette during a smoking period, characterised in that it comprises: - a step (E30) of measuring an approximation (ΔU10 MES (t), U10 MES (t)) of a characteristic of the voltage (U10(t)) across the heating element during that smoking period, said approximation being measured across the terminals (B1, B2) of a circuit of which no component has intrinsic characteristics disturbed by the inhalations; - a step (E30) of estimating an approximation (ΔU10 TH (t), U10 TH (t)) of said characteristic of the voltage (U10(t)) across the heating element in the absence of inhalation during said smoking period; - a step (E50) of calculating an intensity (F) of inhalations during said smoking period from an integration of the difference between said approximations during said smoking period; and - a step (E60) of estimating said amount of substrate vaporised by the heating element at least from said intensity; method in which the characteristic of said voltage (U10(t)) at a given instant is, optionally (A), a variation (ΔU10(t)) of said voltage at that instant or, optionally (B), the voltage measured across a measuring resistor (R) connected in series with said heating element . - a step (E30) of measuring an approximation (ΔU10 MES (t), U10 MES (t)) of a characteristic of the voltage (U10(t)) across the heating element during that smoking period, said approximation being measured across the terminals (B1, B2) of a circuit of which no component has intrinsic characteristics disturbed by the inhalations; - a step (E30) of estimating an approximation (ΔU10 TH (t), U10 TH (t)) of said characteristic of the voltage (U10(t)) across the heating element in the absence of inhalation during said smoking period; - a step (E50) of calculating an intensity (F) of inhalations during said smoking period from an integration of the difference between said approximations during said smoking period; and - a step (E60) of estimating said amount of substrate vaporised by the heating element at least from said intensity;
A method of preparing a haemostatic composition, the method comprising the steps of: a) providing a dry thrombin composition in a first syringe; b) providing a paste comprising a biocompatible polymer selected from the group consisting of gelatine, collagen, chitin, chitosan, alginate, cellulose, oxidised cellulose, polyglycolic acid and polyacetic acid in a second syringe; c) connecting the first syringe and the second syringe using suitable connecting means; and d) mixing the contents of the syringes. a) providing a dry thrombin composition in a first syringe; b) providing a paste comprising a biocompatible polymer selected from the group consisting of gelatine, collagen, chitin, chitosan, alginate, cellulose, oxidised cellulose, polyglycolic acid and polyacetic acid in a second syringe; c) connecting the first syringe and the second syringe using suitable connecting means; and d) mixing the contents of the syringes.
A method for starting a physical device, wherein the physical device comprises N central processing units CPUs and at least one platform controller hub PCH, N is a positive integer greater than or equal to 2, each of the N CPUs is electrically connected to the at least one PCH, and the method comprises: determining that a fault occurs in a first CPU, wherein the first CPU is one of the N CPUs, and the first CPU is a primary CPU that is configured to start the physical device before a fault occurs in the first CPU; after determining that the fault occurs in the first CPU, determining a second CPU of the N CPUs as the primary CPU; and after determining the second CPU as the primary CPU, triggering the second CPU as the primary CPU and in cooperation with a first PCH, to start the physical device wherein the first PCH is electrically connected to the second CPU, and the first PCH is one of the at least one PCH; wherein an alternative CPU set comprises all CPUs of the N CPUs except the first CPU; and the determining a second CPU of the N CPUs as the primary CPU comprises: if the alternative CPU set comprises P CPUs, determining, from the P CPUs comprised in the alternative CPU set, one CPU as the second CPU, wherein P is a positive integer greater than 1. determining that a fault occurs in a first CPU, wherein the first CPU is one of the N CPUs, and the first CPU is a primary CPU that is configured to start the physical device before a fault occurs in the first CPU; after determining that the fault occurs in the first CPU, determining a second CPU of the N CPUs as the primary CPU; and after determining the second CPU as the primary CPU, triggering the second CPU as the primary CPU and in cooperation with a first PCH, to start the physical device wherein the first PCH is electrically connected to the second CPU, and the first PCH is one of the at least one PCH; wherein an alternative CPU set comprises all CPUs of the N CPUs except the first CPU; and the determining a second CPU of the N CPUs as the primary CPU comprises: if the alternative CPU set comprises P CPUs, determining, from the P CPUs comprised in the alternative CPU set, one CPU as the second CPU, wherein P is a positive integer greater than 1.
A wavelength conversion member configured to convert light with a specific wavelength to light with other wavelength, wherein the wavelength conversion member comprises: a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; the phosphor particles include two kinds of particles each having a designated particle size distribution; and the two kinds of particles are larger particles having a larger average particle size and smaller particles having a smaller average particle size wherein the ratio of the average particle size of the larger particles to the average particle size of the smaller particles is 2 to 4; characterized in that the ratio of the volume of the larger particles to the volume of the smaller particles is not less than 1.5 and not more than 5.7. the wavelength conversion member comprises: a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; the phosphor particles include two kinds of particles each having a designated particle size distribution; and the two kinds of particles are larger particles having a larger average particle size and smaller particles having a smaller average particle size wherein the ratio of the average particle size of the larger particles to the average particle size of the smaller particles is 2 to 4; characterized in that the ratio of the volume of the larger particles to the volume of the smaller particles is not less than 1.5 and not more than 5.7.
An access method by a base station, comprising: sending a first message to an access point through a first communication interface, for requesting the access point to establish a second bearer with a user equipment, UE, the second bearer being based on a second communication interface, wherein the first message carries an identifier of the UE and an identifier of an E-UTRAN Radio Access Bearer, E-RAB; receiving a response message from the access point, for responding to the first message, wherein the response message carries an ID of the second bearer; and establishing a first bearer with the access point, the first bearer being based on the first communication interface, wherein the first bearer and the second bearer correspond to the E-RAB and data is transmitted through the first bearer and the second bearer. sending a first message to an access point through a first communication interface, for requesting the access point to establish a second bearer with a user equipment, UE, the second bearer being based on a second communication interface, wherein the first message carries an identifier of the UE and an identifier of an E-UTRAN Radio Access Bearer, E-RAB; receiving a response message from the access point, for responding to the first message, wherein the response message carries an ID of the second bearer; and establishing a first bearer with the access point, the first bearer being based on the first communication interface, wherein the first bearer and the second bearer correspond to the E-RAB and data is transmitted through the first bearer and the second bearer.
Power plant for generating electrical energy and process steam comprising • a gas turbine for driving a first generator for generating electrical energy by burning a fuel to form flue gas , • a steam turbine for driving a second generator for generating electrical energy comprising a first stage for converting fresh steam to form residual steam , which represents at least a portion of the process steam , and • a heat recovery steam generator for producing the fresh steam from fresh water by means of waste heat of the flue gas , • wherein the residual steam has a residual steam pressure which is lower than a fresh steam pressure of the fresh steam , • wherein the heat recovery steam generator comprises a preheater for preheating the fresh water to form feed water and an evaporator for evaporating the feed water to form the fresh steam , and • wherein the feed water has a feed water pressure which is higher than the residual steam pressure, and • wherein a throttle valve is provided for depressurizing a portion of the feed water either to the residual steam pressure in order to generate an additional steam or to a drive steam pressure, which is lower than the residual steam pressure, in order to generate a drive steam for operating a second stage of the steam turbine . • a gas turbine for driving a first generator for generating electrical energy by burning a fuel to form flue gas , • a steam turbine for driving a second generator for generating electrical energy comprising a first stage for converting fresh steam to form residual steam , which represents at least a portion of the process steam , and • a heat recovery steam generator for producing the fresh steam from fresh water by means of waste heat of the flue gas , • wherein the residual steam has a residual steam pressure which is lower than a fresh steam pressure of the fresh steam , • wherein the heat recovery steam generator comprises a preheater for preheating the fresh water to form feed water and an evaporator for evaporating the feed water to form the fresh steam , and • wherein the feed water has a feed water pressure which is higher than the residual steam pressure, and • wherein a throttle valve is provided for depressurizing a portion of the feed water either to the residual steam pressure in order to generate an additional steam or to a drive steam pressure, which is lower than the residual steam pressure, in order to generate a drive steam for operating a second stage of the steam turbine .
A method for producing a corneal endothelial cell, the method comprising the step of sorting, from a cell population comprising a corneal endothelial cell, a cell in which at least one member selected from the group consisting of ZP4, MRGPRX3, GRIP1, GLP1R, HTR1D, and CLRN1 is expressed.