mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preparing at least one generator comprising radium-228 from an aqueous solution A1 comprising thorium-232 and radium-228, the method comprising at least the following steps: a) circulating in a first chromatography column a volume V1 of the aqueous solution A1, the first chromatography column comprising a first stationary phase consisting of a solid material which selectively retains radium with respect to thorium; b) washing at least once the first stationary phase with an aqueous solution A2; c) eluting the radium-228 from the first stationary phase with a volume V3 of an aqueous solution A3 comprising an agent complexing radium-228, the volume V3 being between 0.005% and 1% of the volume V1 of the aqueous solution A1 having circulated in the first chromatography column, whereby an aqueous solution A4 which comprises radium-228 complexes is obtained; d) dissociating the radium-228 complexes present in the aqueous solution A4 by modifying the pH of the aqueous solution A4, whereby an aqueous solution A5 comprising the decomplexed radium-228 is obtained; e) loading a second chromatography column with the aqueous solution A5, the second chromatography column comprising a second stationary phase consisting of the same material as the first stationary phase; and f) washing at least once the second stationary phase with an aqueous solution A6, whereby said at least one generator is obtained. a) circulating in a first chromatography column a volume V1 of the aqueous solution A1, the first chromatography column comprising a first stationary phase consisting of a solid material which selectively retains radium with respect to thorium; b) washing at least once the first stationary phase with an aqueous solution A2; c) eluting the radium-228 from the first stationary phase with a volume V3 of an aqueous solution A3 comprising an agent complexing radium-228, the volume V3 being between 0.005% and 1% of the volume V1 of the aqueous solution A1 having circulated in the first chromatography column, whereby an aqueous solution A4 which comprises radium-228 complexes is obtained; d) dissociating the radium-228 complexes present in the aqueous solution A4 by modifying the pH of the aqueous solution A4, whereby an aqueous solution A5 comprising the decomplexed radium-228 is obtained; e) loading a second chromatography column with the aqueous solution A5, the second chromatography column comprising a second stationary phase consisting of the same material as the first stationary phase; and f) washing at least once the second stationary phase with an aqueous solution A6, whereby said at least one generator is obtained.
A device implemented method of operating a spreadsheet application to proactively discover remote micro-services as native functions of the spreadsheet application based on credential information, the method comprising: monitoring , by the spreadsheet application, for occurrence of a micro-service updating event, wherein the micro-service updating event is an event that triggers dynamic fetching or discovery of remote micro-services available to a user of the spreadsheet application; responsive to detecting , by the spreadsheet application, the micro-service updating event, identifying , by the spreadsheet application, credential information associated with the user of the spreadsheet application; generating a request for authentication including the credential information; sending the request for delivery to a cloud service platform ; receiving an access token when the request for authentication is authorized; generating and sending a request for available micro-services to the cloud service platform, the request for available micro-services including the access token; receiving a list including at least one micro-service; and supporting at least one micro-service of the list as a native function of the spreadsheet application. monitoring , by the spreadsheet application, for occurrence of a micro-service updating event, wherein the micro-service updating event is an event that triggers dynamic fetching or discovery of remote micro-services available to a user of the spreadsheet application; responsive to detecting , by the spreadsheet application, the micro-service updating event, identifying , by the spreadsheet application, credential information associated with the user of the spreadsheet application; generating a request for authentication including the credential information; sending the request for delivery to a cloud service platform ; receiving an access token when the request for authentication is authorized; generating and sending a request for available micro-services to the cloud service platform, the request for available micro-services including the access token; receiving a list including at least one micro-service; and supporting at least one micro-service of the list as a native function of the spreadsheet application.
A method for transferring, from a donor substrate to a carrier substrate , a thin layer having a first coefficient of thermal expansion, comprising the steps of: - forming an embrittlement plane (F) in the donor substrate ; - forming an electrically insulating layer on the surface of the donor substrate and/or of the carrier substrate; - producing an assembly by placing the donor substrate and the carrier substrate in contact with one another via the electrically insulating layer ; - separating the assembly by fracturing along the embrittlement plane; wherein forming the insulating layer comprises coating the donor substrate and/or the carrier substrate with a coating formulation including a composite material formed by a matrix made of a particle-filled preceramic polymer, the composite material having a second coefficient of thermal expansion, the second coefficient of thermal expansion differing from the first coefficient of thermal expansion by no more than 20 % of the first coefficient of thermal expansion. - forming an embrittlement plane (F) in the donor substrate ; - forming an electrically insulating layer on the surface of the donor substrate and/or of the carrier substrate; - producing an assembly by placing the donor substrate and the carrier substrate in contact with one another via the electrically insulating layer ; - separating the assembly by fracturing along the embrittlement plane; wherein forming the insulating layer comprises coating the donor substrate and/or the carrier substrate with a coating formulation including a composite material formed by a matrix made of a particle-filled preceramic polymer, the composite material having a second coefficient of thermal expansion, the second coefficient of thermal expansion differing from the first coefficient of thermal expansion by no more than 20 % of the first coefficient of thermal expansion.
A method of resource selection performed by a user equipment, UE, the method comprising: setting a resource selection window ; setting , a sensing window and monitoring slots by decoding a physical sidelink control channel, PSCCH, and measuring a reference signal received power, RSRP; setting a threshold; defining a set of a total number of resources based on the resource selection window ; excluding any restricted resources from the total number of resources based on the sensing window, wherein the UE identifies the resources within the resource selection window that are reserved by neighboring UEs by decoding Sidelink Control Information, SCI, within the sensing window; excluding any occupied resources from the total number of resources based on the threshold; determining (221 - 225) if an initial number of remaining resources is greater than or equal to an initial percentage of the total number of resources; and at least one iteration including: increasing the threshold, when the initial number of remaining resources is less than the initial percentage of the total number of resources, and redetermining if a subsequent number of remaining resources is greater than or equal to a subsequent percentage of the total number of resources, wherein the subsequent percentage varies for each iteration, wherein a factor by which the subsequent percentage changes depends on a ratio between aperiodic and periodic traffic. setting a resource selection window ; setting , a sensing window and monitoring slots by decoding a physical sidelink control channel, PSCCH, and measuring a reference signal received power, RSRP; setting a threshold; defining a set of a total number of resources based on the resource selection window ; excluding any restricted resources from the total number of resources based on the sensing window, wherein the UE identifies the resources within the resource selection window that are reserved by neighboring UEs by decoding Sidelink Control Information, SCI, within the sensing window; excluding any occupied resources from the total number of resources based on the threshold; determining (221 - 225) if an initial number of remaining resources is greater than or equal to an initial percentage of the total number of resources; and at least one iteration including: increasing the threshold, when the initial number of remaining resources is less than the initial percentage of the total number of resources, and redetermining if a subsequent number of remaining resources is greater than or equal to a subsequent percentage of the total number of resources, wherein the subsequent percentage varies for each iteration, wherein a factor by which the subsequent percentage changes depends on a ratio between aperiodic and periodic traffic.
Robot vacuum cleaner comprising: - a main body comprising a lower face which is configured to be oriented towards a surface to be cleaned, a suctioning opening opening into the lower face of the main body and extending transversally in a main movement direction (D) of the robot vacuum cleaner, and a receiving housing fluidically connected to the suctioning opening , - a rotary cleaning brush rotatably movably mounted in the receiving housing about an axis of rotation (A) which extends transversally in the main movement direction (D) of the robot vacuum cleaner , and - a first lateral cleaning element mounted on a front part of the main body and located in the vicinity of a first lateral edge (3.11) of the main body , the first lateral cleaning element comprising a first cleaning part which is flexible, wherein the first lateral cleaning element is fixed with respect to the main body , and in that the first cleaning part is configured to orient waste, which comes into contact with the first cleaning part when the robot vacuum cleaner moves in the main movement direction (D), towards the suctioning opening , characterised in that the first cleaning part has an inclination, with respect to the horizontal, which varies along the first cleaning part . - a main body comprising a lower face which is configured to be oriented towards a surface to be cleaned, a suctioning opening opening into the lower face of the main body and extending transversally in a main movement direction (D) of the robot vacuum cleaner, and a receiving housing fluidically connected to the suctioning opening , - a rotary cleaning brush rotatably movably mounted in the receiving housing about an axis of rotation (A) which extends transversally in the main movement direction (D) of the robot vacuum cleaner , and - a first lateral cleaning element mounted on a front part of the main body and located in the vicinity of a first lateral edge (3.11) of the main body , the first lateral cleaning element comprising a first cleaning part which is flexible, wherein the first lateral cleaning element is fixed with respect to the main body , and in that the first cleaning part is configured to orient waste, which comes into contact with the first cleaning part when the robot vacuum cleaner moves in the main movement direction (D), towards the suctioning opening ,
Adapter for attaching an object to a surface in a surrounding area , comprising: - a main body having a lower side , wherein the main body is configured such that the object can be fastened thereto, wherein a holder element for mounting the object is attached to the main body , and - a porous layer , bearing on the lower side of the main body , having an adhesive surface , facing away from the main body , for contacting an adhesive means , wherein the porous layer has a porosity which enables a transport of moisture from the surrounding area through said porous layer to the adhesive surface , characterized in that the main body , the porous layer , and the adhesive surface have a planar extent on account of which a sandwich adapter is provided by way of the adapter , said sandwich adapter by way of the main body , on the one hand, and the porous layer , on the other hand, being configured so as to be two-layered or in two parts, wherein the porous layer by way of the lateral surfaces thereof is in contact with the surrounding area , and the porous layer as a sintered layer is sintered directly onto the lower side of the main body , and the ratio of the thickness of the main body to the thickness of the porous layer is in a range from 10:1 to 1:1, and preferably between 8:1 and 2:1, and most preferably between 6:1 and 4:1, and wherein the holder element is fastened to the main body by means of a fastening element which engages only in the main body . - a main body having a lower side , wherein the main body is configured such that the object can be fastened thereto, wherein a holder element for mounting the object is attached to the main body , and - a porous layer , bearing on the lower side of the main body , having an adhesive surface , facing away from the main body , for contacting an adhesive means , wherein the porous layer has a porosity which enables a transport of moisture from the surrounding area through said porous layer to the adhesive surface , the main body , the porous layer , and the adhesive surface have a planar extent on account of which a sandwich adapter is provided by way of the adapter , said sandwich adapter by way of the main body , on the one hand, and the porous layer , on the other hand, being configured so as to be two-layered or in two parts, wherein the porous layer by way of the lateral surfaces thereof is in contact with the surrounding area , and the porous layer as a sintered layer is sintered directly onto the lower side of the main body , and the ratio of the thickness of the main body to the thickness of the porous layer is in a range from 10:1 to 1:1, and preferably between 8:1 and 2:1, and most preferably between 6:1 and 4:1, and wherein the holder element is fastened to the main body by means of a fastening element which engages only in the main body .
Method for detecting objects with or without an active signature in a fluid with the aid of a passive sonar, wherein a plurality of sonar-sound-emitting sonar emitters are positioned, wherein in a detector system the position of the object is determined at the receiver from the directly received signals and the signals reflected from the object to be detected, and wherein the determination of the position is performed taking account of the received signal strength and, derivable therefrom, the damping and signal route, characterized in that a plurality of sonar emitters are used together, wherein different frequencies are used for the purposes of distinguishing between the sonar emitters.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: detecting that an event related to extended discontinuous reception, eDRX, occurs, wherein the event related to eDRX is that an eDRX timer expires or an eDRX command informing stop of an eDRX is received; and transmitting an uplink message related to eDRX, which informs that the eDRX is stopped, to a network. detecting that an event related to extended discontinuous reception, eDRX, occurs, wherein the event related to eDRX is that an eDRX timer expires or an eDRX command informing stop of an eDRX is received; and transmitting an uplink message related to eDRX, which informs that the eDRX is stopped, to a network.
A power outage processing method implemented by a base station, the base station comprising a controller and M radio units, and the M radio units are supplied with power by N power sources, wherein each power source is connected to at least one radio unit, to supply power to the at least one radio unit; and the N power sources are all supplied with power by using a power grid, wherein M is an integer greater than or equal to 2, and N is a positive integer, the method comprising: receiving , by the controller, notification information sent by a first power source, wherein the notification information is used to indicate that a power outage has occurred on the first power source; the first power source is one of the N power sources; determining , by the controller based on connection relationships between the N power sources and the M radio units, a radio unit connected to the first power source, wherein the connection relationships are obtained by the controller; a connection relationship between a first device and a second device of the connection relationships is obtained by the first device, wherein the first device is one of the M radio units, and the second device is a power source that supplies power to the radio unit, or the first device is one of the N power sources, and the second device is a radio unit supplied with power by the power source; and the connection relationship is sent to the controller by the first device; and instructing , by the controller, all or some of radio units connected to the first power source to reduce power consumption based on the obtained connection relationships. receiving , by the controller, notification information sent by a first power source, wherein the notification information is used to indicate that a power outage has occurred on the first power source; the first power source is one of the N power sources; determining , by the controller based on connection relationships between the N power sources and the M radio units, a radio unit connected to the first power source, wherein the connection relationships are obtained by the controller; a connection relationship between a first device and a second device of the connection relationships is obtained by the first device, wherein the first device is one of the M radio units, and the second device is a power source that supplies power to the radio unit, or the first device is one of the N power sources, and the second device is a radio unit supplied with power by the power source; and the connection relationship is sent to the controller by the first device; and instructing , by the controller, all or some of radio units connected to the first power source to reduce power consumption based on the obtained connection relationships.
A waste fitting for a vertical waste outlet , the waste fitting including a waste pan means into which waste can flow, wherein the waste pan means is substantially wider than the opening of the waste outlet , characterised in that at least one part of the waste pan means includes at least one transparent part to allow visual inspection of the waste outlet therethrough, whereby, during installation, an opening of the waste outlet can be located by visual inspection through the at least one transparent part, enabling a suitable position to be determined for forming and or positioning of at least one aperture in the waste pan means substantially directly above the opening of the waste outlet such that, in use, waste that flows into the waste pan means can exit through the or each at least one aperture and fall directly into the opening of the waste outlet .
A combination of a component A and a component B, wherein: said component A is 2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide, or 2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimid-azo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide dihydrochloride; or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof; optionally in the form of a pharmaceutical formulation which is ready for use to be administered simultaneously, concurrently, separately or sequentially; and wherein: said component B is anti-Programmed Cell Death Protein 1 (also referred to as "PD-1" or "CD279" (cluster of differentiation 279)) antibody (anti-PD-1 mAb), which is pembrolizumab; optionally in the form of a pharmaceutical formulation which is ready for use to be administered simultaneously, concurrently, separately or sequentially. said component A is 2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide, or 2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimid-azo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide dihydrochloride; or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof; optionally in the form of a pharmaceutical formulation which is ready for use to be administered simultaneously, concurrently, separately or sequentially; and wherein: said component B is anti-Programmed Cell Death Protein 1 (also referred to as "PD-1" or "CD279" (cluster of differentiation 279)) antibody (anti-PD-1 mAb), which is pembrolizumab; optionally in the form of a pharmaceutical formulation which is ready for use to be administered simultaneously, concurrently, separately or sequentially. said component B is anti-Programmed Cell Death Protein 1 (also referred to as "PD-1" or "CD279" (cluster of differentiation 279)) antibody (anti-PD-1 mAb), which is pembrolizumab; optionally in the form of a pharmaceutical formulation which is ready for use to be administered simultaneously, concurrently, separately or sequentially.
Ionizing radiation detector comprising a substrate , a radiation sensitive material and metal Schottky junctions and contact terminals ( 4.1, 5.1 ) for making ohmic contacts with said Schottky junctions wherein a buffer layer is formed on the top surface of the substrate where a mesa structure ( 3, 3.h1, 3.h2 ) is formed on the top surface of the buffer layer parallel to the top surface of the substrate , where the top surface of the mesa structure ( 3, 3.h1, 3.h2 ) comprises an irradiance area and the detector further comprises an optical fiber, characterized in that the substrate is made of a dielectric, and in that the detector further comprises a first group of fibers comprising a first set of single mode optical fibers ( 6.1, ...6. N ) and a second group of fibers comprising a second set of single mode optical fibers ( 7.1 ,... 7 . N ), where the first ends of said fibers ( 6.1, ...6. N ; 7.1,...7. N ) are attached perpendicularly to the end-surfaces of the mesa structure ( 3, 3.h1 ) and the second ends of optical fibers are switched to optical signal recording multichannel devices and every fiber group consists of a set of N fibers.