mhurhangee/ep-ind-claims huggingface dataset:
An embedded universal integrated circuit card eUICC profile management method, wherein the method comprises: when an operating system of the eUICC needs to be updated, setting, by a local profile assistant LPA, an operating system update flag, wherein the operating system update flag is used to identify that the eUICC is in an update status; obtaining, by the LPA, metadata of a first profile, wherein the metadata of the first profile is used to indicate status information of the first profile of the eUICC; sending, by the LPA, a profile obtaining request to a profile server, wherein the profile obtaining request comprises an eUICC identifier, a profile identifier, and the operating system update flag; receiving, by the LPA, the second profile sent by the profile server, and installing the second profile in the eUICC; configuring, by the LPA, metadata of the second profile based on the metadata of the first profile; and activating, by the LPA, the second profile based on the metadata of the second profile, wherein the configuring, by the LPA, metadata of the second profile based on the metadata of the first profile comprises: replacing, by the LPA, the metadata of the second profile with the metadata of the first profile; or when field content of the metadata of the first profile is different from field content of the metadata of the second profile, replacing, by the LPA, the field content of the second profile with the field content of the first profile. when an operating system of the eUICC needs to be updated, setting, by a local profile assistant LPA, an operating system update flag, wherein the operating system update flag is used to identify that the eUICC is in an update status; obtaining, by the LPA, metadata of a first profile, wherein the metadata of the first profile is used to indicate status information of the first profile of the eUICC; sending, by the LPA, a profile obtaining request to a profile server, wherein the profile obtaining request comprises an eUICC identifier, a profile identifier, and the operating system update flag; receiving, by the LPA, the second profile sent by the profile server, and installing the second profile in the eUICC; configuring, by the LPA, metadata of the second profile based on the metadata of the first profile; and activating, by the LPA, the second profile based on the metadata of the second profile, wherein the configuring, by the LPA, metadata of the second profile based on the metadata of the first profile comprises: replacing, by the LPA, the metadata of the second profile with the metadata of the first profile; or when field content of the metadata of the first profile is different from field content of the metadata of the second profile, replacing, by the LPA, the field content of the second profile with the field content of the first profile. replacing, by the LPA, the metadata of the second profile with the metadata of the first profile; or when field content of the metadata of the first profile is different from field content of the metadata of the second profile, replacing, by the LPA, the field content of the second profile with the field content of the first profile.
A polymer-ion-permeable membrane which has a puncture strength of 1.2 to 3.0 N/μm per unit thickness, and a membrane resistance of 3.0 to 100.0 Ω·cm 2 at 25°C, the puncture strength and the membrane resistance being measured by methods set out in the description, wherein the polymer-ion-permeable membrane comprises a polymer having a structure of the following chemical formula: chemical formula: [Chemical Formula 1] (̵NH-Ar 1 -NHCO-Ar 2 -CO)̵ wherein 25 to 100 mol% of the total of all of the groups of Ar 1 and Ar 2 in the chemical formula is constituted by at least one selected from groups represented by the following chemical formulae to: chemical formulae to: (the double broken line in the chemical formulae to represents one or two bond(s)).
A continuous solvent phase inversion spinning process for preparing a porous hollow fiber membrane having a sponge-like structure; the membrane having a mean flow pore size, determined by porometry, which is larger than 0.2 μm; the membrane comprising polyethersulfone and polyvinylpyrrolidone; the membrane having an inner diameter of from 2,300 to 4,000 μm and a wall strength of from 150 to 500 μm; and the ratio of inner diameter to wall strength being larger than 10, the process comprising the steps of a) dissolving at least one polyethersulfone, at least one polyvinylpyrrolidone, and, optionally, a polymer bearing cationic charges, in N-methyl-2-pyrrolidone to form a polymer solution; b) extruding the polymer solution through an outer ring slit of a nozzle with two concentric openings into a precipitation bath; simultaneously c) extruding a center fluid through the inner opening of the nozzle; d) washing the membrane obtained; subsequently e) drying the membrane; and f) sterilizing the membrane with steam or gamma radiation subsequently to drying; wherein the polymer solution comprises from 15 to 20 wt%, relative to the total weight of the polymer solution, of polyethersulfone, and from 10 to 15 wt%, relative to the total weight of the polymer solution, of polyvinylpyrrolidone, wherein the center fluid comprises 35 to 50 wt% of water and 50 to 65 wt% of NMP, relative to the total weight of the center fluid, and wherein the precipitation bath is comprised of water and has a temperature in the range of from 80 to 99°C. a) dissolving at least one polyethersulfone, at least one polyvinylpyrrolidone, and, optionally, a polymer bearing cationic charges, in N-methyl-2-pyrrolidone to form a polymer solution; b) extruding the polymer solution through an outer ring slit of a nozzle with two concentric openings into a precipitation bath; simultaneously c) extruding a center fluid through the inner opening of the nozzle; d) washing the membrane obtained; subsequently e) drying the membrane; and f) sterilizing the membrane with steam or gamma radiation subsequently to drying;
An apparatus comprising: a substrate having a recess; a multitude of particles, arranged in the recess, joined to a porous structure (22; 22a, 22b) by means of a coating, the porous structure (22; 22a, 22b) being immovably joined to the substrate; and a heating element (28; 32; 32a-f) configured to heat the multitude of particles; wherein the apparatus includes a heating body spaced apart from the substrate by the multitude of particles, wherein the heating element (28; 32; 32a-f) is arranged at the heating body and is configured to heat the heating body so that the heating body heats the multitude of particles, wherein the heating body is an island structure enclosed by the particles of the porous structure (22; 22a; 22b). a substrate having a recess; a multitude of particles, arranged in the recess, joined to a porous structure (22; 22a, 22b) by means of a coating, the porous structure (22; 22a, 22b) being immovably joined to the substrate; and a heating element (28; 32; 32a-f) configured to heat the multitude of particles; wherein the apparatus includes a heating body spaced apart from the substrate by the multitude of particles, wherein the heating element (28; 32; 32a-f) is arranged at the heating body and is configured to heat the heating body so that the heating body heats the multitude of particles, wherein the heating body is an island structure enclosed by the particles of the porous structure (22; 22a; 22b).
Vaporiser comprising a plurality of U-shaped tubes held in a vessel, each tube having two ends, the tubes being arranged in at least one plane, the vessel being closed on one side by a plate having as many openings as there are tube ends, the openings including top openings and bottom openings, each tube being linked by a top end to a top opening of the plate and by a bottom end to a bottom opening of the plate, a dome covering the plate on the side opposite that of the tubes, the dome being delimited by a wall orthogonal to the plane of the tubes so as to form an intake chamber and an exhaust chamber such that the intake chamber is divided into two parts by a partition perpendicular to the plane of the tubes and to the wall so as to form a liquid inlet chamber between the plate and the partition and an auxiliary chamber on the other side of the partition, the liquid inlet originating from outside the vaporiser which opens into the inlet chamber and characterised in that the auxiliary chamber is arranged to receive only liquid originating from the inlet chamber so that the liquid originating from the outside arriving in the inlet chamber only flows through the tubes through the bottom openings.
Method for producing an electronic component, in particular for use as a sensor, comprising the following steps: a) providing a basic material; b) arranging a sacrificial layer composed of a thermally decomposable material, said sacrificial layer having a predetermined thickness, on a sensor element (40, 105); c) applying a connection material at least in sections on the basic material with a predefined thickness, wherein the connection material fixes the structure consisting of sacrificial layer and sensor element (40, 105) on the basic material; d) laterally applying a damping material at least in sections to the structure consisting of sacrificial layer and sensor element, proceeding from the basic material up to at least a predetermined height of the sensor element; and e) removing the sacrificial layer by means of thermal decomposition, as a result of which the sensor element (40, 105) is separated from the basic material after the sacrificial layer has been removed, and the sensor element has a vibration-and thermo-mechanical decoupling from the basic material with the aid of the damping material. a) providing a basic material; b) arranging a sacrificial layer composed of a thermally decomposable material, said sacrificial layer having a predetermined thickness, on a sensor element (40, 105); c) applying a connection material at least in sections on the basic material with a predefined thickness, wherein the connection material fixes the structure consisting of sacrificial layer and sensor element (40, 105) on the basic material; d) laterally applying a damping material at least in sections to the structure consisting of sacrificial layer and sensor element, proceeding from the basic material up to at least a predetermined height of the sensor element; and e) removing the sacrificial layer by means of thermal decomposition, as a result of which the sensor element (40, 105) is separated from the basic material after the sacrificial layer has been removed, and the sensor element has a vibration-and thermo-mechanical decoupling from the basic material with the aid of the damping material.
A method for receiving system information from a base station, BS, in a mobile station, MS, in a mobile communication system, comprising: receiving modification time information, the modification time information is associated with transmission of updated system information; receiving at least one of a master information block, MIB, value tag and a system information block, SIB, value tag; receiving (700, 1000) current system information; when an error is detected in the received current system information, combining (735, 1040) the received current system information with previously received system information, if modification time is elapsed and the MIB value tag indicates that a change occurred in system information. receiving modification time information, the modification time information is associated with transmission of updated system information; receiving at least one of a master information block, MIB, value tag and a system information block, SIB, value tag; receiving (700, 1000) current system information; when an error is detected in the received current system information, combining (735, 1040) the received current system information with previously received system information, if modification time is elapsed and the MIB value tag indicates that a change occurred in system information.
A fiber comprising a thermoplastic polymer composition that comprises: a block copolymer comprising at least one polymer block comprising a unit of an aromatic vinyl compound and at least one polymer block comprising a unit of a conjugated diene compound; a polyvinyl acetal resin; and a compatibilizing agent, an amount of the compatibilizing agent being 5 to 100 parts by mass per 100 parts by mass of the block copolymer. a block copolymer comprising at least one polymer block comprising a unit of an aromatic vinyl compound and at least one polymer block comprising a unit of a conjugated diene compound; a polyvinyl acetal resin; and a compatibilizing agent, an amount of the compatibilizing agent being 5 to 100 parts by mass per 100 parts by mass of the block copolymer.
Use of a separation fluid for separating multilayer systems comprising at least a metal layer and a polymer layer (20, 40), the separation fluid comprising a mixture of water, a water miscible C1-C4 monocarboxylic acid, phosphoric acid and an alkali metal hydroxide.
A cartridge for detecting a target analyte, the cartridge comprising: A) a bottom substrate; B) a top plate; C) a liquid reagent module comprising a plurality of blisters, wherein the blisters are made of a deformable material; and D) an external housing adapted to keep the bottom substrate, the top plate and the liquid reagent module together, wherein the external housing is adapted to provide physical access to parts of the liquid reagent module. A) a bottom substrate; B) a top plate; C) a liquid reagent module comprising a plurality of blisters, wherein the blisters are made of a deformable material; and D) an external housing adapted to keep the bottom substrate, the top plate and the liquid reagent module together, wherein the external housing is adapted to provide physical access to parts of the liquid reagent module.
A composition comprising a urea-formaldehyde concentrate, N-(n-butyl)thiophosphoric triamide (NBPT), and one or more adducts of NBPT, wherein the one or more adducts of NBPT are: Adduct 4 and, optionally, one or more of the following:
A pack for smoking articles comprising a front wall and a rear wall connected by opposing side walls (15, 16), the pack comprising a box portion having an open end and a lid hingedly connected to the box portion along a hinge line on the rear wall of the pack and moveable to selectively open or close the open end, the lid including a front wall, a top wall, a rear wall and first and second opposing side walls (15b, 16b), characterised in that at least a portion of the lower edge of the lid front wall extends horizontally and parallel to the hinge line, and wherein an angle (ø 1) between the rear wall and a mitre defined where the lower edge of the first lid side wall abuts the box upper edge on a first side wall of the pack is greater than a corresponding angle (ø 2) between the rear wall and a corresponding mitre defined where the lower edge of the second lid side wall abuts the box upper edge on a second, opposite side wall of the pack.
A control circuit for controlling a power converter, the power converter comprising: - an input for receiving first voltage and current signals or rectified versions thereof supplied by an electronic transformer for halogen lamps, - an output for supplying second voltage and current signals to a light emitting diode circuit; the control circuit comprising: - a detector for detecting an amplitude of at least one of the first voltage and current signals; - a controller for in response to a detection result from the detector bringing the power converter into different modes, the first current signal in the different modes having different amplitudes, the different amplitudes comprising different constant values or different shapes; wherein the controller is arranged to, during each operation half cycle of the electronic transformer: - deactivate and activate the power converter alternatively, or - change a behavior of the power converter for realizing the different modes. - an input for receiving first voltage and current signals or rectified versions thereof supplied by an electronic transformer for halogen lamps, - an output for supplying second voltage and current signals to a light emitting diode circuit; - a detector for detecting an amplitude of at least one of the first voltage and current signals; - a controller for in response to a detection result from the detector bringing the power converter into different modes, the first current signal in the different modes having different amplitudes, the different amplitudes comprising different constant values or different shapes; - deactivate and activate the power converter alternatively, or - change a behavior of the power converter for realizing the different modes.
A method of imaging a printing plate with imaging data and curing the printing plate made of or having photo-curable material thereon, the photo-curable material including an ablatable mask thereon, the method comprising: imaging the ablatable mask on the printing plate with a first portion of imaging data to produce a partially imaged uncured plate, the imaging data comprising the first portion of imaging data and a second portion of imaging data; curing the partially imaged uncured plate using light energy at a wavelength or wavelengths suitable for curing the photo-curable material with a first set of one or more curing parameters to produce a partially cured plate with a partially ablated mask thereon, the curing providing total energy per unit time per unit area arranged for producing flat top features of a first kind; imaging the partially ablated mask on the partially cured plate with the second portion of imaging data to produce a totally imaged partially cured plate; curing the totally imaged partially cured plate with a second set of one or more curing parameters to produce a totally cured plate, the curing providing total energy per unit time per unit area arranged for producing features of a second kind, wherein the first set of imaging parameters and the second set of imaging parameters are arranged such that the first portion of imaging data has printing features with flat tops on the totally cured plate and the second portion of imaging data has printing features with round tops on the totally cured plate, and wherein the curing uses UV light, and the first and second sets of curing parameters differ in at least one of UV irradiance, UV power, UV exposure time, and, in the case there is periodic repeating exposure of any part of the plate, the period of repetition. imaging the ablatable mask on the printing plate with a first portion of imaging data to produce a partially imaged uncured plate, the imaging data comprising the first portion of imaging data and a second portion of imaging data; curing the partially imaged uncured plate using light energy at a wavelength or wavelengths suitable for curing the photo-curable material with a first set of one or more curing parameters to produce a partially cured plate with a partially ablated mask thereon, the curing providing total energy per unit time per unit area arranged for producing flat top features of a first kind; imaging the partially ablated mask on the partially cured plate with the second portion of imaging data to produce a totally imaged partially cured plate; curing the totally imaged partially cured plate with a second set of one or more curing parameters to produce a totally cured plate, the curing providing total energy per unit time per unit area arranged for producing features of a second kind,
A shunt regulation device for implantation into a body, comprising a) an electrically driven tube pinch valve, b) electrical driving means for electrically driving the tube pinch valve c) at least one first battery electrically connected to the electrical driving means for supplying the electrical driving means with electrical energy, d) a first control unit electrically connected to the electrical driving means and configured to control the supply of electrical energy to the electrical driving means, e) a first wireless receiving unit electrically connected to the first control unit and being configured to receive an external wireless signal, and f) a closed first housing, part of the first housing comprising or forming at least part of a passage opening for receiving a flexible shunt tube or a body vessel, wherein - at least the electrical driving means for electrically driving the tube pinch valve is arranged in the closed first housing, - the at least one battery and the first control unit are arranged, together with the electrical driving means, in the first housing, or are arranged together in a second housing, - the tube pinch valve is configured in manner that the pinch valve is able to pinch a flexible shunt tube or body vessel when arranged in the passage opening, and - the tube pinch valve is adjustable from outside the body via the external wireless signal. a) an electrically driven tube pinch valve, b) electrical driving means for electrically driving the tube pinch valve c) at least one first battery electrically connected to the electrical driving means for supplying the electrical driving means with electrical energy, d) a first control unit electrically connected to the electrical driving means and configured to control the supply of electrical energy to the electrical driving means, e) a first wireless receiving unit electrically connected to the first control unit and being configured to receive an external wireless signal, and f) a closed first housing, part of the first housing comprising or forming at least part of a passage opening for receiving a flexible shunt tube or a body vessel, - at least the electrical driving means for electrically driving the tube pinch valve is arranged in the closed first housing, - the at least one battery and the first control unit are arranged, together with the electrical driving means, in the first housing, or are arranged together in a second housing, - the tube pinch valve is configured in manner that the pinch valve is able to pinch a flexible shunt tube or body vessel when arranged in the passage opening, and - the tube pinch valve is adjustable from outside the body via the external wireless signal.