mhurhangee/ep-ind-claims huggingface dataset:
Method for allocating to a user (Ut; Ut') a mailbox (BM j; BM j ') located in a communication network, which implements the following actions in a mailbox management device: - receiving (S1; S1') from a communication terminal, via the communication network, a mailbox application request, said request comprising user identification information, said identification information differing from a contact identifier of the user that can be reached on a communication network of a telecommunications operator to which the user subscribes, said user identification information contained in the request being an identifier (IDP') of a service provider that owns said communication terminal and an identifier (IDU t ') of the user, the user being a customer of the service provider, - recording (S2; S2') said received identification information in association with a mailbox identifier (IDM j; IDM j '), - sending (S3; S3') a response message in reply to the request, via the communication network, to the communication terminal, said message comprising the mailbox identifier. - receiving (S1; S1') from a communication terminal, via the communication network, a mailbox application request, said request comprising user identification information, said identification information differing from a contact identifier of the user that can be reached on a communication network of a telecommunications operator to which the user subscribes, said user identification information contained in the request being an identifier (IDP') of a service provider that owns said communication terminal and an identifier (IDU t ') of the user, the user being a customer of the service provider, - recording (S2; S2') said received identification information in association with a mailbox identifier (IDM j; IDM j '), - sending (S3; S3') a response message in reply to the request, via the communication network, to the communication terminal, said message comprising the mailbox identifier.
A method of controlling an ion implanter having a plasma power supply and a substrate power supply, the substrate power supply comprising: • an electricity generator having its positive pole connected to ground; • a first switch having its first pole connected to the negative pole of said generator and having its second pole connected to the output terminal of said substrate power supply; and • a second switch having its first pole connected to said output terminal and having its second pole connected to a neutralization terminal; the method including an implantation stage (A-D) during which: • said plasma power supply is activated; • said first switch is closed; and • said second switch is opened; the method also including a neutralization stage during which: • said first switch is opened; and • said second switch is closed; the method being characterized in that it also includes a relaxation stage (C-F) that overlaps said implantation stage and said neutralization stage, in which relaxation stage said plasma power supply is inactivated; and in that said neutralization stage includes a preliminary step (E-F) for closing said second switch, said preliminary step being followed by a cancellation step (F-G) for activating said plasma power supply. • an electricity generator having its positive pole connected to ground; • a first switch having its first pole connected to the negative pole of said generator and having its second pole connected to the output terminal of said substrate power supply; and • a second switch having its first pole connected to said output terminal and having its second pole connected to a neutralization terminal; • said plasma power supply is activated; • said first switch is closed; and • said second switch is opened; • said first switch is opened; and • said second switch is closed;
A flexible medical endoscope valve holder for use during processing and conditioning of a flexible medical endoscope, said holder being adapted to hold two or more flexible medical endoscope valves, and comprising: - a tray portion, having perforations to permit the flow of water or other cleaning fluids therethrough; - two or more retaining means associated with the tray portion and each adapted to engage with and hold a flexible medical endoscope valve such that, once engaged, said valve cannot be disengaged without breaking the holder, thereby rendering said holder suitable only for single use, and wherein at least one said retaining means comprises a recess formed in the tray portion, each said recess being adapted to receive a flexible medical endoscope valve; and - securing means provided on the tray portion to enable said holder to be secured to a flexible medical endoscope with which said valve is associated, during processing thereof. - a tray portion, having perforations to permit the flow of water or other cleaning fluids therethrough; - two or more retaining means associated with the tray portion and each adapted to engage with and hold a flexible medical endoscope valve such that, once engaged, said valve cannot be disengaged without breaking the holder, thereby rendering said holder suitable only for single use, and wherein at least one said retaining means comprises a recess formed in the tray portion, each said recess being adapted to receive a flexible medical endoscope valve; and - securing means provided on the tray portion to enable said holder to be secured to a flexible medical endoscope with which said valve is associated, during processing thereof.
A method of forming a metallic material on a receptor (200; 310) comprising the steps of: placing a donor element (100; 120; 130; 140; 230; 300) proximate a receptor (200; 310), wherein the donor element (100; 120; 130; 140; 230; 300) comprises a donor substrate (102; 122; 132; 142; 232; 302) and a thermal transfer layer (104; 124; 134; 144; 234; 304), wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) comprises a catalytic material, and wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) of the donor element (100; 120; 130; 140; 230; 300) is placed proximate the surface of the receptor (200; 310); transferring at least a portion of the thermal transfer layer (104; 124; 134; 144; 234; 304) from the donor element (100; 120; 130; 140; 230; 300) to the receptor (200; 310), wherein the transfer is carried out using a laser; and electrolessly depositing a metallic material on the receptor (200; 310) by growth of the metallic material on the catalytic material; wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) further comprises a polymeric binder and the method further comprises the step of crosslinking the polymeric binder, wherein the step of crosslinking is accomplished after the thermal transfer layer (104; 124; 134; 144; 234; 304) is selectively transferred from the donor element (100; 120; 130; 140; 230; 300) to the receptor (200; 310). placing a donor element (100; 120; 130; 140; 230; 300) proximate a receptor (200; 310), wherein the donor element (100; 120; 130; 140; 230; 300) comprises a donor substrate (102; 122; 132; 142; 232; 302) and a thermal transfer layer (104; 124; 134; 144; 234; 304), wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) comprises a catalytic material, and wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) of the donor element (100; 120; 130; 140; 230; 300) is placed proximate the surface of the receptor (200; 310); transferring at least a portion of the thermal transfer layer (104; 124; 134; 144; 234; 304) from the donor element (100; 120; 130; 140; 230; 300) to the receptor (200; 310), wherein the transfer is carried out using a laser; and electrolessly depositing a metallic material on the receptor (200; 310) by growth of the metallic material on the catalytic material; wherein the thermal transfer layer (104; 124; 134; 144; 234; 304) further comprises a polymeric binder and the method further comprises the step of crosslinking the polymeric binder, wherein the step of crosslinking is accomplished after the thermal transfer layer (104; 124; 134; 144; 234; 304) is selectively transferred from the donor element (100; 120; 130; 140; 230; 300) to the receptor (200; 310).
Rail vehicle having an inner tank (2, 3) and a tank closure, wherein there is provided on a base of the tank (2, 3) a connection opening into which the tank closure can be inserted from the outer side of the tank (2, 3), characterized in that the tank closure is fitted to an inner side of an unfoldable, sack-like container and an edge of the sack-like container is releasably connected to a shaft which is located below the tank (2, 3) in the base of the rail vehicle.
An artificial electromagnetic material, comprising at least one material sheet layer, each material sheet layer being provided with a first substrate and a second substrate which are oppositely arranged, and a plurality of artificial microstructures being attached on a surface of the first substrate, wherein the surface of the first substrate is faced with the second substrate; wherein the plurality of artificial microstructures are metal filaments arranged into geometric patterns, and each of the artificial microstructures comprise two I-shaped structures (320a,320b) which are different in dimensions and non-intersecting, wherein each I-shaped structure comprises a linear first metal filament and two second metal filaments vertically connected to both ends of the filament respectively.
A battery module, which allows a swelling amount of battery cells accommodated in a module housing to be intuitionally checked, the battery module comprising: a cell pressing plate accommodated in the module housing and disposed on at least one of both longitudinal side surfaces of a cell stack that is formed by stacking the battery cells; characterized by a swelling gauge provided to protrude from a surface of the cell pressing plate, and a gauge hole formed in the module housing, wherein a front end of the swelling gauge is pushed out of the module housing through the gauge hole by the swelling pressure of the battery cells, wherein the swelling gauge is provided with a scale arranged on a surface thereof and extending in the pushing direction of the swelling gauge. a cell pressing plate accommodated in the module housing and disposed on at least one of both longitudinal side surfaces of a cell stack that is formed by stacking the battery cells; characterized by a swelling gauge provided to protrude from a surface of the cell pressing plate, and a gauge hole formed in the module housing, wherein a front end of the swelling gauge is pushed out of the module housing through the gauge hole by the swelling pressure of the battery cells, wherein the swelling gauge is provided with a scale arranged on a surface thereof and extending in the pushing direction of the swelling gauge.
A successive cancellation list, SCL, decoding method of polar code encoded data, wherein received data corresponds to P groups of to-be-decoded bits, wherein each group of to-be-decoded bits includes m bits and where m>1, and the method comprises: obtaining L 1 first decoding paths of an (i-1) th group of to-be-decoded bits, wherein i is an integer, and P is an integer greater than 1, 1<i≤P; determining a quantity of second decoding path corresponding to each first decoding path, wherein in the L 1 first decoding paths, a quantity of second decoding paths corresponding to at least one first decoding path is different from a quantity of second decoding paths corresponding to another first decoding path, and wherein the quantity of second decoding paths corresponding to each first decoding path is less than 2 n, wherein n is a quantity of information bits comprised in an i th group of to-be-decoded bits; and determining at least one reserved decoding path of the i th group of to-be-decoded bits in second decoding paths corresponding to the L 1 first decoding paths, wherein the at least one reserved decoding path comprises a decoding result of the i th group of to-be-decoded bits characterised in that L 1 = 32, n ≤ 4, and in the 32 first decoding paths, a quantity of second decoding paths corresponding to each of four first decoding paths is 4, a quantity of second decoding paths corresponding to each of 20 first decoding paths is 2, and a quantity of second decoding paths corresponding to each of eight first decoding paths is 1. obtaining L 1 first decoding paths of an (i-1) th group of to-be-decoded bits, wherein i is an integer, and P is an integer greater than 1, 1<i≤P; determining a quantity of second decoding path corresponding to each first decoding path, wherein in the L 1 first decoding paths, a quantity of second decoding paths corresponding to at least one first decoding path is different from a quantity of second decoding paths corresponding to another first decoding path, and wherein the quantity of second decoding paths corresponding to each first decoding path is less than 2 n, wherein n is a quantity of information bits comprised in an i th group of to-be-decoded bits; and determining at least one reserved decoding path of the i th group of to-be-decoded bits in second decoding paths corresponding to the L 1 first decoding paths, wherein the at least one reserved decoding path comprises a decoding result of the i th group of to-be-decoded bits characterised in that L 1 = 32, n ≤ 4, and in the 32 first decoding paths, a quantity of second decoding paths corresponding to each of four first decoding paths is 4, a quantity of second decoding paths corresponding to each of 20 first decoding paths is 2, and a quantity of second decoding paths corresponding to each of eight first decoding paths is 1.
A method for improving the flavor stability of a fermented beverage produced from wort, the method comprising: boiling a wort; adding an antioxidant to the wort before or during boiling the wort in an amount effective to stabilize flavor; and thereafter fermenting the wort to prepare a fermented malt beverage having a stable flavor, wherein the fermented beverage is beer, and wherein the antioxidant is obtained from olive oil, extracts of olive leaves, olive fruits, or vegetation water of olive oil production. boiling a wort; adding an antioxidant to the wort before or during boiling the wort in an amount effective to stabilize flavor; and thereafter fermenting the wort to prepare a fermented malt beverage having a stable flavor, wherein the fermented beverage is beer, and wherein the antioxidant is obtained from olive oil, extracts of olive leaves, olive fruits, or vegetation water of olive oil production.
A processor-implemented method of determining a corrected orientation of a gyroscope on an electronic device, the method comprising: obtaining a gyroscope reading; determining a first orientation estimate based on the gyroscope reading and a past corrected orientation; determining whether the gyroscope was saturated when the gyroscope reading was obtained; adjusting a saturation correction learning rate for the gyroscope based on the result of the determination of whether the gyroscope was saturated, wherein the saturation correction learning rate for the gyroscope controls how quickly the electronic device corrects the first orientation estimate; determining a second orientation estimate based on information from one or more other sensors; and determining a corrected orientation based on the first orientation estimate, the second orientation estimate and the adjusted saturation correction learning rate for the gyroscope. obtaining a gyroscope reading; determining a first orientation estimate based on the gyroscope reading and a past corrected orientation; determining whether the gyroscope was saturated when the gyroscope reading was obtained; adjusting a saturation correction learning rate for the gyroscope based on the result of the determination of whether the gyroscope was saturated, wherein the saturation correction learning rate for the gyroscope controls how quickly the electronic device corrects the first orientation estimate; determining a second orientation estimate based on information from one or more other sensors; and determining a corrected orientation based on the first orientation estimate, the second orientation estimate and the adjusted saturation correction learning rate for the gyroscope.
A current sensor comprising: a plurality of core members (104a, 104b) which form a converging path of a magnetic field generated by continuity of a current to be sensed by providing gaps in respective spaces between end surfaces facing each other in a plurality of sections to be disposed in an annular shape; and a case body which disposes and houses the plurality of core members (104a, 104b) in an annular shape, characterized in that the current sensor comprises a positioning member which positions the plurality of core members (104a, 104b) in predetermined positions where the gaps are held in a specified distance by pressing the plurality of core members (104a, 104b) oneach other in directions facing each other by restoring force in directions opposite to elastic deformation of portions brought into contact with the plurality of core members (104a, 104b) by being inserted into the case body, and elastically deformed by the contact.
An oscillating/feeding apparatus for a continuous member that feeds a continuous member onto a continuously conveyed continuous sheet while oscillating the continuous member in an intersecting direction intersecting a traveling direction of the sheet, the apparatus comprising: an oscillating unit that is oscillated in the intersecting direction; a first displacement means that displaces and oscillates the oscillating unit in the intersecting direction; a second displacement means that displaces and oscillates the oscillating unit in the intersecting direction by displacing a part or all of the first displacement means in the intersecting direction; and a control unit that controls the first displacement means and second displacement means, the oscillating unit including an outlet which feeds the continuous member to the sheet; wherein the second displacement means is connected to the first displacement means; wherein each of the first displacement means and second displacement means includes a driving source that is formed of one or more servo motors (61, 79) or linear motors (85, 87); wherein the oscillating unit includes two through holes that are formed at a block-like fixed part fixed to an endless belt, and is oscillated along two slide shafts that are inserted into the through holes, respectively. an oscillating unit that is oscillated in the intersecting direction; a first displacement means that displaces and oscillates the oscillating unit in the intersecting direction; a second displacement means that displaces and oscillates the oscillating unit in the intersecting direction by displacing a part or all of the first displacement means in the intersecting direction; and a control unit that controls the first displacement means and second displacement means, the oscillating unit including an outlet which feeds the continuous member to the sheet; wherein the second displacement means is connected to the first displacement means; wherein each of the first displacement means and second displacement means includes a driving source that is formed of one or more servo motors (61, 79) or linear motors (85, 87); wherein the oscillating unit includes two through holes that are formed at a block-like fixed part fixed to an endless belt, and is oscillated along two slide shafts that are inserted into the through holes, respectively.
Method for limiting a maximum excitation current (Iex_max) in a starter-alternator system for a vehicle, said maximum excitation current (Iex_max) being determined from at least one maximum excitation current limit curve that is preprogrammed into an electronic control circuit (14, 140) of said starter-alternator system, characterized in that said maximum excitation current limit curve introduces a limit on said maximum excitation current (Iex_max) as a function of the temperature of the starter-alternator, and said maximum excitation current limit curve comprises at least one first portion (Th 1, Th 2) that is obtained through calculation, in said electronic control circuit (14, 140), from an equation Iex_max = Iex_max 0 - P*(T-Th 1) that is preprogrammed into said electronic control circuit (14, 140), said first portion corresponding to a temperature of the starter-alternator that is between a first temperature threshold (Th 1) and a second temperature threshold (Th 2) greater than said first temperature threshold (Th 1), Iex_max 0 being the maximum constant-value excitation current, T being the temperature of the machine and P being the slope of the decrease of the current lex_max between the temperatures Th 1 and Th 2.
A disk package for a centrifuge rotor of a centrifugal separator adapted for separation of components in a supplied medium, wherein the disk package comprises a plurality of separating disks provided on each other in the disk package, wherein each separating disk extends around an axis (x) of rotation for the centrifuge rotor and has a tapering shape along the axis (x) of rotation with an inner surface and an outer surface, wherein each separating disk has an inner edge, which defines a central opening of the separating disk, and an outer edge, wherein each separating disk is manufactured of a material, wherein the separating disks comprise a plurality of first separating disks comprising a number of distance members, which extend away from the inner surface and/or the outer surface, wherein each separating disk comprises a portion without distance members on the inner surface and the outer surface, wherein each distance member comprises at least one contact zone (33, 53) which abuts an outer surface and an inner surface, respectively, of an adjacent separating disk in the disk package, wherein each distance member abuts one of said portions without distance members of an outer surface and an inner surface, respectively, of an adjacent separating disk in the disk package, characterized in that the separating disks are pressed against each other with a pre-tensioning force in such a way that the distance members tightly abut said adjacent separating disk, and that the contact zone (33, 53) has a continuously convex shape seen in a section so that the contact zone has a contact area approaching zero.
A method comprising: receiving, by an electronic device (310, 312, 314, 316) in a content delivery network (101, 300), a content item; receiving, by the electronic device and via a first port (502, 504), first electric power; transmitting, by the electronic device and via a second port, the content item, wherein the second port comprises a downstream communications port; comparing a first metric associated with the first electric power and a second metric, wherein the second metric is associated with a second electric power available via the second port; transmitting, responsive to the comparing, a request to receive the second electric power via the second port; and receiving, via the second port, the second electric power. receiving, by an electronic device (310, 312, 314, 316) in a content delivery network (101, 300), a content item; receiving, by the electronic device and via a first port (502, 504), first electric power; transmitting, by the electronic device and via a second port, the content item, wherein the second port comprises a downstream communications port; comparing a first metric associated with the first electric power and a second metric, wherein the second metric is associated with a second electric power available via the second port; transmitting, responsive to the comparing, a request to receive the second electric power via the second port; and receiving, via the second port, the second electric power.