mhurhangee/ep-ind-claims huggingface dataset:
A container lid comprising a body made of a thin metal plate, the body having a circular top panel wall, and a cylindrical skirt wall extending downwardly from a peripheral edge of the top panel wall; and a synthetic resin liner disposed on an inner surface of the top panel wall of the body, the liner being composed of a first layer formed by press-molding a rigid synthetic resin material supplied to the inner surface of the top panel wall; and a second layer formed by press-molding a flexible synthetic resin material supplied to a lower surface of the first layer, the first layer of the liner having a circular central portion extending along the inner surface of the top panel wall of the body; and a toroidal outer peripheral edge portion extending along an inner surface of an outer peripheral edge part of the top panel wall of the body and along an inner surface of an upper end part of the skirt wall, and the second layer of the liner being laminated to the central portion of the first layer, characterized in that a toroidal thickness varying region whose thickness gradually decreases radially outwardly is present in the central portion of the first layer. the liner being composed of a first layer formed by press-molding a rigid synthetic resin material supplied to the inner surface of the top panel wall; and a second layer formed by press-molding a flexible synthetic resin material supplied to a lower surface of the first layer, the first layer of the liner having a circular central portion extending along the inner surface of the top panel wall of the body; and a toroidal outer peripheral edge portion extending along an inner surface of an outer peripheral edge part of the top panel wall of the body and along an inner surface of an upper end part of the skirt wall, and the second layer of the liner being laminated to the central portion of the first layer, characterized in that a toroidal thickness varying region whose thickness gradually decreases radially outwardly is present in the central portion of the first layer.
A reactor vessel having a hemispherical concave inner surface and including a nozzle, characterized in that it comprises: a removed concave portion in which a base materiel on an inner surface side of the reactor vessel is removed based on a symmetrical shape around a centerline of the nozzle; a flange provided on the nozzle, formed in a symmetrical shape around the centerline, and inserted into the removed concave portion; a sealing part that seals between a clad provided on an inner surface of the reactor vessel and the flange around the centerline by seal welding or filling with a filling material; and a fixing part that fixes the nozzle in a through-hole of the reactor vessel by screwing together. a removed concave portion in which a base materiel on an inner surface side of the reactor vessel is removed based on a symmetrical shape around a centerline of the nozzle; a flange provided on the nozzle, formed in a symmetrical shape around the centerline, and inserted into the removed concave portion; a sealing part that seals between a clad provided on an inner surface of the reactor vessel and the flange around the centerline by seal welding or filling with a filling material; and a fixing part that fixes the nozzle in a through-hole of the reactor vessel by screwing together.
A method in a network node (11, 23) for 3rd Generation Direct Tunnel 3GDT usage, the network node being comprised in a Radio Network, the method comprising: determining if a User Equipment UE is a heavy payload user; and if the UE is a heavy payload user, sending an information element in a communications message, the information element providing an indication that the UE is a heavy payload user and 3GDT usage should be initiated. determining if a User Equipment UE is a heavy payload user; and if the UE is a heavy payload user, sending an information element in a communications message, the information element providing an indication that the UE is a heavy payload user and 3GDT usage should be initiated.
An Antenna Mode Steering, AMS, method in a signal receiving apparatus using at least one antenna, the AMS method comprising: measuring a received signal quality of a signal received through the at least one antenna for each of antenna modes available in the at least one antenna of the signal receiving apparatus based on a fading environment of the signal receiving apparatus and a preset time; and selecting a specific antenna mode from among the antenna modes as an antenna mode to be used in the signal receiving apparatus based on the measured received signal quality. measuring a received signal quality of a signal received through the at least one antenna for each of antenna modes available in the at least one antenna of the signal receiving apparatus based on a fading environment of the signal receiving apparatus and a preset time; and selecting a specific antenna mode from among the antenna modes as an antenna mode to be used in the signal receiving apparatus based on the measured received signal quality.
Device for controlling wireless multimedia devices (SPK 1, SPK 2, SPK N), comprising: - a wireless communication circuit, arranged to receive a wireless multimedia device identifier from each wireless multimedia device; - a separation circuit for separating a main multimedia stream into as many separated multimedia streams as the wireless communication circuit has received identifiers of wireless multimedia devices; - an allocation circuit for allocating each separated multimedia stream to a respective wireless multimedia device; and - a synchronization circuit for synchronizing the separated multimedia streams characterized in that the device further comprises: - an access circuit for accessing a database of wireless multimedia devices, arranged to obtain from said database latency of each wireless multimedia device for which the wireless communication circuit has received an identifier; and and in that the synchronizing of the separated multimedia streams is based on the latency of the wireless multimedia devices obtained from the database to temporally shift the transmission of a separated multimedia stream intended for a wireless multimedia device. - a wireless communication circuit, arranged to receive a wireless multimedia device identifier from each wireless multimedia device; - a separation circuit for separating a main multimedia stream into as many separated multimedia streams as the wireless communication circuit has received identifiers of wireless multimedia devices; - an allocation circuit for allocating each separated multimedia stream to a respective wireless multimedia device; and - a synchronization circuit for synchronizing the separated multimedia streams - an access circuit for accessing a database of wireless multimedia devices, arranged to obtain from said database latency of each wireless multimedia device for which the wireless communication circuit has received an identifier; and and in that the synchronizing of the separated multimedia streams is based on the latency of the wireless multimedia devices obtained from the database to temporally shift the transmission of a separated multimedia stream intended for a wireless multimedia device.
A cast, pressed or extruded solid laundry sour composition comprising: from 15 to 95 wt. % of an acid source, wherein the acid comprises an organic acid; from 0.1 to 25 wt. % of a soil release polymer, and a solidification aid. from 15 to 95 wt. % of an acid source, wherein the acid comprises an organic acid; from 0.1 to 25 wt. % of a soil release polymer, and a solidification aid.
Device intended to clip pulsed acoustic peaks and to be inserted in the hole of a waterproof earplug, said device comprising an acoustic system having a cylindrical external shape of 5 to 10 mm in length and of 3 to 5 mm in diameter and an internal machining consisting, in the acoustic wave processing direction (E-S), of a cylindrical inlet, an acoustic compression cone and an outlet situated at the tip of said cone.
A method for transmitting uplink demodulation reference signal, comprising: receiving, by a terminal device, first demodulation reference signal, DMRS, configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving, by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating an antenna port configuration of DMRS and/or a physical resource configuration of DMRS, wherein the physical resource configuration of DMRS comprises at least one of a number of orthogonal frequency division multiplexing, OFDM, symbols occupied by the DMRS, a subcarrier occupied by the DMRS, and a transmission pattern of the DMRS; determining, by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining, by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting, by the terminal device, DMRS to the network device according to the transmission parameter. receiving, by a terminal device, first demodulation reference signal, DMRS, configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving, by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating an antenna port configuration of DMRS and/or a physical resource configuration of DMRS, wherein the physical resource configuration of DMRS comprises at least one of a number of orthogonal frequency division multiplexing, OFDM, symbols occupied by the DMRS, a subcarrier occupied by the DMRS, and a transmission pattern of the DMRS; determining, by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining, by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting, by the terminal device, DMRS to the network device according to the transmission parameter.
A membrane for a dewatering press for washing with a membrane disk, having an edge raised from the outer periphery of the membrane disk, wherein the membrane is made from a rubber-elastic material, characterized in that the rubber-elastic material has an antimicrobial component.
A method for producing steel for blades having a metal composition consisting of, by mass, 0.55% to 0.8% C, not more than 1.0% Si, not more than 1.0% Mn, 12.0% to 14.0% Cr, not more than 1.0% Mo, not more than 1.0% Ni, and the balance of Fe with inevitable impurities, the method comprising: a batch annealing step for batch annealing a material to be cold rolled having the metal composition in a temperature having a range of 500°C to 700°C for 3 to 30 hours to obtain a batch annealed material; a continuous annealing step for continuously annealing the batch annealed material for 5 to 30 minutes so that the batch annealed material is heated to at least an Ac1 transformation point of the metal composition after the batch annealing step to obtain a continuously annealed material; and a cold rolling step for cold rolling the continuously annealed material after the continuous annealing step, wherein the continuous annealing step and the cold rolling step are performed at least once, respectively. a batch annealing step for batch annealing a material to be cold rolled having the metal composition in a temperature having a range of 500°C to 700°C for 3 to 30 hours to obtain a batch annealed material; a continuous annealing step for continuously annealing the batch annealed material for 5 to 30 minutes so that the batch annealed material is heated to at least an Ac1 transformation point of the metal composition after the batch annealing step to obtain a continuously annealed material; and a cold rolling step for cold rolling the continuously annealed material after the continuous annealing step, wherein the continuous annealing step and the cold rolling step are performed at least once, respectively.
A rotational imaging apparatus, the apparatus comprising: a hollow elongate transducer shaft, wherein a proximal end of the transducer shaft comprises a connector; an elongate catheter, wherein the transducer shaft is configured to fit within the catheter; a rotatable elongate drive member within the transducer shaft; a rotatable elongate electrical signal transmission member within the drive member; and an imaging device within the transducer shaft, wherein the drive member and the signal transmission member are coupled to the imaging device; haracterized in that only one portion of the signal transmission member is attached to the drive member distal to the connector, the one portion being at a position immediately after the imaging device. a hollow elongate transducer shaft, wherein a proximal end of the transducer shaft comprises a connector; an elongate catheter, wherein the transducer shaft is configured to fit within the catheter; a rotatable elongate drive member within the transducer shaft; a rotatable elongate electrical signal transmission member within the drive member; and an imaging device within the transducer shaft, wherein the drive member and the signal transmission member are coupled to the imaging device; haracterized in that only one portion of the signal transmission member is attached to the drive member distal to the connector, the one portion being at a position immediately after the imaging device.
A method of transporting objects belonging to the group of fruits and vegetables with a stalk, comprising the following steps: - conveying a plurality of objects on a conveyor line in a longitudinal forward direction, each conveyed object being carried by a support that is driven by the conveyor line in its longitudinal forward movement, - rotating at least one support of an object in such a manner as to cause the rotation of said object about a non-horizontal axis; said at least one support being rotated so as to give the stalk of said object a predetermined geometric orientation, characterized in that this predetermined geometric orientation is maintained during the rotation of said object about the non-horizontal axis. - conveying a plurality of objects on a conveyor line in a longitudinal forward direction, each conveyed object being carried by a support that is driven by the conveyor line in its longitudinal forward movement, - rotating at least one support of an object in such a manner as to cause the rotation of said object about a non-horizontal axis;
A method of manufacturing an all-solid-state lithium-ion battery system, the all-solid-state lithium-ion battery system including an all-solid-state battery and a control device, the all-solid-state lithium-ion battery including a positive electrode active material layer, a solid electrolyte layer, and a negative electrode active material layer, the control device being configured to control a charge-discharge voltage during use of the all-solid-state lithium-ion battery, and the method comprising: a lamination step of laminating the positive electrode active material layer wherein the positive electrode active material layer has a positive electrode active material coated with a protective coating which is a lithium-containing metal oxide, the solid electrolyte layer, and the negative electrode active material layer containing alloy negative electrode active material particles; and an initial charging step of charging the all-solid-state lithium-ion battery to an initial charge voltage which is higher than the charge-discharge voltage. a lamination step of laminating the positive electrode active material layer wherein the positive electrode active material layer has a positive electrode active material coated with a protective coating which is a lithium-containing metal oxide, the solid electrolyte layer, and the negative electrode active material layer containing alloy negative electrode active material particles; and an initial charging step of charging the all-solid-state lithium-ion battery to an initial charge voltage which is higher than the charge-discharge voltage.
A method for feeding process gases from an uptake of a suspension smelting furnace into a waste heat boiler, wherein the method comprises a first providing step for providing a feeding throat having a feeding channel comprising a channel inner roof, a connecting step for connecting the feeding throat to the uptake inner space of the uptake of the suspension smelting furnace at an exit between the uptake inner space of the uptake of the suspension smelting furnace and the feeding throat and for connecting the feeding throat to the waste heat boiler at an entrance between the feeding throat and a boiler inner space of the waste heat boiler, and a feeding step for feeding process gases from the uptake of the suspension smelting furnace into the waste heat boiler through the feeding channel of the feeding throat, characterized by a second providing step for providing at least one of an uptake inner roof of the uptake of the suspension smelting furnace and the channel inner roof of the feeding channel of the feeding throat with an angled and/or curved section that slopes at least partly downwardly in an angled and/or curved manner in the direction towards the entrance between the feeding throat and the boiler inner space of the waste heat boiler, and by the connecting step including connecting the feeding throat to the uptake inner space of the uptake of the suspension smelting furnace at the exit between the uptake inner space of the uptake of the suspension smelting furnace and the feeding throat so that the channel inner roof of the feeding channel of the feeding throat adjoins the uptake inner roof of the uptake of the suspension smelting furnace.
Apparatus, comprising coupling means adapted to couple respective portions of a transmission resource to fixed beams in a 1:1 relationship such that the portions coupled to different fixed beams do not overlap, wherein the transmission resource is foreseen for transmission by a cell, each of the fixed beams is defined by a fixed beam weight vector, and a number of the fixed beams is predefined and equal to or larger than 2; allocating means adapted to allocate one of the fixed beams and the portion of the transmission resource coupled to the one of the fixed beams to a terminal; configuring means adapted to configure a transmitting device to transmit to the terminal in the fixed beam and the portion of the transmission resource allocated to the terminal, wherein the coupling means is adapted to couple the portions of the transmission resource and fixed beams based on a received information about neighbor portions of the transmission resource coupled to neighbor fixed beams of a neighboring cell such that mutual interference with the neighboring cell is minimized; and the coupling means is adapted to couple a largest one of the portions to a middle beam of the fixed beams, wherein at least one of the other fixed beams is spatially located between the middle beam and a border of the cell. coupling means adapted to couple respective portions of a transmission resource to fixed beams in a 1:1 relationship such that the portions coupled to different fixed beams do not overlap, wherein the transmission resource is foreseen for transmission by a cell, each of the fixed beams is defined by a fixed beam weight vector, and a number of the fixed beams is predefined and equal to or larger than 2; allocating means adapted to allocate one of the fixed beams and the portion of the transmission resource coupled to the one of the fixed beams to a terminal; configuring means adapted to configure a transmitting device to transmit to the terminal in the fixed beam and the portion of the transmission resource allocated to the terminal, wherein the coupling means is adapted to couple the portions of the transmission resource and fixed beams based on a received information about neighbor portions of the transmission resource coupled to neighbor fixed beams of a neighboring cell such that mutual interference with the neighboring cell is minimized; and the coupling means is adapted to couple a largest one of the portions to a middle beam of the fixed beams, wherein at least one of the other fixed beams is spatially located between the middle beam and a border of the cell.
A process for forming a graphene coating on a glass container that includes: (a) applying a graphene coating composition in liquid phase to an exterior surface of the glass container to form a precursor coating thereon, wherein the graphene coating composition includes a physical mixture of a graphene material and a siloxane polymer, but does not include a non-silane organic monomer or polymer, wherein the graphene material includes a complex of graphene and an ionic surfactant, wherein the siloxane polymer is prepared by dissolving or dispersing a plurality of alkoxysilanes in a solvent to form a silane solution, stirring the silane solution for a sufficient amount of time to crosslink at least some of the alkoxysilanes with one another, and then separating the crosslinked alkoxysilanes from the solvent and (b) curing the precursor coating to form a composite thin film of silica and graphene on the exterior surface of the glass container. (a) applying a graphene coating composition in liquid phase to an exterior surface of the glass container to form a precursor coating thereon, wherein the graphene coating composition includes a physical mixture of a graphene material and a siloxane polymer, but does not include a non-silane organic monomer or polymer, wherein the graphene material includes a complex of graphene and an ionic surfactant, wherein the siloxane polymer is prepared by dissolving or dispersing a plurality of alkoxysilanes in a solvent to form a silane solution, stirring the silane solution for a sufficient amount of time to crosslink at least some of the alkoxysilanes with one another, and then separating the crosslinked alkoxysilanes from the solvent and (b) curing the precursor coating to form a composite thin film of silica and graphene on the exterior surface of the glass container.