mhurhangee/patent-ind-claim-en huggingface dataset:
A nuclear power plant comprising: a reactor core having a plurality of fuel columns penetrating a calandria, the calandria containing a volume of secondary coolant, each fuel column including a structural tube that forms the exterior of the fuel column, at least a portion of the exterior of the fuel column being in contact with the secondary coolant, the structural tube containing a nuclear fuel; a closed-loop carbon dioxide coolant circuit that routes pressurized carbon dioxide into the fuel columns and removes a heated carbon dioxide from the fuel columns, thereby removing energy from the nuclear fuel within the fuel columns; the closed-loop carbon dioxide coolant circuit including: at least one turbine configured to generate mechanical energy from the heated carbon dioxide and discharge depressurized carbon dioxide ; and at least one compressor configured to compress the depressurized carbon dioxide and discharge pressurized carbon dioxide to the reactor core, characterised in that the pressurized carbon dioxide is in a supercritical state throughout the closed-loop carbon dioxide coolant circuit. a reactor core having a plurality of fuel columns penetrating a calandria, the calandria containing a volume of secondary coolant, each fuel column including a structural tube that forms the exterior of the fuel column, at least a portion of the exterior of the fuel column being in contact with the secondary coolant, the structural tube containing a nuclear fuel; a closed-loop carbon dioxide coolant circuit that routes pressurized carbon dioxide into the fuel columns and removes a heated carbon dioxide from the fuel columns, thereby removing energy from the nuclear fuel within the fuel columns; the closed-loop carbon dioxide coolant circuit including: at least one turbine configured to generate mechanical energy from the heated carbon dioxide and discharge depressurized carbon dioxide ; and at least one compressor configured to compress the depressurized carbon dioxide and discharge pressurized carbon dioxide to the reactor core, characterised in that the pressurized carbon dioxide is in a supercritical state throughout the closed-loop carbon dioxide coolant circuit. at least one turbine configured to generate mechanical energy from the heated carbon dioxide and discharge depressurized carbon dioxide ; and at least one compressor configured to compress the depressurized carbon dioxide and discharge pressurized carbon dioxide to the reactor core, characterised in that the pressurized carbon dioxide is in a supercritical state throughout the closed-loop carbon dioxide coolant circuit.
A method, comprising: receiving, by a concentrator component , one or more uplink packets from an access point related to a connected mobile device; generating, by the concentrator component , a unique identifier based on a mobile device identifier and an access point identifier, wherein the unique identifier is globally unique to a wireless communications network; replacing, by the concentrator component , the mobile device identifier in uplink packets received via the access point with the unique identifier; transmitting, by the concentrator component , the packets to an upstream network component; receiving, by the concentrator component , downlink packets from the upstream network component including the unique identifier and forwarding the packets to the access point based on the unique identifier; receiving, by the concentrator component , a handover request command related to a source access point and a target access point ; replacing, by the concentrator component , an access point identifier of the source access point and an access point identifier of the target access point in the handover command with its own identifier; and forwarding, by the concentrator component , the handover command to the upstream network component or to one or more disparate upstream network components when the access points involved in the handover command communicate with disparate MMEs. receiving, by a concentrator component , one or more uplink packets from an access point related to a connected mobile device; generating, by the concentrator component , a unique identifier based on a mobile device identifier and an access point identifier, wherein the unique identifier is globally unique to a wireless communications network; replacing, by the concentrator component , the mobile device identifier in uplink packets received via the access point with the unique identifier; transmitting, by the concentrator component , the packets to an upstream network component; receiving, by the concentrator component , downlink packets from the upstream network component including the unique identifier and forwarding the packets to the access point based on the unique identifier; receiving, by the concentrator component , a handover request command related to a source access point and a target access point ; replacing, by the concentrator component , an access point identifier of the source access point and an access point identifier of the target access point in the handover command with its own identifier; and forwarding, by the concentrator component , the handover command to the upstream network component or to one or more disparate upstream network components when the access points involved in the handover command communicate with disparate MMEs.
Use of a flavor composition for increasing palatability of a food product, wherein the flavor composition comprises a compound selected from the group consisting of N-Benzyl-L-phenylalanine methyl ester hydrochloride; N-Benzyl-D-Phenylalanine methyl ester hydrochloride; Benzyl-L-leucine methyl ester hydrochloride; Methyl-2-benzylamino-2-phenylacetate; and L-Phenylalanine benzyl ester hydrochloride. N-Benzyl-L-phenylalanine methyl ester hydrochloride; N-Benzyl-D-Phenylalanine methyl ester hydrochloride; Benzyl-L-leucine methyl ester hydrochloride; Methyl-2-benzylamino-2-phenylacetate; and L-Phenylalanine benzyl ester hydrochloride.
Use of a reagent for extracting at least one metal from at least one metal sulfide in an ore in an acidic sulfate leach comprising ferric ions, wherein the reagent is: a reagent having a thiocarbonyl functional group at a concentration of 0.2 mM to 30 mM; or formamidine disulfide (FDS), wherein the at least one metal includes: copper, wherein the at least one metal sulfide includes chalcopyrite, covellite, bornite, enargite, a copper sulfide of the formula Cu x S y wherein the x:y ratio is between 1 and 2, or a combination thereof; cadmium, wherein the at least one metal sulfide is greenockite; nickel, wherein the at least one metal sulfide is pentlandite, violarite, or a combination thereof; or a combination thereof. a reagent having a thiocarbonyl functional group at a concentration of 0.2 mM to 30 mM; or formamidine disulfide (FDS), wherein the at least one metal includes: copper, wherein the at least one metal sulfide includes chalcopyrite, covellite, bornite, enargite, a copper sulfide of the formula Cu x S y wherein the x:y ratio is between 1 and 2, or a combination thereof; cadmium, wherein the at least one metal sulfide is greenockite; nickel, wherein the at least one metal sulfide is pentlandite, violarite, or a combination thereof; or a combination thereof. copper, wherein the at least one metal sulfide includes chalcopyrite, covellite, bornite, enargite, a copper sulfide of the formula Cu x S y wherein the x:y ratio is between 1 and 2, or a combination thereof; cadmium, wherein the at least one metal sulfide is greenockite; nickel, wherein the at least one metal sulfide is pentlandite, violarite, or a combination thereof; or a combination thereof.
Method for downloading subscription information to an identification unit connected to a wireless communication device operating within a cellular network , said cellular network comprising at least one packet gateway node , at least one remote provisioning server being connected to the packet gateway node , the remote provisioning server comprising a provisioning database , the wireless communication device operating in a mode with limited access to the remote provisioning server within the cellular network , the method comprising the steps: - submitting a request comprising an authentication identifier and access information relating to one remote provisioning server from the identification unit on an assigned communication channel to the cellular network , - receiving at the cellular network said request from the identification unit , - forwarding at the cellular network said request using a connection tunnel preconfigured according to said access information from the packet gateway node to the remote provisioning server addressed by said access information , - upon reception of said request determining subscription information in the provisioning database based on said authentication identifier at the remote provisioning server , - providing a response message comprising data relative to subscription information through said preconfigured connection tunnel to the identification unit , when subscription information detected, - upon reception of said response message creating based on received data relative to subscription information an identity record and storing said created identity record in memory means of the identification unit . - submitting a request comprising an authentication identifier and access information relating to one remote provisioning server from the identification unit on an assigned communication channel to the cellular network , - receiving at the cellular network said request from the identification unit , - forwarding at the cellular network said request using a connection tunnel preconfigured according to said access information from the packet gateway node to the remote provisioning server addressed by said access information , - upon reception of said request determining subscription information in the provisioning database based on said authentication identifier at the remote provisioning server , - providing a response message comprising data relative to subscription information through said preconfigured connection tunnel to the identification unit , when subscription information detected, - upon reception of said response message creating based on received data relative to subscription information an identity record and storing said created identity record in memory means of the identification unit .
A valve comprises: a pressure chamber ; a valve assembly controlling a passage of fluid , said valve assembly being configured in such a way that its preload force is controlled by said pressure chamber ; a spring element that helps said valve assembly oppose change in volume of said pressure chamber , its preload force also controlled by said pressure chamber ; for a given change in volume of said pressure chamber , reaction force from said spring element changes faster than reaction force of said valve assembly ; characterised in that : said spring element and said valve assembly are configured as springs operating mechanically in parallel with respect to said pressure chamber . a pressure chamber ; a valve assembly controlling a passage of fluid , said valve assembly being configured in such a way that its preload force is controlled by said pressure chamber ; a spring element that helps said valve assembly oppose change in volume of said pressure chamber , its preload force also controlled by said pressure chamber ; for a given change in volume of said pressure chamber , reaction force from said spring element changes faster than reaction force of said valve assembly ; characterised in that : said spring element and said valve assembly are configured as springs operating mechanically in parallel with respect to said pressure chamber .
Explosion-proof luminaire with a housing which has a translucent portion and surrounds an internal space , with a separating wall which has at least one opening and divides the internal space of the housing into at least one first portion without filler material and at least one second portion with filler material , wherein the first portion without filler material contains a light source and is translucent in the region of the light source, and wherein behind the at least one separating wall , the second portion is filled with an open-pore material in which an electronic operating circuit (25, 25a or 25b) is embedded.
An elevator arrangement with multiple elevator cars in the same elevator shaft, the arrangement comprises at least an uppermost elevator with its control system, hoisting machinery and elevator car , and a lowermost elevator with its control system, hoisting machinery and elevator car , which elevator cars are arranged to run in the same elevator shaft along the same guide rails , wherein the uppermost elevator is of a type that the hoisting machinery of the uppermost elevator car is above the elevator shaft or at least at an upper part of the elevator shaft , and that the lowermost elevator is of a type that the hoisting machinery of the lowermost elevator car is underneath the lowermost elevator car , whereby the hoisting machinery of the uppermost elevator has a traction sheave that is arranged to move the hoisting rope connected between the uppermost elevator car and a counterweight , of the uppermost elevator, characterized in that the hoisting machinery of the lowermost elevator has a drive wheel that is arranged to move a traction member connected between the lower part of a counterweight of the lowermost elevator and the lower part of the lowermost elevator car .
A Sindbis viral vector carrying a gene encoding a tumor associated antigen (TAA) that is the same TAA as a TAA expressed by cells of the tumor to be treated or a TAA that is immunologically cross-reactive with a TAA expressed by cells of the tumor to be treated for use in a method of treating the tumor in a mammal, wherein the Sindbis viral vector is administered parenterally, wherein the Sindbis viral vector does not directly target the tumor cells of the mammal, wherein the tumor is a solid tumor, and wherein the solid tumor is a colon carcinoma.
An end effector for use with a surgical device, the end effector comprising: a drive assembly configured for rotation about a longitudinal axis and including a first helical groove ; a driver disposed in mechanical cooperation with the drive assembly, wherein rotation of the drive assembly in a first direction causes distal translation of the driver with respect to the drive assembly; a needle assembly disposed in mechanical cooperation with the driver, wherein distal translation of the driver causes a corresponding distal translation of the needle assembly; and a follower configured to engage the first helical groove of the drive assembly, wherein when the follower is engaged with the first helical groove, rotation of the drive assembly in the first direction causes distal translation of the follower with respect to the drive assembly; characterised in that the end effector further comprises: an outer tube disposed radially outward of at least a portion of the drive assembly, wherein the outer tube includes a longitudinal slot , wherein a portion of the follower is configured to engage the longitudinal slot of the outer tube, and wherein a portion of the follower extends through an aperture of the driver. a drive assembly configured for rotation about a longitudinal axis and including a first helical groove ; a driver disposed in mechanical cooperation with the drive assembly, wherein rotation of the drive assembly in a first direction causes distal translation of the driver with respect to the drive assembly; a needle assembly disposed in mechanical cooperation with the driver, wherein distal translation of the driver causes a corresponding distal translation of the needle assembly; and a follower configured to engage the first helical groove of the drive assembly, wherein when the follower is engaged with the first helical groove, rotation of the drive assembly in the first direction causes distal translation of the follower with respect to the drive assembly; characterised in that the end effector further comprises: an outer tube disposed radially outward of at least a portion of the drive assembly, wherein the outer tube includes a longitudinal slot , wherein a portion of the follower is configured to engage the longitudinal slot of the outer tube, and wherein a portion of the follower extends through an aperture of the driver.
A fixing device comprising: a rotatable fixing member ; halogen heaters as a heating source configured to heat the fixing member ; an opposing member configured to come into contact with an outer circumferential surface of the fixing member to form a nip portion (N); and a shielding member configured to block heat from the heating source , wherein the rotation center (X) of the shielding member is disposed at a position different from the centers (Z) of the halogen heaters such that the shielding member is configured to rotate about a position different from the center (Z) of the heating source so as to be movable between a shielding position and a retraction position, the shielding position being a position where the shielding member comes close to the heating source to block heat from the heating source to the fixing member , the retraction position being a position where the shielding member is retracted away from the shielding position, wherein even though the shielding member is moved to the retraction position, a distance to the heating source is not changed in a range (B1) of the shielding member , wherein the shielding member is configured such that, when the shielding member is rotated and moved from the shielding position to the retraction position, a nearby region (B2) of the shielding member close to the heating source is reduced and a distant region (B3) of the shielding member far from the heating source is increased. a rotatable fixing member ; halogen heaters as a heating source configured to heat the fixing member ; an opposing member configured to come into contact with an outer circumferential surface of the fixing member to form a nip portion (N); and a shielding member configured to block heat from the heating source , wherein the rotation center (X) of the shielding member is disposed at a position different from the centers (Z) of the halogen heaters such that the shielding member is configured to rotate about a position different from the center (Z) of the heating source so as to be movable between a shielding position and a retraction position, the shielding position being a position where the shielding member comes close to the heating source to block heat from the heating source to the fixing member , the retraction position being a position where the shielding member is retracted away from the shielding position, wherein even though the shielding member is moved to the retraction position, a distance to the heating source is not changed in a range (B1) of the shielding member , wherein the shielding member is configured such that, when the shielding member is rotated and moved from the shielding position to the retraction position, a nearby region (B2) of the shielding member close to the heating source is reduced and a distant region (B3) of the shielding member far from the heating source is increased.
Net tent for a bed , comprising a net which is configured to completely enclose an interior space, comprising at least a first strut , preferably at least a first arcuate strut , and at least a second strut , preferably at least a second arcuate strut , which are configured to bear the net , and comprising at least one transverse strut which is configured to be arranged between the two struts and to space them apart from one another, wherein the net is configured to be borne by the two struts at least in a first length (L1) and in a second length (L2), and/or to be borne by the two struts at least in a first width (B1) and in a second width (B2), wherein the net tent is configured to be varied, in terms of its base area , between at least the first length (L1) and the second length (L2) and/or between at least a first width (B1) and a second width (B2). comprising a net which is configured to completely enclose an interior space, comprising at least a first strut , preferably at least a first arcuate strut , and at least a second strut , preferably at least a second arcuate strut , which are configured to bear the net , and comprising at least one transverse strut which is configured to be arranged between the two struts and to space them apart from one another, wherein the net is configured to be borne by the two struts at least in a first length (L1) and in a second length (L2), and/or to be borne by the two struts at least in a first width (B1) and in a second width (B2), to be borne by the two struts at least in a first length (L1) and in a second length (L2), and/or to be borne by the two struts at least in a first width (B1) and in a second width (B2), wherein the net tent is configured to be varied, in terms of its base area , between at least the first length (L1) and the second length (L2) and/or between at least a first width (B1) and a second width (B2).
A polytrimethylene terephthalate composition comprising a polyester having a trimethylene terephthalate unit as a main repeating unit, the polytrimethylene terephthalate composition satisfying all the following requirements (a) to (d): (a) the intrinsic viscosity is within a range of 0.50 to 1.60 dL/g, determined using an Ubbelohde viscometer from the viscosity value measured in o-chlorophenol solution at 35°C; (b) 0.05 to 3.0% by weight of the composition of titanium dioxide whose weight distribution of particles having a particle size of more than 1.0 μm in particle size distribution measurement using a laser diffraction/scattering particle size distribution analyzer is 5.0% by weight or less; (c) the crystallization exothermic peak top temperature that appears when the polytrimethylene terephthalate composition heated to the melting point or higher is cooled at a rate of 10°C/min using a differential scanning calorimeter is 165°C or more; and (d) the half-width of the crystallization exothermic peak that appears when the polytrimethylene terephthalate composition heated to the melting point or higher is cooled at a rate of 10°C/min using a differential scanning calorimeter is 20°C or less; and wherein the titanium dioxide is in anatase form. (a) the intrinsic viscosity is within a range of 0.50 to 1.60 dL/g, determined using an Ubbelohde viscometer from the viscosity value measured in o-chlorophenol solution at 35°C; (b) 0.05 to 3.0% by weight of the composition of titanium dioxide whose weight distribution of particles having a particle size of more than 1.0 μm in particle size distribution measurement using a laser diffraction/scattering particle size distribution analyzer is 5.0% by weight or less; (c) the crystallization exothermic peak top temperature that appears when the polytrimethylene terephthalate composition heated to the melting point or higher is cooled at a rate of 10°C/min using a differential scanning calorimeter is 165°C or more; and (d) the half-width of the crystallization exothermic peak that appears when the polytrimethylene terephthalate composition heated to the melting point or higher is cooled at a rate of 10°C/min using a differential scanning calorimeter is 20°C or less; and