mhurhangee/patent-ind-claim-en huggingface dataset:
A second sub-gateway charging method, the method comprises: receiving , by the second sub-gateway , a first message from a first sub-gateway , wherein the first message indicates a charging policy of an access user, wherein the second sub-gateway is a forwarding plane gateway, the second sub-gateway is for forwarding data and collecting charging information, and the first sub-gateway is a control plane gateway; collecting , by the second sub-gateway , charging information of the access user according to the charging policy indicated by the first message; and sending , by the second sub-gateway , a second message to the first sub-gateway , wherein the second message carries the charging information. receiving , by the second sub-gateway , a first message from a first sub-gateway , wherein the first message indicates a charging policy of an access user, wherein the second sub-gateway is a forwarding plane gateway, the second sub-gateway is for forwarding data and collecting charging information, and the first sub-gateway is a control plane gateway; collecting , by the second sub-gateway , charging information of the access user according to the charging policy indicated by the first message; and sending , by the second sub-gateway , a second message to the first sub-gateway , wherein the second message carries the charging information.
A hybrid toroid and band gap transceiver for downhole telemetry comprising: a toroid antenna disposed on a housing of a downhole device; and a band gap antenna having a first pole disposed on the housing substantially adjacent to the toroid antenna and a second pole disposed on the housing and separated from the first pole by a band gap (BG), wherein the hybrid toroid and band gap transceiver is capable of transmitting or receiving a signal, representative of downhole data. a toroid antenna disposed on a housing of a downhole device; and a band gap antenna having a first pole disposed on the housing substantially adjacent to the toroid antenna and a second pole disposed on the housing and separated from the first pole by a band gap (BG), wherein the hybrid toroid and band gap transceiver is capable of transmitting or receiving a signal, representative of downhole data.
A hot runner injection molding apparatus comprising: a manifold including an inlet and plurality of outlets; at least one hot runner nozzle coupled to the manifold , where each nozzle defines a melt channel and where each nozzle includes a movable valve pin configured to control a flow of a molten material from each nozzle into a mold cavity by opening and closing a mold gate; and an actuation system including: - an actuator which creates a movement along a first axis "A", - a valve pin which is moveable along a second axis "B" wherein the second axis "B" is angled with respect to the first axis "A", - a plurality of force transmission components , wherein the force transmission components are movably connected to each other, wherein the first force transmission component is connected to the actuator and the last force transmission component (41") is connected to the moveable valve pin and the force transmission components 41, 42, 43, 44) are substantially located and guided within an area of the channel , which is substantially not parallel to axis A or axis "B", characterised in that the force transmission components are connected via ball head connection. a manifold including an inlet and plurality of outlets; at least one hot runner nozzle coupled to the manifold , where each nozzle defines a melt channel and where each nozzle includes a movable valve pin configured to control a flow of a molten material from each nozzle into a mold cavity by opening and closing a mold gate; and an actuation system including: - an actuator which creates a movement along a first axis "A", - a valve pin which is moveable along a second axis "B" wherein the second axis "B" is angled with respect to the first axis "A", - a plurality of force transmission components , wherein the force transmission components are movably connected to each other, wherein the first force transmission component is connected to the actuator and the last force transmission component (41") is connected to the moveable valve pin and the force transmission components 41, 42, 43, 44) are substantially located and guided within an area of the channel , which is substantially not parallel to axis A or axis "B", characterised in that the force transmission components are connected via ball head connection. - an actuator which creates a movement along a first axis "A", - a valve pin which is moveable along a second axis "B" wherein the second axis "B" is angled with respect to the first axis "A", - a plurality of force transmission components , wherein the force transmission components are movably connected to each other, wherein the first force transmission component is connected to the actuator and the last force transmission component (41") is connected to the moveable valve pin and the force transmission components 41, 42, 43, 44) are substantially located and guided within an area of the channel , which is substantially not parallel to axis A or axis "B", characterised in that the force transmission components are connected via ball head connection.
A method of wireless communication by a user equipment, UE, the method comprising: receiving a beam modification command that indicates a set of transmit beam indexes corresponding to a set of transmit beams of a base station, each transmit beam index of the set of transmit beam indexes indicating at least a transmit direction for transmitting a transmit beam by the base station; determining a set of receive beam indexes corresponding to receive beams of the UE based on the set of transmit beam indexes, each receive beam index of the set of receive beam indexes indicating at least a receive direction for receiving a receive beam by the UE; and receiving , from the base station, a beam refinement reference signal, BRRS, through at least one receive beam corresponding to at least one receive beam index included in the set of receive beam indexes. receiving a beam modification command that indicates a set of transmit beam indexes corresponding to a set of transmit beams of a base station, each transmit beam index of the set of transmit beam indexes indicating at least a transmit direction for transmitting a transmit beam by the base station; determining a set of receive beam indexes corresponding to receive beams of the UE based on the set of transmit beam indexes, each receive beam index of the set of receive beam indexes indicating at least a receive direction for receiving a receive beam by the UE; and receiving , from the base station, a beam refinement reference signal, BRRS, through at least one receive beam corresponding to at least one receive beam index included in the set of receive beam indexes.
Use of an adhesive for polyolefin as an adhesive in an extrusion-formed multilayered structure that includes, at least, a propylene type resin layer, an ethylene type resin layer, and an intermediate layer comprising the adhesive, which intermediate layer is provided between the propylene type resin layer and the ethylene type resin layer, said adhesive for polyolefin comprising an olefin resin that has methyl branches at a ratio of 10 to 200 per 1000 carbon atoms on a main chain thereof, wherein the number of alkyl branches that are larger than methyl branches is not more than 50 per 1000 carbon atoms of the main chain of the olefin resin, wherein the number of methyl and alkyl branches is measured as described herein, and wherein said olefin resin has been modified with an acid. wherein the number of methyl and alkyl branches is measured as described herein, and wherein said olefin resin has been modified with an acid.
Filtering apparatus for plastic melts, having a filter change device , at least one filter housing , at least one filter bolt mounted so as to be axially displaceable therein, which filter bolt has at least one filter chamber , which extends transverse to its longitudinal axis , with at least one filter screen , said filter chamber being aligned horizontally in an operating position thereof during a filtering operation and being in fluid communication with at least one fluid feed channel and at least one fluid discharge channel in said filter housing , said filter chamber being adapted to be moved into a filter screen change position outside said filter housing for changing said filter screen , said filter change device having at least one actuator which drives a thrust mechanism and axially displaces said filter bolt with said filter screen in the longitudinal direction of said filter bolt during a thrust movement of said thrust mechanism into said filter screen change position , characterized in that a slotted link guide is provided which, during displacement into the filter change position, causes said filter bolt to pivot from the horizontal alignment of the filter chamber in its operating position into said filter screen change position , in which position said filter chamber is then aligned vertically.
A subsea device, comprising: - an enclosure , and - an electric circuitry arranged within the enclosure , wherein the electric circuitry comprises a subsea fuse device , comprising: - a fuse housing , and - a fuse wire comprising a first end section , a second end section , and a central section along a longitudinal direction of the fuse wire, wherein the fuse housing comprises a one-piece outer envelope which completely encloses a hollow space and provides a first feedthrough opening and a second feedthrough opening , wherein the central section of the fuse wire is arranged within the hollow space of the fuse housing , the first end section of the fuse wire is extending through the first feedthrough opening , and the second end section of the fuse wire is extending through the second feedthrough opening , wherein, at the first feedthrough opening , an outer circumferential surface of the first end section of the fuse wire is in contact with an inner circumferential surface of the first feedthrough opening and seals the first feedthrough opening , and wherein, at the second feedthrough opening , an outer circumferential surface of the second end section of the fuse wire is in contact with an inner circumferential surface of the second feedthrough opening and seals the second feedthrough opening , wherein the enclosure is filled with a fluid and comprises a volume/pressure compensator which balances the pressure in the enclosure to the pressure prevailing in an environment of the enclosure , wherein a pressure inside the outer envelope is independent from a pressure prevailing outside the outer envelope. - an enclosure , and - an electric circuitry arranged within the enclosure , - a fuse housing , and - a fuse wire comprising a first end section , a second end section , and a central section along a longitudinal direction of the fuse wire,
A boron nitride nanotube, BNNT, based neutron detector comprising: a chamber; at least one photon detector positioned in the chamber; a scintillating material in the chamber; said detector being characterized in further comprising: a BNNT material positioned in the chamber; wherein the scintillating material is selected from the group consisting of a gas and a liquid and is dispersed in the BNNT material ; and wherein the at least one photon detector is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material produced by neutron absorption in the chamber. a chamber; at least one photon detector positioned in the chamber; a scintillating material in the chamber; said detector being characterized in further comprising: a BNNT material positioned in the chamber; wherein the scintillating material is selected from the group consisting of a gas and a liquid and is dispersed in the BNNT material ; and wherein the at least one photon detector is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material produced by neutron absorption in the chamber. a BNNT material positioned in the chamber; wherein the scintillating material is selected from the group consisting of a gas and a liquid and is dispersed in the BNNT material ; and wherein the at least one photon detector is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material produced by neutron absorption in the chamber.
A white organic light emitting device, WOLED, comprising a. an organic light-emitting device, OLED, comprising an electroluminescent medium, ELM, and b. a Bragg converter comprising pairs of alternating layers of high refractive index material and low refractive index material disposed immediately adjacent to the OLED, wherein the ELM comprises a single organic light emitting layer, EML, that emits light of a broad range with part of its emission located at ultraviolet, UV, and blue wavelengths and the Bragg converter that converts the light from the OLED to a different color by suppressing UV radiation by its stop band and enhancing outcoupling of the red-shifted emission through Bragg modes. a. an organic light-emitting device, OLED, comprising an electroluminescent medium, ELM, and b. a Bragg converter comprising pairs of alternating layers of high refractive index material and low refractive index material disposed immediately adjacent to the OLED,
A conductive roller in which plural resin layers are arranged on the outer circumference of a shaft , wherein the resin layers comprise at least a base layer and a surface layer from the inner circumferential side, the plural resin layers all have a loss tangent (tan δ) of 0.2 or less at a temperature of 40°C, and, among the plural resin layers, at least a pair of two adjacent layers satisfy a relationship of G'o ≤ G'i between the elastic modulus G'o of a layer positioned on the outer circumferential side and the elastic modulus G'i of a layer positioned on the inner circumferential side.
A fader including an operation device , the operation device comprising: a stationary portion ; a movable portion configured to move in a predetermined direction within a predetermined range; and a load adjuster configured to adjust a movement load of the movable portion , wherein the movable portion is provided with an elastic portion that is elastically deformable, and the load adjuster is provided to the stationary portion and comprises a press portion configured to press the elastic portion in a direction orthogonal to a moving direction of the movable portion ; the load adjuster comprises an adjustment controller configured to move the press portion to and away from the elastic portion , characterized in that the adjustment controller comprises: a rotational portion capable of being rotated; at least one convertor configured to convert a rotational movement of the rotational portion to a linear movement to move the press portion forward and backward; and a rotation restricting portion configured to restrict a rotational angle of the rotational portion to less than 360 degrees, wherein the at least one convertor of the adjustment controller comprises a plurality of convertors , and the adjustment controller is configured to transmit a pressing force to the press portion through parts of the press portion corresponding to the plurality of convertors . a stationary portion ; a movable portion configured to move in a predetermined direction within a predetermined range; and a load adjuster configured to adjust a movement load of the movable portion , wherein the movable portion is provided with an elastic portion that is elastically deformable, and the load adjuster is provided to the stationary portion and comprises a press portion configured to press the elastic portion in a direction orthogonal to a moving direction of the movable portion ; the load adjuster comprises an adjustment controller configured to move the press portion to and away from the elastic portion , characterized in that the adjustment controller comprises: a rotational portion capable of being rotated; at least one convertor configured to convert a rotational movement of the rotational portion to a linear movement to move the press portion forward and backward; and a rotation restricting portion configured to restrict a rotational angle of the rotational portion to less than 360 degrees, wherein the at least one convertor of the adjustment controller comprises a plurality of convertors , and the adjustment controller is configured to transmit a pressing force to the press portion through parts of the press portion corresponding to the plurality of convertors .
A method comprising: establishing a primary connection in a primary cell with a primary base station by a user equipment , UE, in a wireless communication network , wherein the primary cell comprises a first downlink, DL, component carrier, CC, and a first uplink, UL, CC; establishing a second connection in a secondary cell under either intra-band non-contiguous carrier aggregation, CA, or inter-band CA, wherein the secondary cell comprises a second DL CC; and receiving a physical-layer signaling for transmitting an UL transmission after a time period in response to a DL transmission; characterized in that the UE performs the UL transmission when the time period provided by the primary base station is at least equal to a UE processing time that is relaxed by a maximum timing difference between the first DL CC and the second DL CC of the CA. establishing a primary connection in a primary cell with a primary base station by a user equipment , UE, in a wireless communication network , wherein the primary cell comprises a first downlink, DL, component carrier, CC, and a first uplink, UL, CC; establishing a second connection in a secondary cell under either intra-band non-contiguous carrier aggregation, CA, or inter-band CA, wherein the secondary cell comprises a second DL CC; and receiving a physical-layer signaling for transmitting an UL transmission after a time period in response to a DL transmission; characterized in that the UE performs the UL transmission when the time period provided by the primary base station is at least equal to a UE processing time that is relaxed by a maximum timing difference between the first DL CC and the second DL CC of the CA.
A color changeable optical filter for eyeglasses comprising: two or more linear polarizers, each defining a polarization plane, and each containing a dichromatic pigment having different transition moments in a major axis direction and in a minor axis direction; and a frame that supports the two or more polarizers , wherein relative rotation of the polarization planes changes hue or chroma of transmitted light through the optical filter, and at least one of the two or more polarizers is a chromatic polarizer exhibiting its functions by virtue of the dichromatic pigment, and having a chroma value C ∗ of 10 or more. two or more linear polarizers, each defining a polarization plane, and each containing a dichromatic pigment having different transition moments in a major axis direction and in a minor axis direction; and a frame that supports the two or more polarizers , wherein relative rotation of the polarization planes changes hue or chroma of transmitted light through the optical filter, and at least one of the two or more polarizers is a chromatic polarizer exhibiting its functions by virtue of the dichromatic pigment, and having a chroma value C ∗ of 10 or more.
An image display device , comprising: a display panel switchable between an image display mode and a transmissive mode, the image display mode being a mode in which an image is displayed, the transmissive mode being a mode in which the display panel is in a transmissive state where an object behind the display panel is visible in a front view of the display panel ; a frame unit which includes an upper frame disposed along an upper edge of the display panel and protruding rearward; and a driver which includes a circuit unit and is supported by the upper frame on a bottom side of the upper frame , the circuit unit driving the display panel , characterized in that the frame unit includes a left frame and a right frame , the left frame being disposed along the left edge of the display panel , the right frame being disposed along the right edge of the display panel , and the driver further includes a support which supports the circuit unit , the support connecting the left frame and the right frame . a display panel switchable between an image display mode and a transmissive mode, the image display mode being a mode in which an image is displayed, the transmissive mode being a mode in which the display panel is in a transmissive state where an object behind the display panel is visible in a front view of the display panel ; a frame unit which includes an upper frame disposed along an upper edge of the display panel and protruding rearward; and a driver which includes a circuit unit and is supported by the upper frame on a bottom side of the upper frame , the circuit unit driving the display panel , characterized in that the frame unit includes a left frame and a right frame , the left frame being disposed along the left edge of the display panel , the right frame being disposed along the right edge of the display panel , and the driver further includes a support which supports the circuit unit , the support connecting the left frame and the right frame .
An electronic oven with a set of reflective elements for controlling a distribution of heat in the electronic oven , comprising: a chamber ; a microwave energy source coupled to an injection port in the chamber ; a set of dielectric spindles that extend through a set of perforations in the chamber ; a set of motors connected to the set of dielectric spindles; and a controller that controls the set of motors; wherein the set of reflective elements are held above a surface of the chamber by the set of dielectric spindles; wherein the set of motors rotate the set of reflective elements via the set of dielectric spindles; wherein the controller stores instructions that independently cause a rotation of each reflective element in the set of reflective elements using the set of motors; and wherein the set of motors, the set of reflective elements , and the set of dielectric spindles are each sets of at least three units. a chamber ; a microwave energy source coupled to an injection port in the chamber ; a set of dielectric spindles that extend through a set of perforations in the chamber ; a set of motors connected to the set of dielectric spindles; and a controller that controls the set of motors; wherein the set of reflective elements are held above a surface of the chamber by the set of dielectric spindles; wherein the set of motors rotate the set of reflective elements via the set of dielectric spindles; wherein the controller stores instructions that independently cause a rotation of each reflective element in the set of reflective elements using the set of motors; and wherein the set of motors, the set of reflective elements , and the set of dielectric spindles are each sets of at least three units.