mhurhangee/patent-ind-claim-en huggingface dataset:
A dual connectivity data replication controlling method in a wireless communication system , comprising: receiving, by a user equipment, a first media access control, MAC, control element, CE, sent by a first network node, and receiving a second MAC CE sent by a second network node; and activating or deactivating , by the user equipment, data replication based on the first MAC CE and the second MAC CE; characterized in that the activating or deactivating , by the user equipment, data replication based on the first MAC CE and the second MAC CE, comprises: in a case where the first MAC CE activates the data replication, and the second MAC CE activates the data replication, activating, by the user equipment, the data replication; in a case where the first MAC CE deactivates the data replication, and the second MAC CE activates the data replication, deactivating, by the user equipment, the data replication; in a case where the first MAC CE activates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication; and in a case where the first MAC CE deactivates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication. receiving, by a user equipment, a first media access control, MAC, control element, CE, sent by a first network node, and receiving a second MAC CE sent by a second network node; and activating or deactivating , by the user equipment, data replication based on the first MAC CE and the second MAC CE; characterized in that the activating or deactivating , by the user equipment, data replication based on the first MAC CE and the second MAC CE, comprises: in a case where the first MAC CE activates the data replication, and the second MAC CE activates the data replication, activating, by the user equipment, the data replication; in a case where the first MAC CE deactivates the data replication, and the second MAC CE activates the data replication, deactivating, by the user equipment, the data replication; in a case where the first MAC CE activates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication; and in a case where the first MAC CE deactivates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication. in a case where the first MAC CE activates the data replication, and the second MAC CE activates the data replication, activating, by the user equipment, the data replication; in a case where the first MAC CE deactivates the data replication, and the second MAC CE activates the data replication, deactivating, by the user equipment, the data replication; in a case where the first MAC CE activates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication; and in a case where the first MAC CE deactivates the data replication, and the second MAC CE deactivates the data replication, deactivating, by the user equipment, the data replication.
A lightweight sound-absorbing and fire-resistant insulation panel comprising: a binder; expanded graphite; and swelling clays, wherein the swelling clays are formed of honeycomb-shaped layered clays containing water molecules in interlayers characterized in that the swelling clays have particle sizes in the range of 50 to 200 μm, wherein the distance between the layers of clays is swelled as much as 20 times to 50 times. a binder; expanded graphite; and swelling clays, wherein the swelling clays are formed of honeycomb-shaped layered clays containing water molecules in interlayers characterized in that the swelling clays have particle sizes in the range of 50 to 200 μm, wherein the distance between the layers of clays is swelled as much as 20 times to 50 times.
A method for obtaining an antibody from an avian B cell antibody library, comprising the following steps (a) to (d): (a) a step of allowing an avian B cell antibody library to come into contact with an antigen in the presence of a calcineurin inhibitor and avian serum, (b) a step of selecting avian B cells that bind to the antigen in the step (a) in the presence of a calcineurin inhibitor and avian serum, (c) a step of culturing the avian B cells selected in the step (b) in the presence of a calcineurin inhibitor and avian serum, and (d) a step of obtaining the avian B cells obtained through the step (c) and an antibody expressed by the avian B cells. (a) a step of allowing an avian B cell antibody library to come into contact with an antigen in the presence of a calcineurin inhibitor and avian serum, (b) a step of selecting avian B cells that bind to the antigen in the step (a) in the presence of a calcineurin inhibitor and avian serum, (c) a step of culturing the avian B cells selected in the step (b) in the presence of a calcineurin inhibitor and avian serum, and (d) a step of obtaining the avian B cells obtained through the step (c) and an antibody expressed by the avian B cells.
A system comprising: a blade enclosure ; a midplane within the blade enclosure , the midplane supporting at least a first sleeve connector , said first sleeve connector having a first side and a second side; a server blade installed in the front of the blade enclosure , the server blade comprising a first component and a second component , one or more enclosure fans in the rear of the blade enclosure, configured to provide a primary air flow path which draws air into the server blade from the front of the blade enclosure and exhausts air to the rear of the blade enclosure ; the server blade further comprising an air duct within which the second component is arranged, the air duct being coupled to the first side of the first sleeve connector ; and a cooling module located in the rear of the blade enclosure , the cooling module comprising an air manifold , the air manifold coupled to the second side of the first sleeve connector to deliver cool air to the air duct of the server blade , the cooling module drawing cool air into the blade enclosure from the front of the enclosure through enclosure side-channels, wherein the air delivered to the air duct of the server blade flows, in at least a portion of the air duct , in a different direction to the primary air flow path across the server blade . a blade enclosure ; a midplane within the blade enclosure , the midplane supporting at least a first sleeve connector , said first sleeve connector having a first side and a second side; a server blade installed in the front of the blade enclosure , the server blade comprising a first component and a second component , one or more enclosure fans in the rear of the blade enclosure, configured to provide a primary air flow path which draws air into the server blade from the front of the blade enclosure and exhausts air to the rear of the blade enclosure ; the server blade further comprising an air duct within which the second component is arranged, the air duct being coupled to the first side of the first sleeve connector ; and a cooling module located in the rear of the blade enclosure , the cooling module comprising an air manifold , the air manifold coupled to the second side of the first sleeve connector to deliver cool air to the air duct of the server blade , the cooling module drawing cool air into the blade enclosure from the front of the enclosure through enclosure side-channels, wherein the air delivered to the air duct of the server blade flows, in at least a portion of the air duct , in a different direction to the primary air flow path across the server blade .
A stator ring for an electric generator , in particular a synchronous generator or ring generator of a wind power installation , comprising - a plurality of grooves for receiving the stator winding (W), and - a magnetic yoke (J), wherein in the region of the magnetic yoke the stator ring has at least one cooling recess having two mutually opposite cooling walls , and a first and a second heat sink arranged in the cooling recess which have respective mutually facing wedge surfaces which slide against each other and respectively opposite the wedge surface a thermal coupling surface which faces towards the cooling walls for dissipating heat energy from one of the cooling walls and are displaced relative to each other in such a way that the thermal coupling surfaces are pressed against the cooling walls. - a plurality of grooves for receiving the stator winding (W), and - a magnetic yoke (J), wherein
An electrowetting element comprising a first fluid and a second fluid which are immiscible with each other and are switchable between a first configuration and a second configuration by application of a voltage across at least one of the first and second fluids, the second fluid comprising: an anthraquinone dye having the general formula: wherein any of T, U, V, W, X, Y, Z is any functional group, and wherein S is a branched alkyl amine. wherein any of T, U, V, W, X, Y, Z is any functional group, and wherein S is a branched alkyl amine.
Apparatus comprising; - a dynamically heated chamber ; - a reactor , wherein an outlet of the dynamically heated chamber is coupled to a reactor inlet; - an isotope ratio spectrometer , wherein an outlet of the reactor is coupled to a spectrometer inlet; such that a gas flow path is provided from the dynamically heated chamber to the isotope ratio spectrometer, wherein a first selective gas trap is included in the gas flow path between the reactor and the spectrometer, and a second selective gas trap in the gas flow path between the dynamically heated chamber and the reactor; wherein each selective gas trap comprises a sorbent material that selectively and reversibly sorbs one or more gases present in the gas flow in use. - a dynamically heated chamber ; - a reactor , wherein an outlet of the dynamically heated chamber is coupled to a reactor inlet; - an isotope ratio spectrometer , wherein an outlet of the reactor is coupled to a spectrometer inlet;
A uterine manipulator, comprising: a clamp arrangement having at least one first tip and at least one second tip wherein the first and second tips are configured to hold the uterus in place during surgery; and a colpotomy ring arrangement , including: a proximal end configured to be coupled to the clamp arrangement on or at the at least one first tip when the clamp arrangement is in an opened position, and a distal end including at least one opening in an outer surface thereof characterized in that the at least one opening extends from an outermost edge of the distal end towards the proximal end, the at least one opening being provided and configured for insertion of the at least one second tip therethrough when the clamp arrangement is moved into a closed position so that the at least one second tip extends up to or past the outermost edge of the distal end. a clamp arrangement having at least one first tip and at least one second tip wherein the first and second tips are configured to hold the uterus in place during surgery; and a colpotomy ring arrangement , including: a proximal end configured to be coupled to the clamp arrangement on or at the at least one first tip when the clamp arrangement is in an opened position, and a distal end including at least one opening in an outer surface thereof characterized in that the at least one opening extends from an outermost edge of the distal end towards the proximal end, the at least one opening being provided and configured for insertion of the at least one second tip therethrough when the clamp arrangement is moved into a closed position so that the at least one second tip extends up to or past the outermost edge of the distal end. a proximal end configured to be coupled to the clamp arrangement on or at the at least one first tip when the clamp arrangement is in an opened position, and a distal end including at least one opening in an outer surface thereof characterized in that the at least one opening extends from an outermost edge of the distal end towards the proximal end, the at least one opening being provided and configured for insertion of the at least one second tip therethrough when the clamp arrangement is moved into a closed position so that the at least one second tip extends up to or past the outermost edge of the distal end.
An array antenna, comprising: - a plurality of mechanically separate radiating panels (300-1, 300-N) arranged side-by-side, each radiating panel comprising a plurality of radiating elements (301-1, 30M-1, 301-N, 30M-N), - means (351-1, 35M-1, 351-N, 35M-N) for applying a shaping to radio frequency signals transmitted by or received from each radiating element, and - a device for managing the radio frequency signal shaping application means, wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co ) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c ) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. - a plurality of mechanically separate radiating panels (300-1, 300-N) arranged side-by-side, each radiating panel comprising a plurality of radiating elements (301-1, 30M-1, 301-N, 30M-N), - means (351-1, 35M-1, 351-N, 35M-N) for applying a shaping to radio frequency signals transmitted by or received from each radiating element, and - a device for managing the radio frequency signal shaping application means, wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co ) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c ) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co ) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c ) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. ∘ a shaping coefficient ( W co ) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c ) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna.
A method of manufacturing a double-walled tube, comprising: super plastically forming inner structures of the double-walled tube; and diffusion bonding an outer wall, an inner wall, and the inner structures of the double-walled tube, the super plastically forming and diffusion bonding further comprising: arranging substantially intimately concentric seamless tubings ; stitch welding the seamless tubings with a rolled tubing seam welder to create a stitch layer including a stitch pattern ; circumferentially seam welding the outer wall to the inner wall and the stitch layer to create a welded tube assembly such that the outer wall and the inner wall are concentric; inserting a cylinder die into the welded tube assembly ; placing the welded tube assembly into a heated die ; bringing the welded tube assembly up to temperature ; pressurizing the welded tube assembly to form the inner structures according to the stitch pattern ; holding pressure for a diffusion bond process between the outer wall and the inner wall ; and removing a resulting tube part from the heated die and cooling the resulting tube part . super plastically forming inner structures of the double-walled tube; and diffusion bonding an outer wall, an inner wall, and the inner structures of the double-walled tube, the super plastically forming and diffusion bonding further comprising: arranging substantially intimately concentric seamless tubings ; stitch welding the seamless tubings with a rolled tubing seam welder to create a stitch layer including a stitch pattern ; circumferentially seam welding the outer wall to the inner wall and the stitch layer to create a welded tube assembly such that the outer wall and the inner wall are concentric; inserting a cylinder die into the welded tube assembly ; placing the welded tube assembly into a heated die ; bringing the welded tube assembly up to temperature ; pressurizing the welded tube assembly to form the inner structures according to the stitch pattern ; holding pressure for a diffusion bond process between the outer wall and the inner wall ; and removing a resulting tube part from the heated die and cooling the resulting tube part . arranging substantially intimately concentric seamless tubings ; stitch welding the seamless tubings with a rolled tubing seam welder to create a stitch layer including a stitch pattern ; circumferentially seam welding the outer wall to the inner wall and the stitch layer to create a welded tube assembly such that the outer wall and the inner wall are concentric; inserting a cylinder die into the welded tube assembly ; placing the welded tube assembly into a heated die ; bringing the welded tube assembly up to temperature ; pressurizing the welded tube assembly to form the inner structures according to the stitch pattern ; holding pressure for a diffusion bond process between the outer wall and the inner wall ; and removing a resulting tube part from the heated die and cooling the resulting tube part .
A lamp for a vehicle, comprising: a lamp module , comprising: a light emitting unit, and a Digital Micro-mirror Device (DMD) module; an interface unit configured to receive driving situation information; and a processor configured to control a resolution of output light from the lamp module based on the driving situation information by controlling the DMD module, wherein the resolution of output is an output light-controllable region in a light distribution area, wherein the processor is configured to acquire information on an object located outside of the vehicle and to control the resolution of output light from the lamp module based on the information on the object, wherein the processor is configured to acquire information on a region defined by lines on a roadway and to control the resolution of output light emitted to the region defined by the lines, wherein the region defined by the lines is a crosswalk, wherein the processor is configured to increase the resolution of output light emitted to the crosswalk. a lamp module , comprising: a light emitting unit, and a Digital Micro-mirror Device (DMD) module; a light emitting unit, and a Digital Micro-mirror Device (DMD) module; an interface unit configured to receive driving situation information; and a processor configured to control a resolution of output light from the lamp module based on the driving situation information by controlling the DMD module, wherein the resolution of output is an output light-controllable region in a light distribution area, wherein the processor is configured to acquire information on an object located outside of the vehicle and to control the resolution of output light from the lamp module based on the information on the object, wherein the processor is configured to acquire information on a region defined by lines on a roadway and to control the resolution of output light emitted to the region defined by the lines, wherein the region defined by the lines is a crosswalk, wherein the processor is configured to increase the resolution of output light emitted to the crosswalk.
Migalastat or salt thereof for use in stabilizing cardiac function in an enzyme replacement therapy (ERT)-experienced patient having Fabry disease, wherein the patient is administered 123 mg free base equivalent (FBE) of the migalastat or salt thereof every other day.
A cooling box 1 for a metallurgical furnace comprising an elongated hollow body extending from a front end , to an opposite rear end , said rear end being, in use, connected to a wall of the furnace; the body having external walls comprising a top wall , an opposite bottom wall , and peripheral walls connecting the edges of the top and bottom walls of the body; the body further comprising an inner chamber having a cooling circuit configured to receive a flow of coolant fluid therein between at least one inlet and at least one outlet ; said cooling box further comprising at least one partition plate fitted in the inner chamber through a form-fit connection to form said cooling circuit , wherein the partition plate , extends from the top wall , to the bottom wall ; the top and bottom walls respectively comprising at least one slot facing one another to receive the partition plate. the body having external walls comprising a top wall , an opposite bottom wall , and peripheral walls connecting the edges of the top and bottom walls of the body; the body further comprising an inner chamber having a cooling circuit configured to receive a flow of coolant fluid therein between at least one inlet and at least one outlet ; said cooling box further comprising at least one partition plate fitted in the inner chamber through a form-fit connection to form said cooling circuit , wherein the partition plate , extends from the top wall , to the bottom wall ; the top and bottom walls respectively comprising at least one slot facing one another to receive the partition plate.