mhurhangee/ep-ind-claims huggingface dataset:
An intraluminal apparatus for ultrasonic treatment of a blood vessel wall comprising: a catheter; and at least one ultrasound element mounted on the catheter, said element adapted for emitting non-focused ultrasound energy at a portion of the blood vessel wall and for receiving ultrasound signals from said blood vessel wall; and a controller, wherein the controller is configured to monitor a reflection from tissue of said blood vessel wall received by said ultrasound element and to control emission of ultrasound; said controller configured to change a function of said at least one ultrasound element to function as an emitter or as a receiver; said controller configured to control at least one of an intensity and a period of emission of ultrasound energy, and to stop emission upon detecting one of a predetermined change in said reflection and a predetermined change in the blood vessel wall. a catheter; and at least one ultrasound element mounted on the catheter, said element adapted for emitting non-focused ultrasound energy at a portion of the blood vessel wall and for receiving ultrasound signals from said blood vessel wall; and a controller, wherein the controller is configured to monitor a reflection from tissue of said blood vessel wall received by said ultrasound element and to control emission of ultrasound; said controller configured to change a function of said at least one ultrasound element to function as an emitter or as a receiver; said controller configured to control at least one of an intensity and a period of emission of ultrasound energy, and to stop emission upon detecting one of a predetermined change in said reflection and a predetermined change in the blood vessel wall.
A polymer production apparatus, comprising: a supplying unit containing a first supplying unit configured to supply raw materials containing at least a monomer, and a second supplying unit configured to supply a compressive fluid; a contacting unit configured to bring the monomer supplied from the first supplying unit and the compressive fluid supplied from the second supplying unit into contact with each other; and an outlet configured to discharge a reaction product of the monomer, wherein a reaction unit is provided between the contacting unit and the outlet, where the reaction unit is configured to pass the monomer from the side of the contacting unit to the side of the outlet, while allowing the monomer to carry out a polymerization reaction in the presence of the compressive fluid supplied from the second supplying unit, and wherein the reaction unit contains at least a circulation unit containing a first pipe and a second pipe, where the first pipe is a pipe through which a fluid containing the monomer and the compressive fluid is passed from the side of the contacting unit to the side of the outlet, and the second pipe is configured to return the fluid from a return port provided at an upstream side of an extrusion unit to an inlet provided at an upstream side of the return port. a supplying unit containing a first supplying unit configured to supply raw materials containing at least a monomer, and a second supplying unit configured to supply a compressive fluid; a contacting unit configured to bring the monomer supplied from the first supplying unit and the compressive fluid supplied from the second supplying unit into contact with each other; and an outlet configured to discharge a reaction product of the monomer, wherein a reaction unit is provided between the contacting unit and the outlet, where the reaction unit is configured to pass the monomer from the side of the contacting unit to the side of the outlet, while allowing the monomer to carry out a polymerization reaction in the presence of the compressive fluid supplied from the second supplying unit, and wherein the reaction unit contains at least a circulation unit containing a first pipe and a second pipe, where the first pipe is a pipe through which a fluid containing the monomer and the compressive fluid is passed from the side of the contacting unit to the side of the outlet, and the second pipe is configured to return the fluid from a return port provided at an upstream side of an extrusion unit to an inlet provided at an upstream side of the return port.
A connecting mechanism between an aircraft door and a structure of the aircraft comprising: - an arm intended to be hinged on to the structure; - a rotating connection assembly between the door and the arm; in which the rotating connection assembly may be disengaged from a connection configuration for connecting the door with the arm in an open position of the door, into an uncoupling configuration for uncoupling of the door from the arm, in a closed door position of the door, in which the rotating connection assembly includes a movable shaft that is movable in translational motion in relation to the arm along an axis of movement (C-C') between a first connected position connected to the arm in the connection configuration and a second released position released from the arm in the uncoupling configuration, in which the rotating connection assembly includes at least one support member fixed on to the arm, the shaft defining at least one region of cooperation (52, 54) for cooperating with the support member, the support member being applied on to the region of cooperation (52, 54) in the first position, the support member being entirely disposed apart from the shaft in the second position, and characterized in that the shaft comprises at least one narrowed region (58, 60) adjacent to the cooperation region (52, 54), the support member being disposed so as to face the narrowed region (58, 60), apart from the latter in the second position. - an arm intended to be hinged on to the structure; - a rotating connection assembly between the door and the arm;
A method of controlling power production of a wind power plant (WPP, 200) comprising a plurality of wind turbine generators (WTG, 100, 100-n), the method comprising: defining, based on received wind information (240, 245), a wind wake zone comprising a group of first wind turbine generators of the plurality of wind turbine generators; and increasing a reactive power production of at least one of the first wind turbine generators of the wind wake zone, wherein a reactive power production is increased for at least two of the one or more first wind turbine generators, wherein an amount of reactive power increase of the at least two of the one or more first wind turbine generators is based on relative active power ratings of the at least two of the one or more first wind turbine generators, so that at least two of the one or more first wind turbine generators disposed within the wind wake zone are controlled to provide a relatively greater reactive power than wind turbine generators outside the wind wake zone. defining, based on received wind information (240, 245), a wind wake zone comprising a group of first wind turbine generators of the plurality of wind turbine generators; and increasing a reactive power production of at least one of the first wind turbine generators of the wind wake zone, wherein a reactive power production is increased for at least two of the one or more first wind turbine generators, wherein an amount of reactive power increase of the at least two of the one or more first wind turbine generators is based on relative active power ratings of the at least two of the one or more first wind turbine generators, so that at least two of the one or more first wind turbine generators disposed within the wind wake zone are controlled to provide a relatively greater reactive power than wind turbine generators outside the wind wake zone.
A phosphor element (1, 11, 21, 31, 41) comprising: a support substrate; an optical waveguide (6, 6A, 6B, 6C, 6D) for propagating an excitation light through said optical waveguide (6, 6A, 6B, 6C, 6D), said optical waveguide (6, 6A, 6B, 6C, 6D) comprising a phosphor generating a fluorescence (C, E, F), and said optical waveguide (6, 6A, 6B, 6C, 6D) comprising an emission side end surface emitting said excitation light and said fluorescence (C, E, F), an opposing end surface opposing said emission side end surface, a bottom surface, a top surface opposing said bottom surface and a pair of side surfaces (6c, 6d); a bottom surface side clad layer covering said bottom surface of said optical waveguide (6, 6A, 6B, 6C, 6D); a top surface side clad layer covering said top surface of said optical waveguide (6, 6A, 6B, 6C, 6D); side surface side clad layers (5C, 5D) covering said side surfaces (6c, 6d) of said optical waveguide (6, 6A, 6B, 6C, 6D), respectively; a top surface side reflection film covering said top surface side clad layer; side surface side reflection films (4C, 4D) covering said side surface side clad layers (5C, 5D), respectively; and a bottom surface side reflection film provided between said support substrate and said bottom surface side clad layer, wherein each reflection film (4A, 4B, 4C, 4D) is arranged to reflect the fluorescence (C, E, F) generated by the phosphor. a support substrate; an optical waveguide (6, 6A, 6B, 6C, 6D) for propagating an excitation light through said optical waveguide (6, 6A, 6B, 6C, 6D), said optical waveguide (6, 6A, 6B, 6C, 6D) comprising a phosphor generating a fluorescence (C, E, F), and said optical waveguide (6, 6A, 6B, 6C, 6D) comprising an emission side end surface emitting said excitation light and said fluorescence (C, E, F), an opposing end surface opposing said emission side end surface, a bottom surface, a top surface opposing said bottom surface and a pair of side surfaces (6c, 6d); a bottom surface side clad layer covering said bottom surface of said optical waveguide (6, 6A, 6B, 6C, 6D); a top surface side clad layer covering said top surface of said optical waveguide (6, 6A, 6B, 6C, 6D); side surface side clad layers (5C, 5D) covering said side surfaces (6c, 6d) of said optical waveguide (6, 6A, 6B, 6C, 6D), respectively; a top surface side reflection film covering said top surface side clad layer; side surface side reflection films (4C, 4D) covering said side surface side clad layers (5C, 5D), respectively; and a bottom surface side reflection film provided between said support substrate and said bottom surface side clad layer, wherein each reflection film (4A, 4B, 4C, 4D) is arranged to reflect the fluorescence (C, E, F) generated by the phosphor.
An electronic apparatus for wireless communications, comprising: processing circuitry (101, 102, 103, 104), configured to: determine whether a relevant parameter of an available component carrier in a sidelink meets a predetermined condition; and in a case of the relevant parameter meeting the predetermined condition, configure the available component carrier to be a secondary carrier for carrier aggregation in the sidelink; the electronic apparatus characterised in that said electronic apparatus is used for a first network node on one side of the sidelink, and the processing circuitry is configured to cooperate with a second network node on the other side of the sidelink to perform the carrier aggregation, wherein the processing circuitry is configured to share basic information of respective network nodes between the first network node and the second network node, and determine, at least based on the basic information, whether to perform the carrier aggregation, wherein the basic information comprises one or more of the following: a type of the network node, a moving speed of the network node, a geographical location of the network node, capability of the network node, transceiving link status of the network node, and transceiving link occupation status, wherein the processing circuitry is further configured to determine, based on the shared basic information of the network nodes, that decision operations in the carrier aggregation are to be performed by the first network node, and cooperates with the second network node to achieve agreement. determine whether a relevant parameter of an available component carrier in a sidelink meets a predetermined condition; and in a case of the relevant parameter meeting the predetermined condition, configure the available component carrier to be a secondary carrier for carrier aggregation in the sidelink; the electronic apparatus characterised in that said electronic apparatus is used for a first network node on one side of the sidelink, and the processing circuitry is configured to cooperate with a second network node on the other side of the sidelink to perform the carrier aggregation, wherein the processing circuitry is configured to share basic information of respective network nodes between the first network node and the second network node, and determine, at least based on the basic information, whether to perform the carrier aggregation, wherein the basic information comprises one or more of the following: a type of the network node, a moving speed of the network node, a geographical location of the network node, capability of the network node, transceiving link status of the network node, and transceiving link occupation status, wherein the processing circuitry is further configured to determine, based on the shared basic information of the network nodes, that decision operations in the carrier aggregation are to be performed by the first network node, and cooperates with the second network node to achieve agreement.
A multifunction vacuum cleaner comprising: - a container body (2, 3) in which the following are disposed: - a suction unit of air flows and materials from the outside; - an inlet and an outlet of sucked air flows; - a filtration path of the air flows and sucked materials sucked by said suction unit defined between said inlet and said outlet; - filter means of sucked air flows arranged along said filtration path; - a storage tank of materials sucked from the outside and filtered by said filter means; - a steam production unit arranged in said container body; and - transport means (28, 29) to the outside of said container body of produced steam characterized in that said container body comprises sound-proofing means of at least said suction unit. - a container body (2, 3) in which the following are disposed: - a suction unit of air flows and materials from the outside; - an inlet and an outlet of sucked air flows; - a filtration path of the air flows and sucked materials sucked by said suction unit defined between said inlet and said outlet; - filter means of sucked air flows arranged along said filtration path; - a storage tank of materials sucked from the outside and filtered by said filter means; - a steam production unit arranged in said container body; and - transport means (28, 29) to the outside of said container body of produced steam
A method comprising: determining, by a network node, whether a cell on a backward compatible first carrier of a first type is to be used as a reference cell, wherein the first carrier and a second carrier of a new carrier type are synchronized and part of a carrier aggregation, and wherein the reference cell is at least one selected from among a pathloss reference cell and a timing reference cell; sending, by the network node to a mobile device, information regarding the second carrier of the new carrier type in an RRC message, wherein the second carrier of the new carrier type does not carry primary synchronization signals, PSS, or secondary synchronization signals, SSS; sending, by the network node to the mobile device, information indicating whether the cell on the first carrier of the first type is to be used as the reference cell; sending, by the network node to the mobile device, configuration information regarding whether the mobile device is to monitor an enhanced control channel; determining, by the network node, a delay value associated with modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation; and sending, by the network node to the mobile device, the delay value. determining, by a network node, whether a cell on a backward compatible first carrier of a first type is to be used as a reference cell, wherein the first carrier and a second carrier of a new carrier type are synchronized and part of a carrier aggregation, and wherein the reference cell is at least one selected from among a pathloss reference cell and a timing reference cell; sending, by the network node to a mobile device, information regarding the second carrier of the new carrier type in an RRC message, wherein the second carrier of the new carrier type does not carry primary synchronization signals, PSS, or secondary synchronization signals, SSS; sending, by the network node to the mobile device, information indicating whether the cell on the first carrier of the first type is to be used as the reference cell; sending, by the network node to the mobile device, configuration information regarding whether the mobile device is to monitor an enhanced control channel; determining, by the network node, a delay value associated with modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation; and sending, by the network node to the mobile device, the delay value.
A method of forming a dental appliance, comprising: forming, in a processor of a computing device, a virtual arch element using physical data of a palate and a number of teeth of a patient, wherein the virtual arch element is wider than an arch width of the number of teeth of a first jaw of the patient, specific to a stage of a treatment plan, wherein the physical data of the palate defines palatal contours, and wherein the virtual arch element is offset in the vertical dimension from the palatal contours to form a gap between the palate and the virtual arch element so that any appliance which is formed over the model is slightly raised in comparison to the actual contours of the palate; forming, in a processor of a computing device, one or more virtual tooth engagement structures connected to the virtual arch element, and wherein each virtual tooth engagement structure contacts a surface of a virtual tooth and imparts a virtual force thereto; and forming by thermoforming or by direct fabrication, a physical arch element based on the virtual arch element and one or more physical tooth engagement structures connected to the physical arch element. forming, in a processor of a computing device, a virtual arch element using physical data of a palate and a number of teeth of a patient, wherein the virtual arch element is wider than an arch width of the number of teeth of a first jaw of the patient, specific to a stage of a treatment plan, wherein the physical data of the palate defines palatal contours, and wherein the virtual arch element is offset in the vertical dimension from the palatal contours to form a gap between the palate and the virtual arch element so that any appliance which is formed over the model is slightly raised in comparison to the actual contours of the palate; forming, in a processor of a computing device, one or more virtual tooth engagement structures connected to the virtual arch element, and wherein each virtual tooth engagement structure contacts a surface of a virtual tooth and imparts a virtual force thereto; and forming by thermoforming or by direct fabrication, a physical arch element based on the virtual arch element and one or more physical tooth engagement structures connected to the physical arch element.
A buoy device for a marine hose or the like; wherein the buoy device is configured to at least partly enclose said hose; wherein the buoy device comprises a shell unit and a bladder unit which is arranged within the shell unit and which is inflatable and/or deflatable by means of a fluid in order to adjust the buoyancy of the buoy device during use; characterised in that the bladder unit comprises a first bladder element and a second bladder element; and wherein the first bladder element is arranged within a first shell element and the second bladder element is arranged within a second shell element.
A lithium-containing transition metal oxide-based cylindrical hollow target body adapted for use in a sputtering target assembly, said cylindrical hollow target body being suitable for bonding on a backing tube so to form said sputtering target assembly, said cylindrical hollow target body having a relative density value ≥ 90.0%, and wherein said lithium-containing transition metal oxide consists of a lithium transition metal oxide microstructure that contains a bimodal grain size distribution.
A plastic cushion pan with a groove structure which provides the required resistance criteria in seat systems by providing support on 3 sides, comprises a groove structure with a first groove (2.1) which prevents the plastic cushion pan from breaking by ensuring that the load distribution which occurs against the passenger movement during collision spreads across the plastic cushion pan characterized in, - that the first groove (2.1) has a double groove which extends in a "V" form from the point H-point onwards, the position of which on the plastic cushion pan is determined depending on customer requests and international regulations and which is taken as the center, to the right of this point at an angle of "4 x A° ± 10" and to the left of this point at an angle of "4 x A° ± 10" and proceeds in parallel to each other, and a single groove extending backwards from this point by taking the H-point as the center and - that the groove structure comprises at least a second groove (2.2) on the right and left of the V-formed first channel (2.1) and extending parallel to the first channel (2.1). - that the first groove (2.1) has a double groove which extends in a "V" form from the point H-point onwards, the position of which on the plastic cushion pan is determined depending on customer requests and international regulations and which is taken as the center, to the right of this point at an angle of "4 x A° ± 10" and to the left of this point at an angle of "4 x A° ± 10" and proceeds in parallel to each other, and a single groove extending backwards from this point by taking the H-point as the center and - that the groove structure comprises at least a second groove (2.2) on the right and left of the V-formed first channel (2.1) and extending parallel to the first channel (2.1).
A process for preparing 5-methyl-1-phenyl-2 -pyridone (pirfenidone) of formula comprising the N -arylation reaction of a pyridone of formula with a compound of formula, wherein X is a halogen atom, and wherein the reaction is carried out in presence of a copper salt of formula CuY, wherein Y is a halogen, of a base and of a polar protic solvent, wherein the polar protic solvent is an alcohol selected from 1-butanol, 2-butanol, tert- butanol, 1-pentanol, 2-pentanol, 3-pentanol, 1-cyclohexanol, 1-heptanol, ethylene glycol, glycerin.