mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: transmitting information from a first parameter set contained in a first network abstraction layer unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter a least for use in decoding multiple layers of the video sequences; transmitting supplemental information from a second NAL unit having a specific NAL unit type code, the second NAL unit corresponding to one layer of said multiple layers, and the supplemental information from the second NAL unit indicating (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer-dependent information for use in decoding said one layer of said multiple layers; and transmitting data representing said one layer of said multiple layers. transmitting information from a first parameter set contained in a first network abstraction layer unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter a least for use in decoding multiple layers of the video sequences; transmitting supplemental information from a second NAL unit having a specific NAL unit type code, the second NAL unit corresponding to one layer of said multiple layers, and the supplemental information from the second NAL unit indicating (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer-dependent information for use in decoding said one layer of said multiple layers; and transmitting data representing said one layer of said multiple layers.
A load balancing method, comprising: a control apparatus receiving load balancing coefficients of all cells which belong to a plurality of base stations; the control apparatus ranking all the cells according to values of the load balancing coefficients and determining a cell with a highest load balancing coefficient; and the control apparatus sending a ranking result to a base station corresponding to the cell with the highest load balancing coefficient, characterized in that before the control apparatus receiving the load balancing coefficients of all cells which belong to a plurality of base stations, the method further comprises: the control apparatus periodically receiving load balancing coefficients of a current cycle sent by the plurality of base stations, wherein the load balancing coefficients of the current cycle are obtained according to the following steps: each base station in the plurality of base stations periodically calculating current-cycle load balancing coefficients of all cells which belong to the base station, and sending the load balancing coefficients of the current cycle to the control apparatus. a control apparatus receiving load balancing coefficients of all cells which belong to a plurality of base stations; the control apparatus ranking all the cells according to values of the load balancing coefficients and determining a cell with a highest load balancing coefficient; and the control apparatus sending a ranking result to a base station corresponding to the cell with the highest load balancing coefficient, characterized in that before the control apparatus receiving the load balancing coefficients of all cells which belong to a plurality of base stations, the method further comprises: the control apparatus periodically receiving load balancing coefficients of a current cycle sent by the plurality of base stations, wherein the load balancing coefficients of the current cycle are obtained according to the following steps: each base station in the plurality of base stations periodically calculating current-cycle load balancing coefficients of all cells which belong to the base station, and sending the load balancing coefficients of the current cycle to the control apparatus.
Device for suctioning and/or blowing out a component, in particular a thin-walled component, in particular a column cladding, which is to be processed by a laser scanner, producing vapours, comprising at least one switchable suction valve, which is to be opened and closed by means of a control device so that, in the event of vapours occurring in a predetermined area the suction flap assigned to the area shall be activated and the vapours sucked and/or blown out, characterised by the fact that further parts are to be sucked by a rotary axis in the longitudinal direction of the suction device.
A buoyancy control device for scuba diving comprising an air bladder, a harness comprising at least two shoulder straps and an abdominal strap made up of two abdominal half-straps, a backrest provided with first slots engaged by said abdominal half-straps, second slots engaged by at least one retaining strap for retaining at least one air cylinder, one or more third slots engaged by said two shoulder straps, characterised in that said backrest comprises one or more fourth slots (140, 141, 142) engaged by corresponding straps (150, 151, 152) for connecting said backrest to said air bladder.
Process for producing a thermally conductive composition, in particular a paste, comprising the following steps: a) providing a dispersion of at least one thermally conductive filler material in at least one polymerizable medium using at least one vegetable and/or animal oil, and b) Polymerization of the dispersion obtained in step a). a) providing a dispersion of at least one thermally conductive filler material in at least one polymerizable medium using at least one vegetable and/or animal oil, and b) Polymerization of the dispersion obtained in step a).
An antenna device configured to be mounted on a base plate, comprising: an antenna element; a base made of metal and mounted thereon with the antenna element; and a magnetic body provided on a lower surface of the base and configured to be disposed between the base and the base plate; a power supply cylindrical portion extending downward from the base, wherein the magnetic body is disposed at least around the power supply cylindrical portion, characterized in that the power supply cylindrical portion is a metal component integral with the base. an antenna element; a base made of metal and mounted thereon with the antenna element; and a magnetic body provided on a lower surface of the base and configured to be disposed between the base and the base plate; a power supply cylindrical portion extending downward from the base, wherein the magnetic body is disposed at least around the power supply cylindrical portion, characterized in that the power supply cylindrical portion is a metal component integral with the base.
Pharmaceutical dosage form comprising a combination of (a) at least one astringent active substance and (b) at least one mucilaginous drug, wherein the mucilaginous drug is selected from Icelandic moss, mallow, lance leaf plantain, marshmallow and coltsfoot, and wherein the astringent active substance is selected from alum, tannin, policresulen and silver nitrate.
A biocompatible mesh composition comprising: a mesh having a multi-layered molecular coating of hyaluronic acids, wherein the primary hydroxyl (-OH) groups of hyaluronic acids are cross-linked with the -OH containing groups on the mesh via a homobifunctional cross-linking agent, and the primary hydroxyl (-OH) groups of hyaluronic acids are also cross-linked to each other via the homobifunctional cross-linking agent.
Dispenser head for a dispensing system for a pressurised product, said head comprising a body having a mounting shaft of said head on a pressurised product supply tube and a housing in communication with said shaft, said housing being equipped with an insert around which is arranged a sleeve to form a product dispensing passage between said shaft and a dispensing aperture formed in one wall of said sleeve which is arranged facing one wall of said insert, said head being characterised in that the wall of the sleeve has an external surface intended to be in contact with the product, said external surface comprising metallic copper.
A vaporization type humidification unit comprising: a vaporization unit configured to evaporate moisture; a first blower configured to perform one of the following: suck a humidification air humidified by the vaporization unit, or discharge air toward the vaporization unit; a transport tube connected to the first blower and through which the air discharged from the first blower is transported; a second blower connected to the transport tube and discharging the humidification air discharged from the first blower side toward outside; an opening configured to take in and release outside air and provided in a middle of the transport tube; a humidity measurement unit installed on a discharging side of the second blower; and a control unit configured to control an air flow rate discharged from the first blower and the second blower, wherein the control unit controls the air flow rate discharged from the second blower to a desired value and controls the air flow rate discharged from the first blower based on a humidity measured by the humidity measurement unit. a vaporization unit configured to evaporate moisture; a first blower configured to perform one of the following: suck a humidification air humidified by the vaporization unit, or discharge air toward the vaporization unit; suck a humidification air humidified by the vaporization unit, or discharge air toward the vaporization unit; a transport tube connected to the first blower and through which the air discharged from the first blower is transported; a second blower connected to the transport tube and discharging the humidification air discharged from the first blower side toward outside; an opening configured to take in and release outside air and provided in a middle of the transport tube; a humidity measurement unit installed on a discharging side of the second blower; and a control unit configured to control an air flow rate discharged from the first blower and the second blower, wherein the control unit controls the air flow rate discharged from the second blower to a desired value and controls the air flow rate discharged from the first blower based on a humidity measured by the humidity measurement unit.
A method for assigning resources to user equipment for a beam failure recovery by a base station, comprising: identifying a beam failure random access channel (BRACH) resource holding beam correspondence with a synchronization signal block resource covering the user equipment; and assigning the user equipment one or more BRACH preambles for each BRACH resource assigned to the user equipment, excluding the BRACH resource holding beam correspondence with the SS block resource covering the user equipment. identifying a beam failure random access channel (BRACH) resource holding beam correspondence with a synchronization signal block resource covering the user equipment; and assigning the user equipment one or more BRACH preambles for each BRACH resource assigned to the user equipment, excluding the BRACH resource holding beam correspondence with the SS block resource covering the user equipment.
A trusted service manager, TSM, server comprising: a communications device; and a processor coupled with the at least one communications device and capable of registering an application source, receiving a request from the application source to access a memory of at least one mobile communications device, verifying the application source based upon the access request and based upon registering of the at application source, and writing application data from the application source to the memory of the at least one mobile communications device based upon verifying the application source. a communications device; and a processor coupled with the at least one communications device and capable of registering an application source, receiving a request from the application source to access a memory of at least one mobile communications device, verifying the application source based upon the access request and based upon registering of the at application source, and writing application data from the application source to the memory of the at least one mobile communications device based upon verifying the application source.
A fire stop device passing through a wall, in particular to enable a fluid and/or an electrical cable and/or a fluid pipe to pass through the wall, the device comprising a wall-passing sleeve having a main body and a through orifice, in particular for the passage of fluid, and/or an electrical cable, and/or a fluid pipe, said sleeve being configured so that the main body is accommodated at least partially in said wall and the inlet orifice is arranged outside the wall, the fire stop device comprising a flap for sealing the passage orifice by gravity, said flap being pivotably mounted between a closure position of the passage orifice and an opening position of the passage orifice, the device comprising a control member for controlling the position of the flap between the opening position and the closure position, the control member comprising a thermally-fusible element arranged so as to hold the flap in the opening position, the flap being provided with a plug made of an intumescent material, the plug being arranged so as to plug the through orifice in the closure position of the flap, wherein one end of the thermally-fusible element comprises a hole, wherein, in the opening position, a chain connects the flap to the thermally-fusible element through the hole. wherein one end of the thermally-fusible element comprises a hole, wherein, in the opening position, a chain connects the flap to the thermally-fusible element through the hole.
A heat-sealable multilayer packaging film comprising: - a support layer, and - a peelable seal layer comprising a polymer blend, said polymer blend comprising: - from 40 to 85% by weight, preferably from 45 to 80% by weight, of one or more first amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of at least 120°C, preferably of at least 130°C; - from 10 to 55% by weight, preferably from 15 to 50% by weight, of one or more second amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of less than 120°C, preferably of less than 110°C; and - from 0.5 to 15% by weight, preferably 0.5 to 10% by weight, of at least one elastomeric copolymer comprising at least one polymerized monovinylarene and at least one polymerized acyclic olefin, wherein the monovinylarene content is up to 50% by weight and characterized by a Shore A hardness (30 sec), according to ASTM D 2240, comprised between 20 and 90; the glass-transition temperature being measured by differential scanning calorimetry, according to ASTM D3418 with a heating gradient of 10°C/min. - a support layer, and - a peelable seal layer comprising a polymer blend, said polymer blend comprising: - from 40 to 85% by weight, preferably from 45 to 80% by weight, of one or more first amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of at least 120°C, preferably of at least 130°C; - from 10 to 55% by weight, preferably from 15 to 50% by weight, of one or more second amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of less than 120°C, preferably of less than 110°C; and - from 0.5 to 15% by weight, preferably 0.5 to 10% by weight, of at least one elastomeric copolymer comprising at least one polymerized monovinylarene and at least one polymerized acyclic olefin, wherein the monovinylarene content is up to 50% by weight and characterized by a Shore A hardness (30 sec), according to ASTM D 2240, comprised between 20 and 90; the glass-transition temperature being measured by differential scanning calorimetry, according to ASTM D3418 with a heating gradient of 10°C/min. - from 40 to 85% by weight, preferably from 45 to 80% by weight, of one or more first amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of at least 120°C, preferably of at least 130°C; - from 10 to 55% by weight, preferably from 15 to 50% by weight, of one or more second amorphous cyclic olefin polymer(s) characterized by a glass-transition temperature of less than 120°C, preferably of less than 110°C; and - from 0.5 to 15% by weight, preferably 0.5 to 10% by weight, of at least one elastomeric copolymer comprising at least one polymerized monovinylarene and at least one polymerized acyclic olefin, wherein the monovinylarene content is up to 50% by weight and characterized by a Shore A hardness (30 sec), according to ASTM D 2240, comprised between 20 and 90;
Power actuator device for activation of a cutting knife or similar device in a submerged system such as a blow-out preventer as used at petroleum exploitation, where the power actuator has an electric motor that includes an armature, where the motor drives a displaceable actuating element via a planetary gear and transmission elements, and where the power actuator comprises at least two parallel and cooperative screw-nut-connections connected to the actuating element, and where the transmission elements comprise a driving wheel which synchronically drives a screw or a nut in each of the at least two screw-nut-connections, characterised in that the planetary gear, that at a first end portion is connected to a motor spindle and in another end portion is connected to a drive shaft, is positioned in the armature.
A component for use in a gas turbine engine comprising an airfoil and root portion formed from a ceramic matrix composite and a platform assembly bonded to said airfoil and root portion, characterised in that: the component further comprises an interfacial layer between the airfoil and root portion and the platform assembly.
Solar module holding device, which is configured to enable an assembly of at least one, in particular solar-position-tracking, solar module, with a shaft, in particular a rotatable shaft, with a base body that forms at least one support surface configured for a support at least of a portion of the solar module, the base body being embodied as a sheet part, which is preferably implemented as one piece, with at least one solar module holding element (52, 54) which is moulded on the base body integrally and is configured for a fixing of a solar module, and with at least one further solar module holding element (52, 54), which is moulded on the base body integrally and is configured for a fixing of a further solar module, the solar module holding elements (52, 54) being realized in a hook shape and protruding from the support surface (189 of the base body, the solar module holding elements (52, 54) being in each case configured to create a form-fit connection to respectively one solar module, wherein the base body has a side wall (28, 30) and a further side wall (28, 30), said side walls (28, 30) being bent off at least substantially perpendicularly to the support surface, characterised in that the solar module holding element (52, 54) and the further solar module holding element (52, 54) are arranged in each case at an offset from a central line of the support surface outwards towards the respective side walls (28, 30). with at least one solar module holding element (52, 54) which is moulded on the base body integrally and is configured for a fixing of a solar module, and with at least one further solar module holding element (52, 54), which is moulded on the base body integrally and is configured for a fixing of a further solar module, the solar module holding elements (52, 54) being realized in a hook shape and protruding from the support surface (189 of the base body, the solar module holding elements (52, 54) being in each case configured to create a form-fit connection to respectively one solar module, wherein the base body has a side wall (28, 30) and a further side wall (28, 30), said side walls (28, 30) being bent off at least substantially perpendicularly to the support surface, characterised in that the solar module holding element (52, 54) and the further solar module holding element (52, 54) are arranged in each case at an offset from a central line of the support surface outwards towards the respective side walls (28, 30).
A motorcycle comprising: a vehicle body; a cowling mounted to a side surface of the vehicle body; and a protruding section which is mounted to the cowling such that the protruding section protrudes from the vehicle body to at least one of right and left, whereby the protruding section has a structure which causes air to flow from forward to rearward along an upper surface of the protruding section to generate a force for pushing the vehicle body downward, and the protruding section includes a guide wall which protrudes downward from an outer end portion of the protruding section in a vehicle width direction and is disposed outward in the vehicle width direction relative to the cowling, characterized in that a lower edge of the guide wall is curved inward in the vehicle width direction. a vehicle body; a cowling mounted to a side surface of the vehicle body; and a protruding section which is mounted to the cowling such that the protruding section protrudes from the vehicle body to at least one of right and left, whereby the protruding section has a structure which causes air to flow from forward to rearward along an upper surface of the protruding section to generate a force for pushing the vehicle body downward, and the protruding section includes a guide wall which protrudes downward from an outer end portion of the protruding section in a vehicle width direction and is disposed outward in the vehicle width direction relative to the cowling, characterized in that a lower edge of the guide wall is curved inward in the vehicle width direction.
Device for storing and supplying cryogenic fluid, notably an on-board device for storing and supplying liquefied hydrogen, comprising a cryogenic tank for storing liquefied fluid, a withdrawal circuit, the device comprising a system for pressurizing the tank comprising a pressurization line having two ends respectively connected to the upper and lower parts of the tank, a vaporization heat exchanger and a set of valve(s) (5, 6) configured to allow liquid to be withdrawn from the tank and comprising an isolation valve situated between the vaporization heat exchanger and the upper end of the tank, to be heated in the vaporization heat exchanger and to be reintroduced into the tank, the system for pressurizing the tank being configured to withdraw a determined volume of fluid from the tank, store and isolate this volume in the vaporization heat exchanger until the volume of fluid reaches determined temperature and/or pressure conditions prior to reinjection of this volume of fluid into the tank, the pressurization line comprising an element (7, 6) for limiting the flow rate and/or the pressure of the reinjected volume of fluid, characterized in that the element for limiting the flow rate and/or the pressure is disposed in parallel with the isolation valve situated between the vaporization heat exchanger and the upper end of the tank.