mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a centrifugal separator , the centrifugal separator comprising a separator rotor delimiting a separation space , a stack of frustoconical separation discs arranged inside the separation space , a drive arrangement configured to rotate the separator rotor about a rotation axis (X) at a rotational speed, an inlet for a liquid mixture, a first outlet for a light liquid phase arranged in fluid communication with a central portion of the separation space , a second outlet for a heavy phase, and at least one tube extending from at least one radially outer portion of the separation space towards a central portion of the separator rotor , wherein the at least one tube has an outer end arranged at the radially outer portion and an inner end arranged towards the central portion of the separation space , wherein the second outlet is arranged in fluid communication with the inner end of the at least one tube , and wherein the method comprises steps of: - rotating the separator rotor at a first rotational speed, - providing a liquid mixture to the inlet , - separating the liquid mixture into at least a light liquid phase and a heavy phase in the separation space , - leading the light liquid phase to the first outlet , - leading the heavy phase through the at least one tube from the outer end to the second outlet , characterized by - changing the rotational speed of the separator rotor from the first rotational speed to a second rotational speed, such that a heavy phase accumulation at a periphery of the separation space is displaced in a circumferential direction. the at least one tube has an outer end arranged at the radially outer portion and an inner end arranged towards the central portion of the separation space , wherein the second outlet is arranged in fluid communication with the inner end of the at least one tube , and wherein the method comprises steps of: - rotating the separator rotor at a first rotational speed, - providing a liquid mixture to the inlet , - separating the liquid mixture into at least a light liquid phase and a heavy phase in the separation space , - leading the light liquid phase to the first outlet , - leading the heavy phase through the at least one tube from the outer end to the second outlet , characterized by - changing the rotational speed of the separator rotor from the first rotational speed to a second rotational speed, such that a heavy phase accumulation at a periphery of the separation space is displaced in a circumferential direction. - rotating the separator rotor at a first rotational speed, - providing a liquid mixture to the inlet , - separating the liquid mixture into at least a light liquid phase and a heavy phase in the separation space , - leading the light liquid phase to the first outlet , - leading the heavy phase through the at least one tube from the outer end to the second outlet , characterized by - changing the rotational speed of the separator rotor from the first rotational speed to a second rotational speed, such that a heavy phase accumulation at a periphery of the separation space is displaced in a circumferential direction.
Refrigerated vehicle, a thermally insulated cooling structure which is arranged on a chassis and can be cooled by means of an operable cooling device , the chassis having a rotatable shaft , which is driven by a movement of the refrigerated vehicle and which is coupled to a generator in order to generate electrical energy, which can be used at least partially in order to operate the cooling device , the shaft being connected to an impeller arranged on a movable pivot arm , which impeller is coupled to the generator , and the generator being operable with a variable transmission ratio with respect to a rotational speed of the shaft , which transmission ratio can be adjusted depending on the rotational speed of the shaft and/or an electrical load at the generator output in order to control the generator , characterized in that the movable pivot arm is connected to a bearing block , and the generator is arranged on and connected to the bearing block , the bearing block being pivotable and held in a zero position by means of a restoring device, which produces a position of the impeller which corresponds to a forward motion.
A method of transmitting display composition data for rendering content of media data on at least one display region, a display region being composed of one or more display sub-regions, wherein the display composition data comprises MPEG Multimedia Transport Composition Information , MMT-CI, defining at least one of the spatial relationship and the temporal relationship between content components of the media data, the MMT-CI comprising a View element providing spatial and temporal information about a display region and a divLocation element providing temporally changed information about a display sub-region, the method comprising: transmitting display modification data, for a respective display region and/or a respective display sub-region, the display modification data indicating how the visual configuration of the respective display region or display sub-region may be modified by a user, wherein the display modification data comprises a modification lock parameter indicating whether or not the visual configuration of the respective display region or display sub-region may be modified by a user, wherein the modification lock parameter is included in the View and divLocation elements of the MMT-CI.
A method performed by a terminal in a wireless communication system, the method comprising: receiving , from a base station in a visited public land mobile network, VPLMN, a system information block, SIB, including offloading control information; transmitting , to a mobility management entity, MME , a non-access stratum, NAS, request message for a packet data network, PDN, connection, the NAS request message including an international mobile subscriber identity, IMSI, of the terminal; receiving, from the MME supporting offload control, a NAS accept message including an indication which indicates whether offloading control information is used in the VPLMN; and determining whether to perform an operation associated with an offloading control using a first communication system and a second communication system based on the indication, wherein the indication is determined based on subscription information for the terminal, and wherein the terminal is roaming. receiving , from a base station in a visited public land mobile network, VPLMN, a system information block, SIB, including offloading control information; transmitting , to a mobility management entity, MME , a non-access stratum, NAS, request message for a packet data network, PDN, connection, the NAS request message including an international mobile subscriber identity, IMSI, of the terminal; receiving, from the MME supporting offload control, a NAS accept message including an indication which indicates whether offloading control information is used in the VPLMN; and determining whether to perform an operation associated with an offloading control using a first communication system and a second communication system based on the indication, wherein the indication is determined based on subscription information for the terminal, and wherein the terminal is roaming.
A combined-type phase plug, comprising: a first phase plug , comprising: a cone ; a plurality of fins located on an outer surface of the cone ; and a base ring located below the cone , wherein the plurality of fins extends downward to the base ring , and the base ring is connected to the plurality of fins , wherein the base ring and the cone are connected by the plurality of fins ; and a second phase plug located under the first phase plug and comprising: a tapered cone located inside the base ring , wherein a first space is formed between the tapered cone and the base ring ; and a second space is formed between the tapered cone and the cone , and the second space extends to the first space; and a base extending horizontally outward from the tapered cone , wherein the base ring is located on the base . a cone ; a plurality of fins located on an outer surface of the cone ; and a base ring located below the cone , wherein the plurality of fins extends downward to the base ring , and the base ring is connected to the plurality of fins , wherein the base ring and the cone are connected by the plurality of fins ; and a tapered cone located inside the base ring , wherein a first space is formed between the tapered cone and the base ring ; and a second space is formed between the tapered cone and the cone , and the second space extends to the first space; and a base extending horizontally outward from the tapered cone , wherein the base ring is located on the base .
An oil supply assembly for a gas turbine engine comprising: a strut with an interior scavenge cavity extending longitudinally in the interior of the strut defining a first diameter (D1) at an upper end and a second diameter (D2) at a lower end, an oil supply tube extending through the scavenge cavity and an oil return tube extending through the scavenge cavity , and a scavenge pipe fitting configured to couple to the second diameter (D2) at the lower end of the strut having a scavenge pipe coupled to the fitting in spaced apart relation to the oil return tube so that any oil that escapes from the oil supply tube , along with oil in the return tube is removed from the strut via the scavenge pipe . a strut with an interior scavenge cavity extending longitudinally in the interior of the strut defining a first diameter (D1) at an upper end and a second diameter (D2) at a lower end, an oil supply tube extending through the scavenge cavity and an oil return tube extending through the scavenge cavity , and a scavenge pipe fitting configured to couple to the second diameter (D2) at the lower end of the strut having a scavenge pipe coupled to the fitting in spaced apart relation to the oil return tube so that any oil that escapes from the oil supply tube , along with oil in the return tube is removed from the strut via the scavenge pipe .
A positive electrode for a secondary battery which comprises a positive electrode current collector and a positive electrode active material layer provided on at least one surface of the positive electrode current collector, wherein the positive electrode current collector is aluminum foil and the positive electrode has an elongation of 0.6-1.5%, as determined by the method defined in ISO 527, and wherein the positive electrode active material layer has a porosity of 23-35 % after rolling as measured by a mercurimetric method.
A packet of cigarettes comprising an outer case , a group of cigarettes and an inner case wrapped around the group of cigarettes and having a transverse dimension which is smaller than the transverse dimension of the outer case so as to form a cavity within the outer case; the packet comprising a filling element disposed inside the outer case between a wall of the outer case and a wall of the inner case and having an abutment wall to abut against the inner case , a top connected to an upper end of the abutment wall , two flanks disposed at opposite ends of the abutment wall , a rear wall connected to the top and folded back to touch the edges of the flanks , two spacer tabs , each connected to a flank and folded towards the inside of the filling element about a corresponding fold line ; characterized in that the filling element comprises, for each spacer tab , at least one locking element configured to lock the respective spacer tab in the position where it is folded towards the inside of the filling element , wherein the at least one locking element is disposed at least partly within a volume of rotation defined by a tilting of the respective spacer tab , so as to interfere with the corresponding spacer tab and oppose the tilting thereof.
A slurry composition for a lithium ion secondary battery positive electrode containing a positive electrode active material; a conductive agent; a binder composition for a lithium ion secondary battery positive electrode including a copolymer containing a nitrile group-containing monomer unit, a conjugated diene monomer unit and an alkylthio group; and a solvent, wherein a degree of swelling in electrolysis solution of the copolymer is at least 200 mass% and no greater than 700 mass%, wherein the degree of swelling in electrolysis solution is measured by (i) producing a 1 cm × 1 cm film (thickness 500 μm) by applying the aqueous dispersion of copolymer to an electrolytic copper foil using a table coater and drying with a hot air dryer for 20 minutes at a temperature of 50 °C and for 20 minutes at a temperature of 120 °C, and measuring the weight of M0; (ii) immersing the resultant film in an electrolysis solution for 72 hours at a temperature of 60°C, wherein the electrolysis solution is prepared by dissolving LiPF 6 as a supporting electrolyte into a mixture solvent of ethylene carbonate (EC), diethyl carbonate (DEC) and vinylene carbonate (VC) (mixing ratio by volume: EC/DEC/VC = 68.5/30/1.5) at a concentration of 1 mol/L; (iii) wiping the electrolysis solution from the surface of the film and measuring the weight M1; and (iv) calculating the degree of swelling in electrolysis solution according to the following equation: Degree of swelling in electrolysis solution = M 1 / M 0 × 100 ; and the alkylthio group is an alkylthio group of a carbon number from 12 to 16 having at least three tertiary or higher carbon atoms and a sulfur atom directly bonded to at least one of the tertiary or higher carbon atoms. (i) producing a 1 cm × 1 cm film (thickness 500 μm) by applying the aqueous dispersion of copolymer to an electrolytic copper foil using a table coater and drying with a hot air dryer for 20 minutes at a temperature of 50 °C and for 20 minutes at a temperature of 120 °C, and measuring the weight of M0; (ii) immersing the resultant film in an electrolysis solution for 72 hours at a temperature of 60°C, wherein the electrolysis solution is prepared by dissolving LiPF 6 as a supporting electrolyte into a mixture solvent of ethylene carbonate (EC), diethyl carbonate (DEC) and vinylene carbonate (VC) (mixing ratio by volume: EC/DEC/VC = 68.5/30/1.5) at a concentration of 1 mol/L; (iii) wiping the electrolysis solution from the surface of the film and measuring the weight M1; and (iv) calculating the degree of swelling in electrolysis solution according to the following equation: Degree of swelling in electrolysis solution = M 1 / M 0 × 100 ; and the alkylthio group is an alkylthio group of a carbon number from 12 to 16 having at least three tertiary or higher carbon atoms and a sulfur atom directly bonded to at least one of the tertiary or higher carbon atoms.
A method of providing interface measurements in a wireless communications network, the method being implemented by a radio base station and comprising: determining whether a discrepancy relating to a non-scheduled load exists between the radio base station and a radio network controller ; and if the discrepancy exists: modifying one or more interface measurements for an interface between the radio base station and the radio network controller ; and transmitting the one or more modified interface measurements to the radio network controller . determining whether a discrepancy relating to a non-scheduled load exists between the radio base station and a radio network controller ; and if the discrepancy exists: modifying one or more interface measurements for an interface between the radio base station and the radio network controller ; and transmitting the one or more modified interface measurements to the radio network controller .
A monitoring system for a dual-stage, stroke activated, mixed fluid gas shock strut , comprising: a controller ; and a tangible, non-transitory memory configured to communicate with the controller , the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller , cause the controller to perform operations comprising: receiving, by the controller , a primary chamber temperature sensor reading ; receiving, by the controller , a primary chamber pressure sensor reading ; receiving, by the controller , a shock strut stroke sensor reading ; calculating, by the controller , a compression factor based on the primary chamber pressure sensor reading, wherein the compression factor is calculated by dividing a primary chamber transient pressure by a primary chamber inflation pressure; determining, by the controller , a plurality of compression factors for known oil volumes based on at least one of the primary chamber temperature sensor reading and the shock strut stroke sensor reading ; and calculating, by the controller , an oil volume in a primary chamber of the shock strut . a controller ; and a tangible, non-transitory memory configured to communicate with the controller , the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller , cause the controller to perform operations comprising: receiving, by the controller , a primary chamber temperature sensor reading ; receiving, by the controller , a primary chamber pressure sensor reading ; receiving, by the controller , a shock strut stroke sensor reading ; calculating, by the controller , a compression factor based on the primary chamber pressure sensor reading, wherein the compression factor is calculated by dividing a primary chamber transient pressure by a primary chamber inflation pressure; determining, by the controller , a plurality of compression factors for known oil volumes based on at least one of the primary chamber temperature sensor reading and the shock strut stroke sensor reading ; and calculating, by the controller , an oil volume in a primary chamber of the shock strut . receiving, by the controller , a primary chamber temperature sensor reading ; receiving, by the controller , a primary chamber pressure sensor reading ; receiving, by the controller , a shock strut stroke sensor reading ; calculating, by the controller , a compression factor based on the primary chamber pressure sensor reading, wherein the compression factor is calculated by dividing a primary chamber transient pressure by a primary chamber inflation pressure; determining, by the controller , a plurality of compression factors for known oil volumes based on at least one of the primary chamber temperature sensor reading and the shock strut stroke sensor reading ; and calculating, by the controller , an oil volume in a primary chamber of the shock strut .
A seal comprising: a jacket comprising an annular body defining a central axis and a recess extending into the annular body concentric to the central axis, wherein the jacket comprises a PTFE and a filler material, and wherein the filler material comprises a boron-containing material, a nitrogen-containing material, a titanium-containing material, a silicon-containing material, or a combination thereof; and an energizing element disposed in the recess , wherein the jacket comprises at least 30 wt% of the PTFE and at least 10 wt% of the filler material, wherein the jacket has an initial elongation at break, EAB I , as measured prior to exposure to an elevated temperature defined as at least 275°C, and an effective elongation at break, EAB E , as measured after exposure to an elevated temperature defined as at least 275°C, wherein EAB I is no greater than 150% EAB E , wherein the jacket includes fingers defining the recess , and wherein the fingers are symmetrical about a line such that the recess is also symmetrical. a jacket comprising an annular body defining a central axis and a recess extending into the annular body concentric to the central axis, wherein the jacket comprises a PTFE and a filler material, and wherein the filler material comprises a boron-containing material, a nitrogen-containing material, a titanium-containing material, a silicon-containing material, or a combination thereof; and an energizing element disposed in the recess , wherein the jacket comprises at least 30 wt% of the PTFE and at least 10 wt% of the filler material, wherein the jacket has an initial elongation at break, EAB I , as measured prior to exposure to an elevated temperature defined as at least 275°C, and an effective elongation at break, EAB E , as measured after exposure to an elevated temperature defined as at least 275°C, wherein EAB I is no greater than 150% EAB E , wherein the jacket includes fingers defining the recess , and wherein the fingers are symmetrical about a line such that the recess is also symmetrical.
A method of obtaining a substrate coated on a first face with at least one transparent and electrically conductive thin layer based on at least one oxide, comprising the following steps: - said at least one thin layer is deposited on said substrate, - said at least one thin layer is subjected to a heat treatment step in which said at least one layer is irradiated with the aid of radiation having a wavelength of between 500 and 2000 nm and focused on a zone of said at least one layer, at least one dimension of which does not exceed 10 cm, said radiation being delivered by at least one radiation device placed facing said at least one layer, a relative displacement being created between said radiation device and said substrate so as to treat the desired surface, said heat treatment being such that the resistivity of said at least one layer is reduced during the treatment, characterized in that said at least one thin layer is covered before the heat treatment step with a thin layer based on carbon having a thickness of less than 5 nm. - said at least one thin layer is deposited on said substrate, - said at least one thin layer is subjected to a heat treatment step in which said at least one layer is irradiated with the aid of radiation having a wavelength of between 500 and 2000 nm and focused on a zone of said at least one layer, at least one dimension of which does not exceed 10 cm, said radiation being delivered by at least one radiation device placed facing said at least one layer, a relative displacement being created between said radiation device and said substrate so as to treat the desired surface, said heat treatment being such that the resistivity of said at least one layer is reduced during the treatment, characterized in that said at least one thin layer is covered before the heat treatment step with a thin layer based on carbon having a thickness of less than 5 nm.
A device for treating an incision , hernia, or abdominal wall defect, comprising: a cylindrical elongate element having a first longitudinal axis ; at least two sheets connected to the elongate element along the first longitudinal axis , the first and second sheets connected to the elongate element extending parallel to the longitudinal axis on opposite sides of the longitudinal axis of the elongate element ; wherein the at least two sheets comprise porous biocompatible matrix and the elongate element has a strength that is at least equal to that of the at least two sheets ; characterised in that the elongate element comprises biological mesh that is rolled concentrically into a cylindrical structure a cylindrical elongate element having a first longitudinal axis ; at least two sheets connected to the elongate element along the first longitudinal axis , the first and second sheets connected to the elongate element extending parallel to the longitudinal axis on opposite sides of the longitudinal axis of the elongate element ; wherein the at least two sheets comprise porous biocompatible matrix and the elongate element has a strength that is at least equal to that of the at least two sheets ; characterised in that the elongate element comprises biological mesh that is rolled concentrically into a cylindrical structure