mhurhangee/ep-ind-claims huggingface dataset:
A method of optimizing user plane function, UPF, module selection for a data path in 5G Core network operation serving a user equipment, UE, comprising: registering, by each of a plurality of UPF modules, the each respective UPF module with a network repository function, NRF, module; updating, by each of the plurality of UPF modules, the NRF module with information regarding the each respective UPF module's present load; sending, by a session management function, SMF, module, a request to the NRF module for discovery of optimal data path between a radio access network, RAN, and a packet data unit session anchor, PSA, for serving a present region of the UE; and determining, by the NRF module, the optimal data path between the RAN and the PSA, for serving the present region of the UE. registering, by each of a plurality of UPF modules, the each respective UPF module with a network repository function, NRF, module; updating, by each of the plurality of UPF modules, the NRF module with information regarding the each respective UPF module's present load; sending, by a session management function, SMF, module, a request to the NRF module for discovery of optimal data path between a radio access network, RAN, and a packet data unit session anchor, PSA, for serving a present region of the UE; and determining, by the NRF module, the optimal data path between the RAN and the PSA, for serving the present region of the UE.
A method of characterizing a fluid in a reservoir to determine if the fluid has an equilibrium or non-equilibrium distribution in terms of gravity and solvency power as a function of depth the method comprising: (a) acquiring tool data at each depth or location for each fluid sample of at least two fluid samples wherein each fluid sample is at a different depth or location in the reservoir and communicating the tool data to a processor; (b) determining formation properties for each fluid sample of the at least two fluid samples of the fluid in the reservoir to obtain formation property data; (c) determining fluid properties for each fluid sample of the at least two fluid samples to obtain fluid property data; (d) in the processor, using a mathematical model based on f gravity and solvency power to determine a predicted asphaltene or color component content as a function of depth in the reservoir, wherein the mathematical model uses at least one of the tool data, the formation property data, the fluid property data, known fluid reservoir data or some combination thereof, to determine the predicted asphaltene or color component content; and (e) comparing at least one measured asphaltene or color component content at a depth in the reservoir with the predicted asphaltene or color component content from the model at that depth to predict if the fluid in the reservoir is in an equilibrium distribution or a non-equilibrium distribution. (a) acquiring tool data at each depth or location for each fluid sample of at least two fluid samples wherein each fluid sample is at a different depth or location in the reservoir and communicating the tool data to a processor; (b) determining formation properties for each fluid sample of the at least two fluid samples of the fluid in the reservoir to obtain formation property data; (c) determining fluid properties for each fluid sample of the at least two fluid samples to obtain fluid property data; (d) in the processor, using a mathematical model based on f gravity and solvency power to determine a predicted asphaltene or color component content as a function of depth in the reservoir, wherein the mathematical model uses at least one of the tool data, the formation property data, the fluid property data, known fluid reservoir data or some combination thereof, to determine the predicted asphaltene or color component content; and (e) comparing at least one measured asphaltene or color component content at a depth in the reservoir with the predicted asphaltene or color component content from the model at that depth to predict if the fluid in the reservoir is in an equilibrium distribution or a non-equilibrium distribution.
A system for communication by an inmate of a correctional system, the system characterized by: a communication subsystem configured to connect a communication between a first communication device used by the inmate of the correctional system and a second communication device; a profile subsystem configured to determine profile information of a party associated with the first communication device; and an authentication subsystem configured to: determine an accommodation of the party that affects authentication in the profile information of the party, the accommodation comprising at least one of a preferred language or a handicap of the party; provide one or more challenge questions to the first communication device based on the determined accommodation of the party that affects authentication; receive at least one response to the one or more challenge questions from the first communication device; and authorize connection of the communication between the first communication device and the second communication device based on the at least one response. a communication subsystem configured to connect a communication between a first communication device used by the inmate of the correctional system and a second communication device; a profile subsystem configured to determine profile information of a party associated with the first communication device; and an authentication subsystem configured to: determine an accommodation of the party that affects authentication in the profile information of the party, the accommodation comprising at least one of a preferred language or a handicap of the party; provide one or more challenge questions to the first communication device based on the determined accommodation of the party that affects authentication; receive at least one response to the one or more challenge questions from the first communication device; and authorize connection of the communication between the first communication device and the second communication device based on the at least one response. determine an accommodation of the party that affects authentication in the profile information of the party, the accommodation comprising at least one of a preferred language or a handicap of the party; provide one or more challenge questions to the first communication device based on the determined accommodation of the party that affects authentication; receive at least one response to the one or more challenge questions from the first communication device; and authorize connection of the communication between the first communication device and the second communication device based on the at least one response.
An agent for use in the amelioration of metabolic syndrome, wherein the agent comprises: a monounsaturated fatty acid having 22 carbons or a salt or an ester thereof and/or a monounsaturated fatty acid having 20 carbons or a salt or an ester thereof, wherein the proportion of the monounsaturated fatty acid having 22 carbons and the monounsaturated fatty acid having 20 carbons to the total fatty acids is greater than or equal to 50% by weight.
Circuit arrangement which is configured as a touch-sensitive sensor or includes such a sensor, - having a first sensor surface and a second sensor surface which are arranged side by side on an insulator, - wherein the first sensor surface is connected to an alternating signal, - wherein the second sensor surface is at least temporarily connected to an input of a measuring amplifier, wherein the measuring amplifier (108, OV1) is designed as an integrator, - wherein an output of the measuring amplifier is connected to a balance amplifier (401, OV2), - wherein the balance amplifier (401, OV2) contains a reference voltage as a reference value, wherein on the basis of the reference voltage a switching criterion is determined such that if the output voltage of the measuring amplifier exceeds the reference voltage defined by a Zener diode an input signal at a non-inverting input of the balance amplifier and thus its output voltage increases, until a current fed into an inverting input of the measuring amplifier again reduces the output signal of the measuring amplifier and brings it to the voltage level of the reference voltage, - wherein the one output of the balance amplifier (401, OV2) is coupled back with the inverting input of the measuring amplifier (108, OV 1), - wherein the balance amplifier (401, OV1) is designed as an integrator which has a longer integration time than the measuring amplifier (108, OV1), - having a circuit output which is arranged between the measuring amplifier (108, OV1) and the balance amplifier (401, OV2). - having a first sensor surface and a second sensor surface which are arranged side by side on an insulator, - wherein the first sensor surface is connected to an alternating signal, - wherein the second sensor surface is at least temporarily connected to an input of a measuring amplifier, wherein the measuring amplifier (108, OV1) is designed as an integrator, - wherein an output of the measuring amplifier is connected to a balance amplifier (401, OV2), - wherein the balance amplifier (401, OV2) contains a reference voltage as a reference value, wherein on the basis of the reference voltage a switching criterion is determined such that if the output voltage of the measuring amplifier exceeds the reference voltage defined by a Zener diode an input signal at a non-inverting input of the balance amplifier and thus its output voltage increases, until a current fed into an inverting input of the measuring amplifier again reduces the output signal of the measuring amplifier and brings it to the voltage level of the reference voltage, - wherein the one output of the balance amplifier (401, OV2) is coupled back with the inverting input of the measuring amplifier (108, OV 1), - wherein the balance amplifier (401, OV1) is designed as an integrator which has a longer integration time than the measuring amplifier (108, OV1), - having a circuit output which is arranged between the measuring amplifier (108, OV1) and the balance amplifier (401, OV2).
A shape-adaptive medical implant comprising at least one actuator by means of which the implant can be shifted from a first implant geometry to a second implant geometry, the implant having a different geometric shape in the second implant geometry than in the first implant geometry, the actuator having a swellable chemical substance which swells as a consequence of supply of liquid, and the implant having at least one liquid-transport means which is configured to supply liquid present outside the implant to the swellable chemical substance, characterized by one of, a plurality of or all of the following features a), b), c), d): a) the implant has an electrical signal-delivery arrangement suppliable with electrical signals and comprising an arrangement of electrical conductors and/or electrodes, which is configured to supply the swellable chemical substance of the actuator with an electric and/or electromagnetic field, the swellable chemical substance being configured to convert from the swollen state into the nonswollen state as a consequence of its supply with the electric and/or electromagnetic field by the electrical signal-delivery arrangement, b) the implant has a liquid-tight sealing means composed of a liquid-soluble chemical substance which seals the liquid-transport means in a liquid-tight manner, c) the implant, more particularly its actuator, has lateral limiting means, by means of which the lateral expansion of the implant and/or of the actuator as a consequence of the swelling of the swellable chemical substance is limited, d) the actuator, more particularly the swellable chemical substance, contains an ionic medicament for the specific delivery of active ingredient after implantation of the implant in the body. a) the implant has an electrical signal-delivery arrangement suppliable with electrical signals and comprising an arrangement of electrical conductors and/or electrodes, which is configured to supply the swellable chemical substance of the actuator with an electric and/or electromagnetic field, the swellable chemical substance being configured to convert from the swollen state into the nonswollen state as a consequence of its supply with the electric and/or electromagnetic field by the electrical signal-delivery arrangement, b) the implant has a liquid-tight sealing means composed of a liquid-soluble chemical substance which seals the liquid-transport means in a liquid-tight manner, c) the implant, more particularly its actuator, has lateral limiting means, by means of which the lateral expansion of the implant and/or of the actuator as a consequence of the swelling of the swellable chemical substance is limited, d) the actuator, more particularly the swellable chemical substance, contains an ionic medicament for the specific delivery of active ingredient after implantation of the implant in the body.
A gas turbine engine for an aircraft comprising: an engine core comprising a turbine, a compressor, and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core, the fan comprising a plurality of fan blades, wherein a fan tip radius of the fan is measured between a centreline of the engine and an outermost tip of each fan blade at its leading edge, the fan tip radius is in the range 155 cm to 200 cm; and a nacelle surrounding the fan and the engine core and defining a bypass exhaust nozzle, the bypass exhaust nozzle having an outer radius, and an inner radius, the bypass exhaust nozzle outer radius being defined as the radius at the outer edge of the bypass exhaust nozzle exit, and the bypass exhaust nozzle inner radius being defined as the radius at the inner edge of the bypass exhaust nozzle exit, wherein an outer bypass to fan ratio of: the outer radius 114 of the bypass exhaust nozzle 18 the fan tip radius 102 is in the range from 0.94 to 0.96; and an inner bypass to fan ratio of: the inner radius of the bypass exhaust nozzle 18 the fan tip radius 102 is in the range from 0.50 to 0.60. an engine core comprising a turbine, a compressor, and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core, the fan comprising a plurality of fan blades, wherein a fan tip radius of the fan is measured between a centreline of the engine and an outermost tip of each fan blade at its leading edge, the fan tip radius is in the range 155 cm to 200 cm; and a nacelle surrounding the fan and the engine core and defining a bypass exhaust nozzle, the bypass exhaust nozzle having an outer radius, and an inner radius, the bypass exhaust nozzle outer radius being defined as the radius at the outer edge of the bypass exhaust nozzle exit, and the bypass exhaust nozzle inner radius being defined as the radius at the inner edge of the bypass exhaust nozzle exit, wherein an outer bypass to fan ratio of: the outer radius 114 of the bypass exhaust nozzle 18 the fan tip radius 102 is in the range from 0.94 to 0.96; and an inner bypass to fan ratio of: the inner radius of the bypass exhaust nozzle 18 the fan tip radius 102 is in the range from 0.50 to 0.60.
Component for low-temperature applications which - has a thermal expansion in the range from 0°C to -250°C of at most 20ppm; - has a CTE in the range from -50°C to -180° of less than +/- 0.1 ppm/K; - has a CTE in the range from -250°C to -225°C of at most +/- 0.6 ppm/K; - and comprises a lithium aluminosilicate glass-ceramic having the following composition (in % by weight on an oxide basis): SiO 2 35 - 70 Al 2 O 3 17 - 35 Li 2 O 2 - 6 TiO 2 0 - 6 ZrO 2 0 - 6 TiO 2 + ZrO 2 0.5 - 9 ZnO 0.5 - 5 - has a thermal expansion in the range from 0°C to -250°C of at most 20ppm; - has a CTE in the range from -50°C to -180° of less than +/- 0.1 ppm/K; - has a CTE in the range from -250°C to -225°C of at most +/- 0.6 ppm/K; - and comprises a lithium aluminosilicate glass-ceramic having the following composition (in % by weight on an oxide basis): SiO 2 35 - 70 Al 2 O 3 17 - 35 Li 2 O 2 - 6 TiO 2 0 - 6 ZrO 2 0 - 6 TiO 2 + ZrO 2 0.5 - 9 ZnO 0.5 - 5
Fluid friction clutch, - with a housing (2, 3) - with a coupling disk, • which is rotatable in relation to the housing (2, 3) and • which is arranged on one end of a shaft mounted centrally within the housing (2, 3), which shaft carries a drivable active element on its other end; - with a working chamber between the housing (2, 3) and the coupling disk; - with a storage chamber for coupling fluid; and with a supply channel which leads from the storage chamber to the working chamber; characterized - by a supply pump element which is rotatable in relation to the housing (2, 3) and is integrated in the coupling disk, the supply pump element making a liquid flow possible from the storage chamber into the working chamber and therefore into the coupling disk. - with a housing (2, 3) - with a coupling disk, • which is rotatable in relation to the housing (2, 3) and • which is arranged on one end of a shaft mounted centrally within the housing (2, 3), which shaft carries a drivable active element on its other end; • which is rotatable in relation to the housing (2, 3) and • which is arranged on one end of a shaft mounted centrally within the housing (2, 3), which shaft carries a drivable active element on its other end; - with a working chamber between the housing (2, 3) and the coupling disk; - with a storage chamber for coupling fluid; and with a supply channel which leads from the storage chamber to the working chamber; - by a supply pump element which is rotatable in relation to the housing (2, 3) and is integrated in the coupling disk, the supply pump element making a liquid flow possible from the storage chamber into the working chamber and therefore into the coupling disk.
A device for retaining the shape of a shoe comprising: a toe fabric bag adapted to fit into a front portion of the shoe for retaining a shape of the shoe; and a vamp fabric bag adapted to fit into a vamp portion of the shoe for retaining a shape of the shoe; wherein the toe fabric bag and the vamp fabric bag are two separate fabric bag constructions configured to be inserted separately. a toe fabric bag adapted to fit into a front portion of the shoe for retaining a shape of the shoe; and a vamp fabric bag adapted to fit into a vamp portion of the shoe for retaining a shape of the shoe; wherein the toe fabric bag and the vamp fabric bag are two separate fabric bag constructions configured to be inserted separately.
A releasable metalized embossed transfer film comprising (a) a polymeric base layer, (b) an embossing material layer in direct contact with the polymeric base layer, and (c) a metal layer in direct contact with the embossing material layer opposite the polymeric base layer, in which the polymeric base layer and embossing material layer have an interfacial joint formed by coating a liquid comprising an embossing material composition onto a surface of the polymeric base layer which surface has a surface energy of 50-60 dyne/cm, and in which the embossing material layer comprises a polymer having elongation at break in the range of 400-550% as determined by ASTM method D882-10.
A crushing method for used galvanic cells with high energy densities, wherein a mixture of used galvanic cells is placed inside an insulated container and a cooling medium is added to this mixture, the temperature of used galvanic cells is decreased and the cooled mixture of used galvanic cells and of the cooling medium is then fed to the working unit of the crushing device, characterised in that the cooling medium is carbon dioxide as dry ice, added to the mixture of used galvanic cells at a volumetric ratio of dry ice to mixture of used galvanic cells between 0,5: 1 to 2: 1, and the temperature of mixture of used galvanic with dry ice is cooled down to a value between -20°C to -50°C, and the mixture of used galvanic cells with dry ice is subsequently fed to the working unit of the crushing device. mixture of used galvanic cells is placed inside an insulated container and a cooling medium is added to this mixture, the temperature of used galvanic cells is decreased and the cooled mixture of used galvanic cells and of the cooling medium is then fed to the working unit of the crushing device, characterised in that the cooling medium is carbon dioxide as dry ice, added to the mixture of used galvanic cells at a volumetric ratio of dry ice to mixture of used galvanic cells between 0,5: 1 to 2: 1, and the temperature of mixture of used galvanic with dry ice is cooled down to a value between -20°C to -50°C, and the mixture of used galvanic cells with dry ice is subsequently fed to the working unit of the crushing device.
Electrical connecting arrangement of a pencil ignition coil, having an ignition coil pencil with a high-voltage output and a low-voltage output, wherein a coil former is provided, a wire which forms a secondary winding being wound onto the said coil former, wherein a contact spring is provided on the side of the low-voltage output, the said contact spring being pushed over a contact-making region and, in an end position, making contact with the wire of the secondary winding, wherein the contact spring is pushed over a lug-like element, which is arranged on the coil former, until the said element enters an opening which is formed in the contact spring, so that the element and the contact spring latch with one another, characterized in that the contact-making region is formed over the circumference of the coil former and the contact spring rests on the secondary winding in the end position.
Method for producing a scattered material mat from at least one layer of scattered material on an endlessly circulating forming belt by means of at least one scattering head in the course of pressing the scattered material mat in a press to form a material board, wherein the scattered material is stored in a bunker and metered by a metering device and discharged with a substantially uniform metering weight per unit area transversally across a width and with a length in the production direction of the forming belt as a material flow, and then introduced substantially in the direction of movement into the scattering head and scattered on the forming belt with at least one scattering device in an oriented and/or unoriented manner over a width, characterized in that by means of at least one mechanical guide device between the metering device and the scattering device the scattered material is partially displaced in the material flow substantially transversely to the production direction of the forming belt and/or that the scattered material is partially stabilized in the material flow in its movement in the direction of movement, wherein the mechanical guide device only partially influences the material flow by means of guide plates distributed over the width, in that the guide plates protrude only partially in the length into the material flow for partial displacement of the scattered material across the width and are at an angle to the direction of movement of the material flow.