mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a Session Management Function, SMF, for handling local breakout of traffic in a Fifth Generation, 5G, system, the method comprising: receiving (302, 405, 500), from a Policy Control Function, PCF, policy information indicating traffic that should be routed via a second User Plane Function, UPF, to a second Data Network, DN; before setting up a local breakout, providing (304, 406a, 502), to a first UPF routing traffic to a first DN, a first traffic detection filter for detecting the traffic indicated in the received policy information; detecting (305, 407, 505) that there is traffic matching the first traffic detection filter; and setting-up (309, 407, 508), according to the policy information, a local breakout to the second UPF when the matching traffic has been detected, wherein the setting-up comprises setting-up the second UPF. receiving (302, 405, 500), from a Policy Control Function, PCF, policy information indicating traffic that should be routed via a second User Plane Function, UPF, to a second Data Network, DN; before setting up a local breakout, providing (304, 406a, 502), to a first UPF routing traffic to a first DN, a first traffic detection filter for detecting the traffic indicated in the received policy information; detecting (305, 407, 505) that there is traffic matching the first traffic detection filter; and setting-up (309, 407, 508), according to the policy information, a local breakout to the second UPF when the matching traffic has been detected, wherein the setting-up comprises setting-up the second UPF.
A computer implemented method for generating data representing an ensemble of three-dimensional structures of a molecule, the molecule comprising a first atom and a second atom covalently bonded together by a rotatable bond having an associated mean dihedral angle and an associated distribution of dihedral angles, said rotatable bond being the central bond of a three bond system defining said dihedral angle, said mean dihedral angle and said distribution of dihedral angles used to generate said ensemble of three-dimensional structures of said molecule, the method comprising: receiving data representing said molecule, said data including a set of internal coordinates of the molecule, said internal coordinates comprising data indicating a predefined mean dihedral angle for said rotatable bond; then assigning a non-zero probability distribution function to said rotatable bond, the non-zero probability distribution function comprising a predefined variability of said dihedral angle with respect to said predefined mean dihedral angle corresponding to the associated distribution of dihedral angles; then generating data representing an ensemble of three-dimensional structures of the molecule by implementing the set of internal coordinates and the assigned probability distributions by varying said dihedral angle for said rotatable bond according to said predefined dihedral angle variability; and then predicting at least one experimental parameter from said generated ensemble of three-dimensional structures of said molecule and a comparison of said at least one predicted experimental parameter to at least one further parameter derived from at least one physical experiment. receiving data representing said molecule, said data including a set of internal coordinates of the molecule, said internal coordinates comprising data indicating a predefined mean dihedral angle for said rotatable bond; then assigning a non-zero probability distribution function to said rotatable bond, the non-zero probability distribution function comprising a predefined variability of said dihedral angle with respect to said predefined mean dihedral angle corresponding to the associated distribution of dihedral angles; then generating data representing an ensemble of three-dimensional structures of the molecule by implementing the set of internal coordinates and the assigned probability distributions by varying said dihedral angle for said rotatable bond according to said predefined dihedral angle variability; and then predicting at least one experimental parameter from said generated ensemble of three-dimensional structures of said molecule and a comparison of said at least one predicted experimental parameter to at least one further parameter derived from at least one physical experiment.
A method of production of a ceramic electronic device comprising the steps of: forming a first ceramic coating layer on a surface of a substrate, forming an internal electrode on a surface of said first ceramic coating layer, forming a second ceramic coating layer on a surface of said first ceramic coating layer so as to cover said internal electrode, forming other internal electrode of a different layer on a surface of said second ceramic coating layer, forming a third ceramic coating layer on the surface of said second ceramic coating layer so as to cover said other internal electrode to thereby form a stack, and peeling off said stack from said substrate and successively stacking a plurality of said peeled off stacks so that the first ceramic coating layer contained in one stack among two adjoining stacks contacts the third ceramic coating layer contained in the other stack, wherein, a mean particle size of the ceramic particles of said first ceramic coating layer is α1, a thickness of said first ceramic coating layer is T1, a mean particle size of the ceramic particles of said second ceramic coating layer is α2, a thickness of said second ceramic coating layer is T2, a mean particle size of the ceramic particles of said third ceramic coating layer is α3, and a thickness of said third ceramic coating layer is T3, the conditions of α1≤ α2, α1≤ α3, 0.05 μm < α1≤0.35 μ m, T1<T2, T1<T3, and 0 μm<T1<1.5 μm are satisfied. forming a first ceramic coating layer on a surface of a substrate, forming an internal electrode on a surface of said first ceramic coating layer, forming a second ceramic coating layer on a surface of said first ceramic coating layer so as to cover said internal electrode, forming other internal electrode of a different layer on a surface of said second ceramic coating layer, forming a third ceramic coating layer on the surface of said second ceramic coating layer so as to cover said other internal electrode to thereby form a stack, and peeling off said stack from said substrate and successively stacking a plurality of said peeled off stacks so that the first ceramic coating layer contained in one stack among two adjoining stacks contacts the third ceramic coating layer contained in the other stack, wherein, a mean particle size of the ceramic particles of said first ceramic coating layer is α1, a thickness of said first ceramic coating layer is T1, a mean particle size of the ceramic particles of said second ceramic coating layer is α2, a thickness of said second ceramic coating layer is T2, a mean particle size of the ceramic particles of said third ceramic coating layer is α3, and a thickness of said third ceramic coating layer is T3, the conditions of α1≤ α2, α1≤ α3, 0.05 μm < α1≤0.35 μ m, T1<T2, T1<T3, and 0 μm<T1<1.5 μm are satisfied.
A method of providing graphical content on a memory device, comprising: (a) positioning a release media within a mold for encapsulating one or more memory devices, the release media including an adhesive layer, graphical content, a durable layer on which the graphical content is formed, the graphical content being sandwiched between the adhesive layer and the durable layer, a backing film, and a release agent provided between the backing film and durable layer; (b) positioning one or more memory devices within the mold for encapsulating the one or more memory devices; (c) providing an amount of molding compound within the mold for encapsulating the one or more memory devices, the molding compound provided in contact with the release media; (d) encapsulating the one or more memory devices in the molding compound using flow free thin compression molding; and (e) heating the release media during said step (d) of encapsulating the one or more memory devices, said heating of the release media melting the release agent to separate the durable layer from the backing film, and leaving the durable layer on the molding compound 260, and the adhesive layer and graphical content in the molding compound 260. (a) positioning a release media within a mold for encapsulating one or more memory devices, the release media including an adhesive layer, graphical content, a durable layer on which the graphical content is formed, the graphical content being sandwiched between the adhesive layer and the durable layer, a backing film, and a release agent provided between the backing film and durable layer; (b) positioning one or more memory devices within the mold for encapsulating the one or more memory devices; (c) providing an amount of molding compound within the mold for encapsulating the one or more memory devices, the molding compound provided in contact with the release media; (d) encapsulating the one or more memory devices in the molding compound using flow free thin compression molding; and (e) heating the release media during said step (d) of encapsulating the one or more memory devices, said heating of the release media melting the release agent to separate the durable layer from the backing film, and leaving the durable layer on the molding compound 260, and the adhesive layer and graphical content in the molding compound 260.
Module for projecting a light beam comprising a light source provided with at least one light-emitting diode capable of emitting light rays and an optical element provided with a convergent lens projecting an image of the source to produce the light beam and comprising means for producing a rotation of the optical element relative to the light source, the rotation being of axis perpendicular to the average direction of emission of the rays of the light source, Characterised in that the light source is located in the object focal plane of the lens., the module being based on the principle of direct imaging of a source with steep emissive edges through an optical system, making it possible to dispense with an intermediate mask, placed at the focus of the convergent lens, to occult part of the beam since all the light emitted in the direction of the area to be illuminated is intrinsically spatially limited by the construction of the said diode.
An in vitro method of inducing adult regenerative cells to differentiate into induced noncontractile cardiomyocyte cells, said method comprising subjecting a population of adult regenerative cells to sequential expression of SHOX2 > TBX5 > HCN2 in order to induce specific differentiation of said cells, and growing said cells until cardiac pacemaker cells and Purkinje cells form.
A qualification system for gas turbine engine components comprising: a computer system configured to receive a set of measured parameters for each gas turbine engine component in a plurality of substantially identical gas turbine engine components, and determine a variation model based on the set of measured parameters; the computer system including at least one simulated engine model, the simulated engine model being configured to determine a predicted operation of each gas turbine engine component in the plurality of substantially identical gas turbine engine components; a correlation system configured to correlate variations in the set of parameters for each of the gas turbine engine components in the plurality of substantially identical gas turbine engine components with a set of the predicted operations of each gas turbine engine component in the plurality of substantially identical gas turbine engine components, thereby generating a predictive model based on the variations; and a qualification module configured to generate a qualification formula based on the predictive model, wherein the qualification formula is configured to receive a set of measured parameters of an as-manufactured gas turbine engine component and determine when the as-manufactured gas turbine engine component is qualified for inclusion in at least one engine. a computer system configured to receive a set of measured parameters for each gas turbine engine component in a plurality of substantially identical gas turbine engine components, and determine a variation model based on the set of measured parameters; the computer system including at least one simulated engine model, the simulated engine model being configured to determine a predicted operation of each gas turbine engine component in the plurality of substantially identical gas turbine engine components; a correlation system configured to correlate variations in the set of parameters for each of the gas turbine engine components in the plurality of substantially identical gas turbine engine components with a set of the predicted operations of each gas turbine engine component in the plurality of substantially identical gas turbine engine components, thereby generating a predictive model based on the variations; and a qualification module configured to generate a qualification formula based on the predictive model, wherein the qualification formula is configured to receive a set of measured parameters of an as-manufactured gas turbine engine component and determine when the as-manufactured gas turbine engine component is qualified for inclusion in at least one engine.
A row unit side (200a,200b) of a row unit for an agricultural harvester, comprising, a row unit support having a leading end and a trailing end relative to a direction of travel; an idler sprocket rotatably attaching to the row unit support near the lead end; a drive sprocket rotatably attaching to the row unit support near the trailing end; a gather chain having a plurality of gather chain lugs, the gather chain enmeshed with the idler sprocket and the drive sprocket; a deck plate having a harvest side, a return side, a first end and a second end, the deck plate attaching to the row unit support, characterized in that: the deck plate comprises a harvest side plate on the harvest side and a deck plate extension on the return side, wherein said deck plate extension: - is aligned to or overlaps an edge of the harvest side plate, - includes an idler notch being formed near the second end of the deck plate - includes a kernel channel formed on at least a portion of the return side of the deck plate, the kernel channel being configured for guiding a kernel from the deck plate extension to the harvest side deck plate. a row unit support having a leading end and a trailing end relative to a direction of travel; an idler sprocket rotatably attaching to the row unit support near the lead end; a drive sprocket rotatably attaching to the row unit support near the trailing end; a gather chain having a plurality of gather chain lugs, the gather chain enmeshed with the idler sprocket and the drive sprocket; a deck plate having a harvest side, a return side, a first end and a second end, the deck plate attaching to the row unit support, - is aligned to or overlaps an edge of the harvest side plate, - includes an idler notch being formed near the second end of the deck plate - includes a kernel channel formed on at least a portion of the return side of the deck plate, the kernel channel being configured for guiding a kernel from the deck plate extension to the harvest side deck plate.
A semiconductor chip comprising: a functional unit; a plurality of voltage/clock domains, each operating with operating parameters; and a plurality of monitors, each configured to: receive (206, 506) actual usage values from a respective one of the plurality of voltage/clock domains; compare (210, 214, 512) the actual usage values to expected usage values of the voltage/clock domains, wherein each expected usage is based at least in part on an age of a functional unit; and provide information corresponding to said compare updated with a weight associated with a respective voltage/clock domain; a power manager configured to: update operating parameters of the functional unit to change power consumption for the functional unit responsive to the information; and send the updated operating parameters to the functional unit. a functional unit; a plurality of voltage/clock domains, each operating with operating parameters; and a plurality of monitors, each configured to: receive (206, 506) actual usage values from a respective one of the plurality of voltage/clock domains; compare (210, 214, 512) the actual usage values to expected usage values of the voltage/clock domains, wherein each expected usage is based at least in part on an age of a functional unit; and provide information corresponding to said compare updated with a weight associated with a respective voltage/clock domain; receive (206, 506) actual usage values from a respective one of the plurality of voltage/clock domains; compare (210, 214, 512) the actual usage values to expected usage values of the voltage/clock domains, wherein each expected usage is based at least in part on an age of a functional unit; and provide information corresponding to said compare updated with a weight associated with a respective voltage/clock domain; a power manager configured to: update operating parameters of the functional unit to change power consumption for the functional unit responsive to the information; and send the updated operating parameters to the functional unit. update operating parameters of the functional unit to change power consumption for the functional unit responsive to the information; and send the updated operating parameters to the functional unit.
A device for mixing ingredients, the device comprising: a container having a container body defining a container cavity, the container body further defining at least one port in fluid communication with the container cavity, the container body including a bottom wall; a fixed impeller shaft including a first end, a second end, and an elongate shaft body extending therebetween, the second end of said shaft attached to a bottom portion of said container within said cavity; an elongate impeller having an elongate impeller body defining a transversely-extending central aperture to receive the first end of the shaft so as to be free to rotate about the shaft, and an elongate hollow evacuation tube extending between a port on the container, to the lowest portion of the interior of the container, characterized in that the elongate hollow evacuation tube extends around the outermost circumferential pathway of the impeller and in that the fixed impeller shaft is formed from the same material as the container body. a container having a container body defining a container cavity, the container body further defining at least one port in fluid communication with the container cavity, the container body including a bottom wall; a fixed impeller shaft including a first end, a second end, and an elongate shaft body extending therebetween, the second end of said shaft attached to a bottom portion of said container within said cavity; an elongate impeller having an elongate impeller body defining a transversely-extending central aperture to receive the first end of the shaft so as to be free to rotate about the shaft, and an elongate hollow evacuation tube extending between a port on the container, to the lowest portion of the interior of the container, characterized in that the elongate hollow evacuation tube extends around the outermost circumferential pathway of the impeller and in that the fixed impeller shaft is formed from the same material as the container body.
A method for aircraft battery management, the method comprising: receiving, by a battery management system, aircraft movement information of an aircraft; the method being characterized by further comprising: detecting, by the battery management system, that the movement information indicates a potential crash; detecting, by the battery management system, a loss of current in at least one low voltage wire; and blowing, by the battery management system, a battery pack fuse (131, 132, 134, 170, 172, 174) of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack. receiving, by a battery management system, aircraft movement information of an aircraft; the method being characterized by further comprising: detecting, by the battery management system, that the movement information indicates a potential crash; detecting, by the battery management system, a loss of current in at least one low voltage wire; and blowing, by the battery management system, a battery pack fuse (131, 132, 134, 170, 172, 174) of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack. detecting, by the battery management system, that the movement information indicates a potential crash; detecting, by the battery management system, a loss of current in at least one low voltage wire; and blowing, by the battery management system, a battery pack fuse (131, 132, 134, 170, 172, 174) of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack.
A fuel filler structure for a fuel tank, comprising: a fuel fill inlet member that is equipped with a fuel fill inlet into which a fuel nozzle for fueling a fuel tank is inserted; an opening and closing valve that can open and close the fuel fill inlet; a valve shaft for attaching the opening and closing valve to the fuel fill inlet member in such a way that the opening and closing valve can rotate between a closed position, in which it closes the fuel fill inlet, and an open position, in which it opens the fuel fill inlet as a result of being pushed by the fuel nozzle; a valve biasing member that biases the opening and closing valve from the open position to the closed position; and a damper which, when the opening and closing valve rotates from the open position to the closed position, contacts the opening and closing valve on a near side of the opening and closing valve in a direction in which the fuel nozzle is inserted into the fuel fill inlet member and generates resistance in the rotation of the opening and closing valve, characterized in that the damper comprises: a damper contact piece that contacts the opening and closing valve; a damper shaft that is disposed on an insertion direction near side of, and parallel to, a rotational center of the valve shaft, and that is configured to rotatably attach the damper contact piece to the fuel fill inlet member; and a damper biasing member that biases the damper contact piece in a direction in which the damper contact piece contacts the opening and closing valve. a fuel fill inlet member that is equipped with a fuel fill inlet into which a fuel nozzle for fueling a fuel tank is inserted; an opening and closing valve that can open and close the fuel fill inlet; a valve shaft for attaching the opening and closing valve to the fuel fill inlet member in such a way that the opening and closing valve can rotate between a closed position, in which it closes the fuel fill inlet, and an open position, in which it opens the fuel fill inlet as a result of being pushed by the fuel nozzle; a valve biasing member that biases the opening and closing valve from the open position to the closed position; and a damper which, when the opening and closing valve rotates from the open position to the closed position, contacts the opening and closing valve on a near side of the opening and closing valve in a direction in which the fuel nozzle is inserted into the fuel fill inlet member and generates resistance in the rotation of the opening and closing valve, a damper contact piece that contacts the opening and closing valve; a damper shaft that is disposed on an insertion direction near side of, and parallel to, a rotational center of the valve shaft, and that is configured to rotatably attach the damper contact piece to the fuel fill inlet member; and a damper biasing member that biases the damper contact piece in a direction in which the damper contact piece contacts the opening and closing valve.