mhurhangee/ep-ind-claims huggingface dataset:
A system for dynamically analyzing a quantity of context sensitive information to determine a relevant sub-quantity of information therefrom to be provided to an operator of an aircraft, the system comprising: a dynamic flight information evaluation system configured to: evaluate, in real time, a quantity of available context sensitive information to be considered by an operator of an aircraft in executing a flight procedure in said aircraft; and eliminate therefrom a portion of said context sensitive information that is not relevant to enabling said operator to execute said flight procedure, to produce a sub-quantity of context sensitive information that is relevant to enabling said operator to execute said flight procedure; and a display system responsive to said dynamic flight information system configured to display, in real time, said subset of context sensitive information; and wherein said quantity of available context sensitive information comprises minima information relating to a landing approach for a particular airport and is characterised in that the subset of context sensitive information relates to a subset of all the available minima information that is tailored to the specific operational and weather conditions present at the particular airport at a given time, as well as the specific type of aircraft, said conditions including whether various lighting and approach systems are available and operational at the airport. a dynamic flight information evaluation system configured to: evaluate, in real time, a quantity of available context sensitive information to be considered by an operator of an aircraft in executing a flight procedure in said aircraft; and eliminate therefrom a portion of said context sensitive information that is not relevant to enabling said operator to execute said flight procedure, to produce a sub-quantity of context sensitive information that is relevant to enabling said operator to execute said flight procedure; and evaluate, in real time, a quantity of available context sensitive information to be considered by an operator of an aircraft in executing a flight procedure in said aircraft; and eliminate therefrom a portion of said context sensitive information that is not relevant to enabling said operator to execute said flight procedure, to produce a sub-quantity of context sensitive information that is relevant to enabling said operator to execute said flight procedure; and a display system responsive to said dynamic flight information system configured to display, in real time, said subset of context sensitive information; and
A device comprising: a packaged assembly disposed on a substrate; a metal channel layer disposed directly on top of the packaged assembly, wherein the metal channel layer has a plurality of channels formed into its surface for conducting fluid through the channels; wherein the packaged assembly comprises a plurality of silicon channels in addition to the plurality of the channels in the metal channel layer; and a top seal disposed on the metal channel layer, wherein the top seal has at least one inlet positioned to introduce a cooling liquid into the channels and at least one outlet positioned to allow outflow of the cooling liquid out of the channels. a packaged assembly disposed on a substrate; a metal channel layer disposed directly on top of the packaged assembly, wherein the metal channel layer has a plurality of channels formed into its surface for conducting fluid through the channels; wherein the packaged assembly comprises a plurality of silicon channels in addition to the plurality of the channels in the metal channel layer; and a top seal disposed on the metal channel layer, wherein the top seal has at least one inlet positioned to introduce a cooling liquid into the channels and at least one outlet positioned to allow outflow of the cooling liquid out of the channels.
A method for processing directory queries in a directory system including a disk based evaluator (103;54) configured to process directory queries in association with a first data store stored on a disk, and at least one alternate evaluator (212;304-306;60) configured to process directory queries in association with data in a second data store (213;307-309;62) that resides in a local memory within the alternate evaluator, the method comprising: determining one or more data types to be loaded in accordance with a configuration of an alternate evaluator (212;304-306;60); retrieving directory data objects that include the determined data types from the first data store; preloading, for each directory data object retrieved from the first data store, object name and determined data type data into the local memory of the alternate evaluator (212;304-306;60) before a directory query for said retrieved data is received by the directory system; receiving a directory query for said retrieved data after the alternate evaluator is preloaded; and responding, by the alternate evaluator, to the directory query using the preloaded object name and determined data type data of the alternate evaluator. determining one or more data types to be loaded in accordance with a configuration of an alternate evaluator (212;304-306;60); retrieving directory data objects that include the determined data types from the first data store; preloading, for each directory data object retrieved from the first data store, object name and determined data type data into the local memory of the alternate evaluator (212;304-306;60) before a directory query for said retrieved data is received by the directory system; receiving a directory query for said retrieved data after the alternate evaluator is preloaded; and responding, by the alternate evaluator, to the directory query using the preloaded object name and determined data type data of the alternate evaluator.
A surface handling facility, comprising: - a main vacuum enclosure equipped with handling means, in particular of the plasma type, - at least one device for transferring objects between a zone at atmospheric pressure and a zone under vacuum, the or each transfer device being provided upstream and/or downstream of the main enclosure and comprising: - a frame - a housing formed in this frame, - a transfer member, movably mounted in the housing relative to the frame by being rotatably mounted in the housing, this transfer member comprising at least one cell for receiving at least one object to be transferred, - the frame defining a first opening in communication with the zone at atmospheric pressure, a second opening in communication with the zone under vacuum, as well as an intermediate region placed either under vacuum or at atmospheric pressure, - insulation means between the intermediate region and each opening, - driving means, suitable for driving each cell successively opposite to the first opening, the intermediate region, then the second opening, characterised in that the facility further comprises: - means for unstacking/stacking objects, placed opposite to the second opening of each transfer device, and in that the main enclosure of the facility comprises: - means for conveying the objects, - elements (24, 25) for supporting each object, which are secured to the conveying means. - a main vacuum enclosure equipped with handling means, in particular of the plasma type, - at least one device for transferring objects between a zone at atmospheric pressure and a zone under vacuum, the or each transfer device being provided upstream and/or downstream of the main enclosure and comprising: - a frame - a housing formed in this frame, - a transfer member, movably mounted in the housing relative to the frame by being rotatably mounted in the housing, this transfer member comprising at least one cell for receiving at least one object to be transferred, - the frame defining a first opening in communication with the zone at atmospheric pressure, a second opening in communication with the zone under vacuum, as well as an intermediate region placed either under vacuum or at atmospheric pressure, - insulation means between the intermediate region and each opening, - driving means, suitable for driving each cell successively opposite to the first opening, the intermediate region, then the second opening, characterised in that the facility further comprises: - means for unstacking/stacking objects, placed opposite to the second opening of each transfer device, and in that the main enclosure of the facility comprises: - means for conveying the objects, - elements (24, 25) for supporting each object, which are secured to the conveying means.
Drill rod support comprising means capable of moving two opposing drill rod support halves, each half comprising a surface for direct contact with a drill string, and each half being provided with a recess capable of forming a drill string opening with an opposing drill rod support half, the recess being generally v-shaped, for enabling guiding of drill strings of different shape and dimension, characterized in that the drill rod support halves are continuously and parallelly displaceable to and from each other, for enabling contact with the drill string, whereby the two drill rod support halves can be used for guiding the drill strings of different shape and dimension, and the support half surface for contact with the drill string is manufactured out of a material with low friction against the drill string.
A method for echo cancellation comprising: sending, by a first computing device through a transmit chain and a non-linear radio frequency power amplifier external to the transmit chain of the first computing device, a transmit signal including one or more non-linear elements; receiving, by the first computing device, at least a portion of the transmit signal through a receive chain of the first computing device; simulating, by the first computing device, the transmit chain to generate a first signal; generating, by the first computing device, a second signal by frequency shifting the first signal generated by the simulated transmit chain; generating, by the first computing device, one or more first kernels associated with the second signal; generating, by the first computing device, an echo cancellation signal associated with the transmit signal by performing decimation and transforming using a lower triangular matrix based on the one or more first kernels to obtain one or more second kernels, and by combining the one or more second kernels to generate the echo cancellation signal; subtracting, by the first computing device, the echo cancellation signal from the at least a portion of the transmit signal received in the receive chain. sending, by a first computing device through a transmit chain and a non-linear radio frequency power amplifier external to the transmit chain of the first computing device, a transmit signal including one or more non-linear elements; receiving, by the first computing device, at least a portion of the transmit signal through a receive chain of the first computing device; simulating, by the first computing device, the transmit chain to generate a first signal; generating, by the first computing device, a second signal by frequency shifting the first signal generated by the simulated transmit chain; generating, by the first computing device, one or more first kernels associated with the second signal; generating, by the first computing device, an echo cancellation signal associated with the transmit signal by performing decimation and transforming using a lower triangular matrix based on the one or more first kernels to obtain one or more second kernels, and by combining the one or more second kernels to generate the echo cancellation signal; subtracting, by the first computing device, the echo cancellation signal from the at least a portion of the transmit signal received in the receive chain.
A protection system for a nuclear boiling water reactor, the protection system configured to: measure and/or calculate reactor power; monitor reactor operating pressure; calculate a first power-dependent high reactor pressure setpoint (HRPS 100) that corresponds to 100% reactor power; determine at least one second power-dependent high reactor pressure setpoint (PDHRPS) that corresponds to at least one value of percent reactor power in an operating domain of the reactor, based on the measured and/or calculated reactor power; wherein the at least one second power-dependent high reactor pressure setpoint (PDHRPS) is less than the first power-dependent high reactor pressure setpoint (HRPS 100) that corresponds to 100% reactor power; wherein the protection system is further configured to initiate a reactor scram and/or an alarm and/or a warning if the monitored reactor pressure is greater than the first power-dependent high reactor pressure setpoint (HRPS 100) or the at least one second power-dependent high reactor pressure setpoint (PDHRPS); wherein the protection system is further configured such that the at least one second power-dependent high pressure set point (PDHRPS) is calculated as either of: PDHRPS = reactor operating pressure + HRPS 100 − RP 100 wherein RP 100 represent the rated reactor pressure that corresponds to 100% power; and PDHRPS = HRPS 100 − S * P / P 0 where S represents a slope. measure and/or calculate reactor power; monitor reactor operating pressure; calculate a first power-dependent high reactor pressure setpoint (HRPS 100) that corresponds to 100% reactor power; determine at least one second power-dependent high reactor pressure setpoint (PDHRPS) that corresponds to at least one value of percent reactor power in an operating domain of the reactor, based on the measured and/or calculated reactor power; wherein the at least one second power-dependent high reactor pressure setpoint (PDHRPS) is less than the first power-dependent high reactor pressure setpoint (HRPS 100) that corresponds to 100% reactor power; wherein the protection system is further configured to initiate a reactor scram and/or an alarm and/or a warning if the monitored reactor pressure is greater than the first power-dependent high reactor pressure setpoint (HRPS 100) or the at least one second power-dependent high reactor pressure setpoint (PDHRPS); wherein the protection system is further configured such that the at least one second power-dependent high pressure set point (PDHRPS) is calculated as either of: PDHRPS = reactor operating pressure + HRPS 100 − RP 100 wherein RP 100 represent the rated reactor pressure that corresponds to 100% power; and PDHRPS = HRPS 100 − S * P / P 0 where S represents a slope.
A radiator for an antenna, comprising: a pair of PCB stems arranged in an interlocking cross fashion, each of the PCB stems having a front side and a rear side, wherein disposed on each PCB stem is a pair of feeder metallic traces, wherein each feeder metallic trace comprises a feeder portion and a horizontal trace portion such that the horizontal trace portion is perpendicular to the feeder portion and a corresponding pair of opposing metallic traces, wherein the horizontal trace portion has a profile that substantially overlaps with a profile of the corresponding opposing metallic trace, wherein each horizontal trace portion and corresponding opposing metallic trace are electrically coupled by a plurality of vias formed in the PCB stem and wherein the plurality of vias are disposed horizontally along the profile of the horizontal trace portion; and a radiator plate mechanically coupled to the pair of PCB stems. a pair of PCB stems arranged in an interlocking cross fashion, each of the PCB stems having a front side and a rear side, wherein disposed on each PCB stem is a pair of feeder metallic traces, wherein each feeder metallic trace comprises a feeder portion and a horizontal trace portion such that the horizontal trace portion is perpendicular to the feeder portion and a corresponding pair of opposing metallic traces, wherein the horizontal trace portion has a profile that substantially overlaps with a profile of the corresponding opposing metallic trace, wherein each horizontal trace portion and corresponding opposing metallic trace are electrically coupled by a plurality of vias formed in the PCB stem and wherein the plurality of vias are disposed horizontally along the profile of the horizontal trace portion; and a radiator plate mechanically coupled to the pair of PCB stems.
Amounting bracket for a cell supervision circuit, characterized in that, the mounting bracket comprises: a management system mounting part, comprising a management system mounting surface, wherein the management system mounting surface is configured to mount the cell supervision circuit; and a thermally conductive part, configured to fit snugly to a container of a battery pack, wherein the thermally conductive part is connected to one end of the management system mounting part, and disposed on a side where the management system mounting surface is located, wherein a container mounting part is disposed on two sides of the thermally conductive part, the container mounting part comprises a container mounting surface, the container mounting surface is perpendicular to the management system mounting surface, and the container comprises a step recessed inward, the container mounting part is snugly connected to the step, and the thermally conductive part is configured to protrude outward with respect to the container mounting part so as to fit snugly to the container. a management system mounting part, comprising a management system mounting surface, wherein the management system mounting surface is configured to mount the cell supervision circuit; and a thermally conductive part, configured to fit snugly to a container of a battery pack, wherein the thermally conductive part is connected to one end of the management system mounting part, and disposed on a side where the management system mounting surface is located, wherein a container mounting part is disposed on two sides of the thermally conductive part, the container mounting part comprises a container mounting surface, the container mounting surface is perpendicular to the management system mounting surface, and the container comprises a step recessed inward, the container mounting part is snugly connected to the step, and the thermally conductive part is configured to protrude outward with respect to the container mounting part so as to fit snugly to the container.
Method for obtaining a profile for access to a communication network by a secondary terminal via a main terminal, the main terminal comprising a security element comprising an authentication key, said authentication key being used by the network and by the main terminal to generate at least one session master key (Kasme) specific to the main terminal, the method, implemented by the secondary terminal, comprising: - provision to the main terminal of an identifier (IDsec) of the secondary terminal, - reception from the main terminal of data comprising a temporary key (Ksec) specific to the secondary terminal, a temporary identifier (IMSIsec) of the secondary terminal, and an identifier (ID NE) of the network for access to the network, said temporary key, the identifier of the network and the identifier of the secondary terminal being intended to calculate a secondary session master key shared with the network, said temporary key being generated on the basis of the temporary identifier of the secondary terminal (IMSIsec) generated by the network and of the session master key (Kasme) of the main terminal, the profile for access to the network of the secondary terminal comprising the temporary key (Ksec), the temporary identifier (IMSIsec), the identifier (IDsec) of the secondary terminal and the identifier (ID NE) of the access network, the reception of these data indicating to the secondary terminal its authentication with the access network identified and the authentication of said access network with the secondary terminal. - provision to the main terminal of an identifier (IDsec) of the secondary terminal, - reception from the main terminal of data comprising a temporary key (Ksec) specific to the secondary terminal, a temporary identifier (IMSIsec) of the secondary terminal, and an identifier (ID NE) of the network for access to the network, said temporary key, the identifier of the network and the identifier of the secondary terminal being intended to calculate a secondary session master key shared with the network, said temporary key being generated on the basis of the temporary identifier of the secondary terminal (IMSIsec) generated by the network and of the session master key (Kasme) of the main terminal, the profile for access to the network of the secondary terminal comprising the temporary key (Ksec), the temporary identifier (IMSIsec), the identifier (IDsec) of the secondary terminal and the identifier (ID NE) of the access network,
A medical device for treating a target site in a body lumen, the medical device comprising: a stent-like structure comprising a plurality of scoring filaments and a plurality of non-scoring filaments (201; 202) interwoven with one another, wherein each scoring filament comprises a pointed shape, wherein the stent-like structure comprises more non-scoring filaments than scoring filaments, wherein at least one scoring filament comprises a plurality of notches for receiving at least one non-scoring filament (201; 202) as the at least one non-scoring filament crosses the at least one scoring filament, and wherein the plurality of notches are distributed over a length of the at least one scoring filament. a stent-like structure comprising a plurality of scoring filaments and a plurality of non-scoring filaments (201; 202) interwoven with one another, wherein each scoring filament comprises a pointed shape, wherein the stent-like structure comprises more non-scoring filaments than scoring filaments, wherein at least one scoring filament comprises a plurality of notches for receiving at least one non-scoring filament (201; 202) as the at least one non-scoring filament crosses the at least one scoring filament, and wherein the plurality of notches are distributed over a length of the at least one scoring filament.