mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, by a computer system executing a database management system, DBMS, a database query for a database, wherein the database query is received from a particular version of an application having a plurality of versions, and wherein the database query specifies the particular version; identifying, by the computer system, one or more catalog tables, wherein the one or more catalog tables include version information columns storing version access information, wherein the version information columns comprise a start version column and a stop version column, and wherein the start version column and the stop version column for a given database object specify a range of application versions for which the given database object is accessible; determining, by the computer system, based on the version access information stored in the start version column and the stop version column that one or more database objects corresponding to the database query are accessible to the particular version of the application; and accessing, by the computer system based on the determining, one or more database objects that are responsive to the database query and are accessible to the particular version of the application. receiving, by a computer system executing a database management system, DBMS, a database query for a database, wherein the database query is received from a particular version of an application having a plurality of versions, and wherein the database query specifies the particular version; identifying, by the computer system, one or more catalog tables, wherein the one or more catalog tables include version information columns storing version access information, wherein the version information columns comprise a start version column and a stop version column, and wherein the start version column and the stop version column for a given database object specify a range of application versions for which the given database object is accessible; determining, by the computer system, based on the version access information stored in the start version column and the stop version column that one or more database objects corresponding to the database query are accessible to the particular version of the application; and accessing, by the computer system based on the determining, one or more database objects that are responsive to the database query and are accessible to the particular version of the application.
An air separation module, comprising: a canister, comprising an inlet end and an outlet end, arranged along a canister axis; a separator supported within the canister and arranged to separate a compressed air flow received at the air separation module into an oxygen-depleted air flow fraction and an oxygen-enriched air flow fraction; a filter module; an inlet cap seated about the inlet end of the canister and containing therein a portion of the separator, wherein the inlet cap includes: a filter module mount that supports the filter module and fluidly couples the filter module with the canister, and an oxygen-enriched air outlet port fluidly separated from the outlet end of the canister by the separator for diverting the oxygen-enriched air flow fraction to an external environment; and an outlet cap seated on the outlet end of the canister, wherein the outlet cap has an outlet cap axial length, wherein the inlet cap has an inlet cap axial length, and wherein the inlet cap axial length is greater than the outlet cap axial length to contain therein a portion of the separator. a canister, comprising an inlet end and an outlet end, arranged along a canister axis; a separator supported within the canister and arranged to separate a compressed air flow received at the air separation module into an oxygen-depleted air flow fraction and an oxygen-enriched air flow fraction; a filter module; an inlet cap seated about the inlet end of the canister and containing therein a portion of the separator, wherein the inlet cap includes: a filter module mount that supports the filter module and fluidly couples the filter module with the canister, and an oxygen-enriched air outlet port fluidly separated from the outlet end of the canister by the separator for diverting the oxygen-enriched air flow fraction to an external environment; and an outlet cap seated on the outlet end of the canister, wherein the outlet cap has an outlet cap axial length, wherein the inlet cap has an inlet cap axial length, and wherein the inlet cap axial length is greater than the outlet cap axial length to contain therein a portion of the separator. a filter module mount that supports the filter module and fluidly couples the filter module with the canister, and an oxygen-enriched air outlet port fluidly separated from the outlet end of the canister by the separator for diverting the oxygen-enriched air flow fraction to an external environment; and an outlet cap seated on the outlet end of the canister, wherein the outlet cap has an outlet cap axial length, wherein the inlet cap has an inlet cap axial length, and wherein the inlet cap axial length is greater than the outlet cap axial length to contain therein a portion of the separator.
An apparatus comprising: a plurality of storage elements (112a-112m) coupled in series and configured to capture and store energy received from a plurality of sources (104a-104m); a balancer coupled to the plurality of storage elements, comprising a plurality of balancer output ports (119a-119n) and configured to balance energy drawn from each storage element; characterized in that the apparatus further comprises: a plurality of taps (118a-118n) for coupling to a plurality of loads (130a-130p) within a load device; a plurality of output stages (116a-116n), each output stage including a pass gate connected to a respective balancer output port and to a respective tap among the plurality of balancer outputs and the plurality of taps; and a control logic coupled to the balancer and the plurality of output stages configured to receive a signal indicating at least anticipated energy consumption for the load device and configured to control operation of the balancer and the pass gates in the plurality of output stages based on the anticipated energy consumption. a plurality of storage elements (112a-112m) coupled in series and configured to capture and store energy received from a plurality of sources (104a-104m); a balancer coupled to the plurality of storage elements, comprising a plurality of balancer output ports (119a-119n) and configured to balance energy drawn from each storage element; characterized in that the apparatus further comprises: a plurality of taps (118a-118n) for coupling to a plurality of loads (130a-130p) within a load device; a plurality of output stages (116a-116n), each output stage including a pass gate connected to a respective balancer output port and to a respective tap among the plurality of balancer outputs and the plurality of taps; and a control logic coupled to the balancer and the plurality of output stages configured to receive a signal indicating at least anticipated energy consumption for the load device and configured to control operation of the balancer and the pass gates in the plurality of output stages based on the anticipated energy consumption. a plurality of taps (118a-118n) for coupling to a plurality of loads (130a-130p) within a load device; a plurality of output stages (116a-116n), each output stage including a pass gate connected to a respective balancer output port and to a respective tap among the plurality of balancer outputs and the plurality of taps; and a control logic coupled to the balancer and the plurality of output stages configured to receive a signal indicating at least anticipated energy consumption for the load device and configured to control operation of the balancer and the pass gates in the plurality of output stages based on the anticipated energy consumption.
A compound of following Formula 1 or a pharmaceutically acceptable salt thereof: wherein R 1 and R 2 are taken together with nitrogen to which they are attached to form C 3-6 heterocycloalkene having 4 to 7 ring atoms; or piperidinyl, which is substituted with C 1-4 alkyl in at least one position thereof; and R 3 is hydrogen; C 1-6 alkyl; phenyl; or C 1-4 alkyl substituted with phenyl, wherein the C 3-6 heterocycloalkene is unsubstituted or substituted with at least one substituent selected from the group consisting of halogen, hydroxy and C 1-6 alkyl, the phenyl is unsubstituted or substituted with at least one non-hydrogen substituent selected from the group consisting of halogen, hydroxy, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, and C 1-6 haloalkoxy. wherein R 1 and R 2 are taken together with nitrogen to which they are attached to form C 3-6 heterocycloalkene having 4 to 7 ring atoms; or piperidinyl, which is substituted with C 1-4 alkyl in at least one position thereof; and R 3 is hydrogen; C 1-6 alkyl; phenyl; or C 1-4 alkyl substituted with phenyl, wherein the C 3-6 heterocycloalkene is unsubstituted or substituted with at least one substituent selected from the group consisting of halogen, hydroxy and C 1-6 alkyl, the phenyl is unsubstituted or substituted with at least one non-hydrogen substituent selected from the group consisting of halogen, hydroxy, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, and C 1-6 haloalkoxy.
A process for production of free fatty acids, the process comprising the steps of: a. Providing a feedstock comprising a blend of: algal oil and fat, wherein the feedstock contains 1-45 % w/w, algal oil; b. Hydrolysing the feedstock to obtain at least an oily phase; c. Recovering the oily phase; and d. Distilling the oily phase for recovering free fatty acids contained therein. a. Providing a feedstock comprising a blend of: algal oil and fat, wherein the feedstock contains 1-45 % w/w, algal oil; b. Hydrolysing the feedstock to obtain at least an oily phase; c. Recovering the oily phase; and d. Distilling the oily phase for recovering free fatty acids contained therein.
A wavelength converter comprising: a substrate portion; and an optical conversion layer including optical conversion inorganic particles and a binder portion that mutually holds the optical conversion inorganic particles, and being formed on the substrate portion, wherein the substrate portion and the binder portion bond to each other, and wherein the binder portion includes, as a main component, an inorganic polycrystalline substance composed in such a manner that inorganic material particles having an average particle size of 1 μm or less are bound to one another, and has thermal conductivity of 2 w/mK or more, wherein the inorganic polycrystalline substance is a dilute-acid pressed inorganic sintered body, and wherein, in the substrate portion and the binder portion, the substrate portion and the dilute-acid pressed inorganic sintered body in the binder portion directly bond to each other in at least a part of an interface between the substrate portion and the binder portion. a substrate portion; and an optical conversion layer including optical conversion inorganic particles and a binder portion that mutually holds the optical conversion inorganic particles, and being formed on the substrate portion, wherein the substrate portion and the binder portion bond to each other, and wherein the binder portion includes, as a main component, an inorganic polycrystalline substance composed in such a manner that inorganic material particles having an average particle size of 1 μm or less are bound to one another, and has thermal conductivity of 2 w/mK or more, wherein the inorganic polycrystalline substance is a dilute-acid pressed inorganic sintered body, and wherein, in the substrate portion and the binder portion, the substrate portion and the dilute-acid pressed inorganic sintered body in the binder portion directly bond to each other in at least a part of an interface between the substrate portion and the binder portion.
A signal encoding apparatus comprising: spectral transformation means for transforming an inputted time domain audio signal per preset unit time to a frequency domain spectral signal; normalization means for generating a normalized spectral signal by selecting any of a plurality of normalization factors having a preset step width with respect to each of the spectral signals and normalizing the spectral signal through use of a selected normalization factor; quantization accuracy determining means for adding a weighting factor per spectral signal to a normalization factor index used for the normalization and determining quantization accuracy of each normalized spectral signal based on the result of addition; quantization means for quantizing each of the normalized spectral signals according to the quantization accuracy to generate a quantized spectral signal; and encoding means for generating code strings by at least encoding the quantized spectral signal, the normalization factor index, and weight information on the weighting factor. spectral transformation means for transforming an inputted time domain audio signal per preset unit time to a frequency domain spectral signal; normalization means for generating a normalized spectral signal by selecting any of a plurality of normalization factors having a preset step width with respect to each of the spectral signals and normalizing the spectral signal through use of a selected normalization factor; quantization accuracy determining means for adding a weighting factor per spectral signal to a normalization factor index used for the normalization and determining quantization accuracy of each normalized spectral signal based on the result of addition; quantization means for quantizing each of the normalized spectral signals according to the quantization accuracy to generate a quantized spectral signal; and encoding means for generating code strings by at least encoding the quantized spectral signal, the normalization factor index, and weight information on the weighting factor.
A thermal energy storage system comprising: a cylindrical pressure vessel configured to withstand a first pressure, the pressure vessel having a wall comprising: an outer surface; and an inner surface surrounding an interior volume of the pressure vessel, the interior volume having: a first end able to communicate fluidly with one or more compressors and one or more turbines; and a second end able to communicate fluidly with at least one compressed air storage component; a thermal storage medium positioned in the interior volume; and at least one reinforcement structure affixed to the outer surface of the wall and extending into the interior volume of the pressure vessel; the at least one reinforcement structure configured to reinforce the wall to withstand pressure greater than the first pressure; wherein the at least one reinforcement structure comprises a plurality of steel rods forming a spoke-shaped framework within the interior volume of the pressure vessel, each of the rods is retained by a respective anchor on an outside surface of the wall, while the other end passes through the wall and coupled at a common centerpoint hub located within interior volume. a cylindrical pressure vessel configured to withstand a first pressure, the pressure vessel having a wall comprising: an outer surface; and an inner surface surrounding an interior volume of the pressure vessel, the interior volume having: a first end able to communicate fluidly with one or more compressors and one or more turbines; and a second end able to communicate fluidly with at least one compressed air storage component; a thermal storage medium positioned in the interior volume; and at least one reinforcement structure affixed to the outer surface of the wall and extending into the interior volume of the pressure vessel; the at least one reinforcement structure configured to reinforce the wall to withstand pressure greater than the first pressure; an outer surface; and an inner surface surrounding an interior volume of the pressure vessel, the interior volume having: a first end able to communicate fluidly with one or more compressors and one or more turbines; and a second end able to communicate fluidly with at least one compressed air storage component; a first end able to communicate fluidly with one or more compressors and one or more turbines; and a second end able to communicate fluidly with at least one compressed air storage component; a thermal storage medium positioned in the interior volume; and at least one reinforcement structure affixed to the outer surface of the wall and extending into the interior volume of the pressure vessel; the at least one reinforcement structure configured to reinforce the wall to withstand pressure greater than the first pressure; wherein the at least one reinforcement structure comprises a plurality of steel rods forming a spoke-shaped framework within the interior volume of the pressure vessel, each of the rods is retained by a respective anchor on an outside surface of the wall, while the other end passes through the wall and coupled at a common centerpoint hub located within interior volume.
Submarine working cable having a core with a conductor and/or hollow strands and a sheath (12, 47, 52), arranged around the core, serving at least partially as a tension member and having at least one outer layer of metallic strands (46, 49), and at least one portion of the strands (44, 48) of the sheath (12, 47, 52) is formed of a high tensile, non-metallic material, in that between the outer layer and the core there is arranged at least one layer made of or with high-tensile non-metallic strands (44, 48), characterized in that the non-metallic strands (44, 48) are formed at least to a large extent from carbon fibres, which run largely parallel to one another in the longitudinal direction of the non-metallic strands (44, 48), and the non-metallic strands (44, 48) are surrounded by a wrapping serving as a protective layer and/or are provided with an outer coating, or the at least one layer comprising a plurality of non-metallic strands (44, 48) is assigned an intermediate layer and/or protective layer.
Cyclone separator having a horizontal cyclone axis, which cyclone separator comprises - an inlet for the mixture of the air with aerosol into the cyclone region, - a cyclone having a horizontal axis, and - an air outlet, a collecting line being arranged in the form of a basin in a space of the separator under an end edge of a lower wall of the cyclone, characterized in that the collecting line has a smaller drop towards a side wall of the separator, where an opening is formed which opens into a perpendicularly downwardly directed drainage tube, and in that the inlet extends along substantially the entire length of the cyclone. - an inlet for the mixture of the air with aerosol into the cyclone region, - a cyclone having a horizontal axis, and - an air outlet,
A vehicle headrest comprising: an electro-acoustic transducer; an acoustic enclosure defining an acoustic chamber, the acoustic enclosure supporting the electro-acoustic transducer such that a rear radiating surface of the electro-acoustic transducer radiates acoustic energy into the acoustic chamber; a cushion member coupled to the acoustic enclosure for supporting a user's head; and a grille member overlying a front radiating surface of the electro-acoustic transducer, the grille member comprising a 3D printed lattice. an electro-acoustic transducer; an acoustic enclosure defining an acoustic chamber, the acoustic enclosure supporting the electro-acoustic transducer such that a rear radiating surface of the electro-acoustic transducer radiates acoustic energy into the acoustic chamber; a cushion member coupled to the acoustic enclosure for supporting a user's head; and a grille member overlying a front radiating surface of the electro-acoustic transducer, the grille member comprising a 3D printed lattice.
An audio encoder for encoding a sequence of segments of coefficients, the segments being subsequent to each other in time, the audio encoder comprising a means for providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions; a processor for deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and an entropy encoder for entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the processor and the entropy encoder are configured to operate based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment and/or wherein the processor and the entropy encoder are configured to operate based on an up-sampling of spectral coefficients of the previous segment, when the previous segment displays a coarser spectral resolution than the current segment.
A safety tensioning device for automobile, comprising: a main body, a winding mechanism and a first strap; the winding mechanism comprises a frame having two opposite walls, a winding shaft and a winding wheel; the winding shaft runs through the two opposite walls of the frame, the winding wheel is mounted on the shaft and disposed outside of the frame, and an inner end of the first strap is connected to the winding shaft; when the winding wheel rotates outward, the winding wheel drives the winding shaft to rotate synchronously so that the first strap is wound onto the winding shaft and inside the frame, and when the winding wheel rotates inward, the winding wheel drives the winding shaft to be locked to the frame, thus preventing the first strap from unwinding, characterized in that the winding shaft has a threaded end extending out of the frame, and the winding wheel is in threaded onto the threaded end, wherein a stopper is disposed on an end of the threaded end, the winding wheel is capable of resisting against the stopper when rotating outward, and the winding wheel is capable of resisting against the outer surface of the frame when rotating inward, and the stopper is fixed to the threaded end through a screw. a main body, a winding mechanism and a first strap; the winding mechanism comprises a frame having two opposite walls, a winding shaft and a winding wheel; the winding shaft runs through the two opposite walls of the frame, the winding wheel is mounted on the shaft and disposed outside of the frame, and an inner end of the first strap is connected to the winding shaft; when the winding wheel rotates outward, the winding wheel drives the winding shaft to rotate synchronously so that the first strap is wound onto the winding shaft and inside the frame, and when the winding wheel rotates inward, the winding wheel drives the winding shaft to be locked to the frame, thus preventing the first strap from unwinding, characterized in that the winding shaft has a threaded end extending out of the frame, and the winding wheel is in threaded onto the threaded end, wherein a stopper is disposed on an end of the threaded end, the winding wheel is capable of resisting against the stopper when rotating outward, and the winding wheel is capable of resisting against the outer surface of the frame when rotating inward, and the stopper is fixed to the threaded end through a screw.