mhurhangee/ep-ind-claims huggingface dataset:
A method, implemented at a Network Repository Function, NRF, associated with a Fifth Generation, 5G, network, the method comprising: receiving, from a Network Function, NF, consumer associated with the 5G network, a discovery request for information associated with a NF producer type; receiving, from NF producers associated with the NF producer type, indications of the NF producers; storing in a data store (114, 118) of the NRF, indications of NF producer types and corresponding configurable parameters, wherein a respective configurable parameter is configured for each NF producer type; responsive to receiving the discovery request for information associated with the NF producer type from the NF consumer, determining by the NRF, a respective configurable parameter associated with the NF producer type; generating a list of NF producers based at least in part on the indications; if a number of NF producers in the list of NF producers exceeds the respective configurable parameter associated with the NF producer type, selecting, based at least in part on the respective configurable parameter associated with the NF producer type, a subset of the list of NF producers; and sending, responsive to receiving the discovery request, the subset of the list of NF producers to the NF consumer. receiving, from a Network Function, NF, consumer associated with the 5G network, a discovery request for information associated with a NF producer type; receiving, from NF producers associated with the NF producer type, indications of the NF producers; storing in a data store (114, 118) of the NRF, indications of NF producer types and corresponding configurable parameters, wherein a respective configurable parameter is configured for each NF producer type; responsive to receiving the discovery request for information associated with the NF producer type from the NF consumer, determining by the NRF, a respective configurable parameter associated with the NF producer type; generating a list of NF producers based at least in part on the indications; if a number of NF producers in the list of NF producers exceeds the respective configurable parameter associated with the NF producer type, selecting, based at least in part on the respective configurable parameter associated with the NF producer type, a subset of the list of NF producers; and sending, responsive to receiving the discovery request, the subset of the list of NF producers to the NF consumer.
A bituminous paving composition, comprising: (a) a high-concentration-emulsifier bitumen emulsion comprising: (a.1) bitumen having a penetration number of less than 220 dmm as determined according to an ASTM standard method D5 at 25°C, in an amount from 45% to 98% by total weight of the emulsion, (a.2) an emulsifier additive in an amount from 1% to 20% weight based on the bitumen weight of (a.1), (a.3) water in an amount to complete the emulsion; (b) a non-emulsified bitumen having a penetration number of less than 220 dmm as determined according to an ASTM standard method D5 at 25°C; (c) aggregate, wherein: (i) a combined weight of emulsified bitumen from the high-concentration-emulsifier bitumen emulsion of (a) and bitumen from the non-emulsified bitumen of (b) is in a range of 1% to 20% by total weight of the bituminous composition, and (ii) a weight of the aggregate is from 80% to 99% by total weight of the bituminous composition. (a) a high-concentration-emulsifier bitumen emulsion comprising: (a.1) bitumen having a penetration number of less than 220 dmm as determined according to an ASTM standard method D5 at 25°C, in an amount from 45% to 98% by total weight of the emulsion, (a.2) an emulsifier additive in an amount from 1% to 20% weight based on the bitumen weight of (a.1), (a.3) water in an amount to complete the emulsion; (a.1) bitumen having a penetration number of less than 220 dmm as determined according to an ASTM standard method D5 at 25°C, in an amount from 45% to 98% by total weight of the emulsion, (a.2) an emulsifier additive in an amount from 1% to 20% weight based on the bitumen weight of (a.1), (a.3) water in an amount to complete the emulsion; (b) a non-emulsified bitumen having a penetration number of less than 220 dmm as determined according to an ASTM standard method D5 at 25°C; (c) aggregate, (i) a combined weight of emulsified bitumen from the high-concentration-emulsifier bitumen emulsion of (a) and bitumen from the non-emulsified bitumen of (b) is in a range of 1% to 20% by total weight of the bituminous composition, and (ii) a weight of the aggregate is from 80% to 99% by total weight of the bituminous composition.
Wind farm comprising a plurality of wind turbines which are connected to a network within the wind farm, wherein a network feed-in point (30.1) for feeding electrical power into a supply network is provided in the network within the wind farm, and wherein a control device (31.1) associated with the network feed-in point (30.1) is provided, said control device being designed to control the wind turbines which feed power into the supply network via the network feed-in point (30.1) on the basis of measured values recorded at the network feed-in point (30.1), wherein at least one further network feed-in point (30.2, 30.3) is provided with a further control device (31.2, 31.3) which is designed to control the wind turbines which feed power into the supply network via the further network feed-in point (30.2, 30.3) on the basis of measured values recorded at the further network feed-in point (30.2, 30.3), wherein the network within the wind farm comprises at least one switching element (21.1), characterized in that the switching element (21.1) is designed for the variable connection of at least one wind turbine to selectively in each case one of the plurality of network feed-in points (30.1, 30.2, 30.3).
A backlight unit comprising: a plurality of supporters, each supporter comprising a recess and an inclined surface on an upper surface thereof; a plurality of light guide panels, each light guide panel disposed on the recess and the inclined surface of the supporter and coupled to the supporter; and a plurality of light emitting modules, each light emitting module disposed in the recess of the supporter and providing light through a side surface of the light guide panel, characterized in that neighboring ones of the light guide panels overlap each other over the recess of the supporter, and each light guide panel comprises a protrusion on a side surface thereof, the supporter comprises a coupling part coupling to the protrusion, the backlight unit further comprises a reflective sheet, the reflective sheet comprises a first portion and a second portion connected to the first portion, the first portion disposed between the supporter and the light guide panel and the second portion disposed between the light guide panel and the light emitting module, the supporter comprises a stopper that protrudes from the inclined surface of the supporter into the recess, and a portion of the stopper is disposed between a top surface of the light emitting module and a bottom surface of the reflective sheet. a plurality of supporters, each supporter comprising a recess and an inclined surface on an upper surface thereof; a plurality of light guide panels, each light guide panel disposed on the recess and the inclined surface of the supporter and coupled to the supporter; and a plurality of light emitting modules, each light emitting module disposed in the recess of the supporter and providing light through a side surface of the light guide panel, characterized in that neighboring ones of the light guide panels overlap each other over the recess of the supporter, and each light guide panel comprises a protrusion on a side surface thereof, the supporter comprises a coupling part coupling to the protrusion, the backlight unit further comprises a reflective sheet, the reflective sheet comprises a first portion and a second portion connected to the first portion, the first portion disposed between the supporter and the light guide panel and the second portion disposed between the light guide panel and the light emitting module, the supporter comprises a stopper that protrudes from the inclined surface of the supporter into the recess, and a portion of the stopper is disposed between a top surface of the light emitting module and a bottom surface of the reflective sheet.
An indoor unit of an air conditioner comprising an exterior case in which an electrical component box is accommodated, the electrical component box comprising: an electrical component board having electrical components (31a, 31b) mounted thereon, and a box body accommodating the electrical component board, the box body comprising: an openable lid placed along an inner surface of the exterior case, and a tilted surface part that is placed so as to be opposed to the openable lid and that is tilted relative to a vertical plane so as to narrow an extra space of an accommodation space in the box body, characterized in that the electrical component board is placed with a tilt along the tilted surface part so that the electrical components (31a, 31b) project toward the openable lid. an electrical component board having electrical components (31a, 31b) mounted thereon, and a box body accommodating the electrical component board, the box body comprising: an openable lid placed along an inner surface of the exterior case, and a tilted surface part that is placed so as to be opposed to the openable lid and that is tilted relative to a vertical plane so as to narrow an extra space of an accommodation space in the box body, characterized in that an openable lid placed along an inner surface of the exterior case, and a tilted surface part that is placed so as to be opposed to the openable lid and that is tilted relative to a vertical plane so as to narrow an extra space of an accommodation space in the box body, characterized in that the electrical component board is placed with a tilt along the tilted surface part so that the electrical components (31a, 31b) project toward the openable lid.
A grain oriented electrical steel sheet comprising: a base steel sheet; a lower layer which is arranged in contact with the base steel sheet; and an insulation coating which is arranged in contact with the lower layer and which includes a phosphate and a colloidal silica as main components, wherein the base steel sheet includes: as a chemical composition, by mass%, 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; a balance consisting of Fe and impurities, wherein the base steel sheet includes a B compound whose major axis length is 1 to 20 μm and whose number density is 1×10 to 1×10 6 pieces/mm 3, the number density of the B compound and the major axis are determined according to the method described in the description, wherein the lower layer is a glass film which includes a forsterite as main component or an intermediate layer includes a silicon oxide as main component, and wherein the B compound is at least one selected from group consisting of Fe 2 B and Fe 3 B. a base steel sheet; a lower layer which is arranged in contact with the base steel sheet; and an insulation coating which is arranged in contact with the lower layer and which includes a phosphate and a colloidal silica as main components, wherein the base steel sheet includes: as a chemical composition, by mass%, 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; a balance consisting of Fe and impurities, wherein the base steel sheet includes a B compound whose major axis length is 1 to 20 μm and whose number density is 1×10 to 1×10 6 pieces/mm 3, the number density of the B compound and the major axis are determined according to the method described in the description, wherein the lower layer is a glass film which includes a forsterite as main component or an intermediate layer includes a silicon oxide as main component, and wherein the B compound is at least one selected from group consisting of Fe 2 B and Fe 3 B.
A method for qualifying a gas turbine engine component (174;400;500) comprising: creating a set of substantially identical gas turbine engine components (174;400;500) via a uniform manufacturing procedure; determining a set of as-manufactured parameters of each gas turbine engine component (174;400;500) in the set of substantially identical gas turbine engine components (174;400;500); determining a variance model of the set of substantially identical gas turbine engine components (174;400;500), wherein the variance model includes a representative parameter profile, the representative parameter profile is comprised of a plurality of component parameter profiles (610, 620, 630, 640), and a combination of each of the component parameter profiles (610..640) is the representative parameter profile; determining at least one predicted response model based at least in part on the variance model; identifying as-manufactured parameters of a gas turbine engine component (174;400;500), and applying the as-manufactured parameters of the gas turbine engine component (174;400;500) to the at least one predicted response model, thereby generating a predicted response output; and qualifying the gas turbine engine component (174;400;500) for usage in at least one gas turbine engine corresponding to the at least one predicted response model. creating a set of substantially identical gas turbine engine components (174;400;500) via a uniform manufacturing procedure; determining a set of as-manufactured parameters of each gas turbine engine component (174;400;500) in the set of substantially identical gas turbine engine components (174;400;500); determining a variance model of the set of substantially identical gas turbine engine components (174;400;500), wherein the variance model includes a representative parameter profile, the representative parameter profile is comprised of a plurality of component parameter profiles (610, 620, 630, 640), and a combination of each of the component parameter profiles (610..640) is the representative parameter profile; determining at least one predicted response model based at least in part on the variance model; identifying as-manufactured parameters of a gas turbine engine component (174;400;500), and applying the as-manufactured parameters of the gas turbine engine component (174;400;500) to the at least one predicted response model, thereby generating a predicted response output; and qualifying the gas turbine engine component (174;400;500) for usage in at least one gas turbine engine corresponding to the at least one predicted response model.
System for locating at least one sound source comprising an acoustic antenna consisting of four microphones (11, 21, 31, 41) placed at the vertices of a tetrahedron, and a circuit for processing the electrical signals in order to calculate an item of information representative of the direction of the sound source relative to said acoustic antenna, said acoustic antenna further comprising at least one imaging means, characterized in that the optical center of said imaging means coincides with the geometric center of said tetrahedron.
A composition comprising melatonin of Formula wherein R 1 and R 6 represent CH 3, and R 2, R 3, R 4, R 5 and R 7 represent H, or an antioxidant derivative thereof, wherein R 1 represents H, a linear or branched C 1 -C 4 alkyl group or a C 1 -C 4 alkoxy group, R 2 represents H or a C 1 -C 4 alkyl group, R 3 represents H, a methyl group or a halogen atom, R 4 represents H or a halogen atom, R 5 represents H or a halogen atom, R 6 represents H or a linear or branched C 1 -C 4 alkyl group, R 7 represents H, a linear or branched C 1 -C 4 alkyl group, a -C(=O)-O-R a group or a -C(=O)-N -R a group, wherein R a is a linear or branched C 1 -C 4 alkyl group, or antioxidant metabolites thereof of the formula N 1 -acetyl- N 2 -formyl-5-methoxykynuramine, 6-hydroxymelatonin and N -acetylserotonin, for use in the prevention and treatment of vaginal injury due to pelvic external beam radiotherapy and/or due to pelvic brachyradiotherapy, wherein the composition is administered topically to the vaginal epithelium 15 minutes to 30 minutes before an episode of pelvic external beam radiotherapy and/or pelvic brachyradiotherapy. R 1 represents H, a linear or branched C 1 -C 4 alkyl group or a C 1 -C 4 alkoxy group, R 2 represents H or a C 1 -C 4 alkyl group, R 3 represents H, a methyl group or a halogen atom, R 4 represents H or a halogen atom, R 5 represents H or a halogen atom, R 6 represents H or a linear or branched C 1 -C 4 alkyl group, R 7 represents H, a linear or branched C 1 -C 4 alkyl group, a -C(=O)-O-R a group or a -C(=O)-N -R a group, wherein R a is a linear or branched C 1 -C 4 alkyl group,
Method of predicting the evolution of a patient suffering of stroke, comprising: a) assessing in a biological sample obtained from said patient the level of endostatin and FasL, or of respective nucleic acid molecules encoding same; b) determinining whether said levels of endostatin and FasL together, or of respective nucleic acid molecules encoding same, are above or below predetermined cut-off levels; and c) predicting the functional outcome of stroke on said patient evaluating the result of step b). a) assessing in a biological sample obtained from said patient the level of endostatin and FasL, or of respective nucleic acid molecules encoding same; b) determinining whether said levels of endostatin and FasL together, or of respective nucleic acid molecules encoding same, are above or below predetermined cut-off levels; and c) predicting the functional outcome of stroke on said patient evaluating the result of step b).
Water treatment system with a cold water inlet, which opens into a circulation circuit, the circulation circuit comprising at least one heater and at least one cavitation unit, the cold water inlet being arranged upstream of the heater in the direction of flow, characterized in that at least one ultrafiltration unit with an exclusion limit of 0.01-0.05 microns, in particular 0.03 microns, is arranged in the circulation circuit.
Circuit breaker comprising: - a plurality of fixed contacts and a plurality of corresponding movable contacts; - an actuating shaft which is operatively connected to and actuates said plurality of movable contacts between a first position in which said movable contacts are coupled each with a corresponding fixed contact, and a second position in which said movable contacts are separated each from the corresponding fixed contact; and - a supporting device for said actuating shaft; characterized in that said supporting device is movably connected to a wall of the circuit breaker, with said actuating shaft which is operatively coupled to said supporting device so as to rotate around a rotation axis relative to said wall and the supporting device itself, and in that it further comprises adjustment means for adjusting the position of said actuating shaft relative to said wall. - a plurality of fixed contacts and a plurality of corresponding movable contacts; - an actuating shaft which is operatively connected to and actuates said plurality of movable contacts between a first position in which said movable contacts are coupled each with a corresponding fixed contact, and a second position in which said movable contacts are separated each from the corresponding fixed contact; and - a supporting device for said actuating shaft;
A system (601, 703) configured to generate a wideband output audio signal from a narrow band input audio signal, wherein the system (601, 703) is configured to: receive the narrow band input audio signal; generate, by an analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a synthesis filterbank, the wideband output audio signal from the combined audio subband signals; wherein the plurality of high frequency audio subband signals is generated from the plurality of low frequency audio subband signals using only a subset of the low frequency audio subband signals. receive the narrow band input audio signal; generate, by an analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a synthesis filterbank, the wideband output audio signal from the combined audio subband signals; wherein the plurality of high frequency audio subband signals is generated from the plurality of low frequency audio subband signals using only a subset of the low frequency audio subband signals.