mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: creating a network slice (130, 132) in a segment routing, SR, communication network, wherein the network slice (130, 132) is instantiated using an Interior Gateway Protocol, IGP, flexible algorithm (0, 128, 129) or a Border Gateway Protocol, BGP, flexible algorithm (0, 128, 129); the method being characterized by wherein a dedicated queue (304, 306) is created for the data packets associated with the network slice (130, 132) at a first node of the SR communication network; dedicating a portion of bandwidth of a link between the first node and a second node of the SR communication network to the network slice (130, 132); provisioning the portion of bandwidth of the link to the dedicated queue (304, 306) corresponding to the network slice (130, 132); creating a resource guaranteed adjacency Segment Routing Identifier, SID, for the network slice (130, 132); advertising the resource guaranteed adjacency SID to the SR communication network using the IGPflexible algorithm (128, 129) or the BGPflexible algorithm (128, 129), wherein advertising the resource guaranteed adjacencySID to the SR communication network comprises advertising the resource guaranteed adjacencySI D with the dedicated portion of bandwidth of the link corresponding to the network slice (130, 132); and routing, at the first node, data packets associated with the network slice (130, 132) using the dedicated portion of bandwidth of the link and the dedicated queue. creating a network slice (130, 132) in a segment routing, SR, communication network, wherein the network slice (130, 132) is instantiated using an Interior Gateway Protocol, IGP, flexible algorithm (0, 128, 129) or a Border Gateway Protocol, BGP, flexible algorithm (0, 128, 129); the method being characterized by wherein a dedicated queue (304, 306) is created for the data packets associated with the network slice (130, 132) at a first node of the SR communication network; dedicating a portion of bandwidth of a link between the first node and a second node of the SR communication network to the network slice (130, 132); provisioning the portion of bandwidth of the link to the dedicated queue (304, 306) corresponding to the network slice (130, 132); creating a resource guaranteed adjacency Segment Routing Identifier, SID, for the network slice (130, 132); advertising the resource guaranteed adjacency SID to the SR communication network using the IGPflexible algorithm (128, 129) or the BGPflexible algorithm (128, 129), wherein advertising the resource guaranteed adjacencySID to the SR communication network comprises advertising the resource guaranteed adjacencySI D with the dedicated portion of bandwidth of the link corresponding to the network slice (130, 132); and routing, at the first node, data packets associated with the network slice (130, 132) using the dedicated portion of bandwidth of the link and the dedicated queue.
A method (50, 50', 70) of operating a multi-cell power supply comprising a plurality of series-connected power cells (16a1-16c5) in each of a plurality of legs (A, B, C), each power cell (16a1-16c5) comprising a bypass device that may be used to selectively bypass and de-bypass the power cell (16a1-16c5), wherein after a first power cell (16a1-16c5) faults and is bypassed as a result of the fault, the method (50, 50', 70) comprises: de-bypassing the first power cell (16a1-16c5) without stopping the multi-cell power supply if the first power cell (16a1-16c5) fault was caused by a predetermined operating condition, wherein the predetermined operating condition comprises any of an overvoltage condition, an over-temperature condition, and a line disturbance, determining if the predetermined operating condition no longer exists prior to de-bypassing the first power cell (16a1-16c5), and determining if the bypassed power cell (16a1-16c5) is functional prior to de-bypassing the first power cell (16a1-16c5). de-bypassing the first power cell (16a1-16c5) without stopping the multi-cell power supply if the first power cell (16a1-16c5) fault was caused by a predetermined operating condition, wherein the predetermined operating condition comprises any of an overvoltage condition, an over-temperature condition, and a line disturbance, determining if the predetermined operating condition no longer exists prior to de-bypassing the first power cell (16a1-16c5), and determining if the bypassed power cell (16a1-16c5) is functional prior to de-bypassing the first power cell (16a1-16c5).
A chain track for use in a forest machine or another work machine, or in their trailers on one or more tyres, the chain track being arranged to cover the tyre or tyres in their entirety, said chain track having grouser shoes comprising a body having an inner surface seating against the tyre or tyres, an outer surface, two opposite sides extending in a transverse direction of the chain track, and two opposite ends extending in a longitudinal direction of the chain track, and opposite side guides seating on opposite side surfaces of the tyre or tyres, characterised in that each side guide comprises a body extending obliquely downwards along the side surface of the tyre or tyres and a fastening loop on each side of the body in the longitudinal direction of the chain track, adjacent grouser shoes being connected to each other via a combiner extending between adjacent fastening loops in the side guides, a clearance, i.e. a grouser shoe gap, being formed between opposing sides of successive grouser shoes of the chain track, said grouser shoe gap being 20 mm or less.
An automotive engine lubricating composition comprising: at least 75 wt.% of a first base oil having a kinematic viscosity at 100°C ranging from 3.5 cSt to 6 cSt; relative to the total weight of the lubricating composition, from 5% to 15% by weight of a second high viscosity base oil, having a kinematic viscosity at 100°C ranging from 8 cSt to 14 cSt, relative to the total weight of the lubricating composition, wherein the lubricating composition includes less than 0.5 wt.% of Group III, Group IV and Group V base oils; and at least one additive selected from antiwear agents, friction modifiers, antioxidants, dispersants, detergents, rust inhibitors, corrosion inhibitors, demulsifiers, pour point depressants, viscosity index improvers, antifoaming agents, and seal swell agents, characterized in that said composition is an automotive engine lubricating composition capable of passing a Sequence IIIG test performed with a 1996/1997 General Motors Powertrain 3800 Series II, water-cooled, 4-cycle, V-6 engine operated for 100 hours at 125 bhp, 3600 rpm and a 150 °C oil temperature. at least 75 wt.% of a first base oil having a kinematic viscosity at 100°C ranging from 3.5 cSt to 6 cSt; relative to the total weight of the lubricating composition, from 5% to 15% by weight of a second high viscosity base oil, having a kinematic viscosity at 100°C ranging from 8 cSt to 14 cSt, relative to the total weight of the lubricating composition, wherein the lubricating composition includes less than 0.5 wt.% of Group III, Group IV and Group V base oils; and at least one additive selected from antiwear agents, friction modifiers, antioxidants, dispersants, detergents, rust inhibitors, corrosion inhibitors, demulsifiers, pour point depressants, viscosity index improvers, antifoaming agents, and seal swell agents, characterized in that said composition is an automotive engine lubricating composition capable of passing a Sequence IIIG test performed with a 1996/1997 General Motors Powertrain 3800 Series II, water-cooled, 4-cycle, V-6 engine operated for 100 hours at 125 bhp, 3600 rpm and a 150 °C oil temperature.
An immunoassay method for detecting a cleaved high molecular weight kininogen (HMWK), the method comprising: (i) providing a support member, on which a first agent that specifically binds a cleaved HMWK is immobilized; (ii) contacting the support member of (i) with a biological sample suspected of containing a cleaved HMWK; (iii) contacting the support member obtained in (ii) with a second agent that binds HMWK, wherein the second agent is conjugated to a label; and (iv) detecting a signal released from the label of the second agent that is bound to the support member, directly or indirectly, to determine the level of the cleaved HMWK in the biological sample, wherein the first agent is an antibody comprising a heavy chain complementarity determining region 1 sequence FSFYVMV, a heavy chain CDR2 sequence GISPSGGNTAYADSVK, and a heavy chain CDR3 sequence KLFYYDDTKGYFDF and a light chain CDR1 sequence SGSSSNIGSNYVY, a light chain CDR2 sequence RNNQRPS, and a light chain CDR3 sequence AWDDSLNGRV. (i) providing a support member, on which a first agent that specifically binds a cleaved HMWK is immobilized; (ii) contacting the support member of (i) with a biological sample suspected of containing a cleaved HMWK; (iii) contacting the support member obtained in (ii) with a second agent that binds HMWK, wherein the second agent is conjugated to a label; and (iv) detecting a signal released from the label of the second agent that is bound to the support member, directly or indirectly, to determine the level of the cleaved HMWK in the biological sample,
An electrostatic discharge recording circuit comprising: a first memristive element coupled to a pin of an integrated circuit, wherein the first memristive element switches from a first resistance to a second resistance when an ESD event occurs at the pin, wherein the first resistance is less than the second resistance; and shunting circuitry to shunt energy from an additional ESD event away from the first memristive element. a first memristive element coupled to a pin of an integrated circuit, wherein the first memristive element switches from a first resistance to a second resistance when an ESD event occurs at the pin, wherein the first resistance is less than the second resistance; and shunting circuitry to shunt energy from an additional ESD event away from the first memristive element.
An activated EU-2 zeolite, comprising: pores having a diameter of 30 to 40 Å while maintaining a crystal structure of the EU-2 zeolite; and pores having a diameter of 40 to 200 Å, wherein a volume of the pores having a diameter of 30 to 40 Å is 0.01 to 0.06 cc/g, and a volume of the pores having a diameter of 40 to 200 Å is 0.07 to 0.4 cc/g, wherein a total specific surface area of the activated EU-2 zeolite is 240 to 330 m 2 /g, and wherein the specific surface area, pore size and pore volume of zeolite are measured using a BET meter ASAP 2020 manufactured by Micromeritics Corporation.
A level shift device, comprising: a FET in which a voltage of an internal power supply part is applied to a gate, an external input signal is input from outside to one of a source and a drain, and the other one of the source and the drain outputs an intermediate output signal of the same phase as that of the external input signal; and a comparator comparing the intermediate output signal with a threshold value so as to perform conversion into a Hi/Lo signal defined by a voltage of the internal power supply part and outputting the signal to an internal processing circuit, wherein theFET, the comparator, the processing circuit, and the internal power supply part are enclosed in the device, wherein an output part of the intermediate output signal of the FET comprises pull-down means to ensure, when the output part is in a Lo level, the Lo level, and wherein the pull-down means comprises a constant current source composed of a transistor and a resistor or a mirror circuit composed of a plurality of transistors so as to supply a constant current which is independent of the voltage across it. a FET in which a voltage of an internal power supply part is applied to a gate, an external input signal is input from outside to one of a source and a drain, and the other one of the source and the drain outputs an intermediate output signal of the same phase as that of the external input signal; and a comparator comparing the intermediate output signal with a threshold value so as to perform conversion into a Hi/Lo signal defined by a voltage of the internal power supply part and outputting the signal to an internal processing circuit, wherein theFET, the comparator, the processing circuit, and the internal power supply part are enclosed in the device, wherein an output part of the intermediate output signal of the FET comprises pull-down means to ensure, when the output part is in a Lo level, the Lo level, and wherein the pull-down means comprises a constant current source composed of a transistor and a resistor or a mirror circuit composed of a plurality of transistors so as to supply a constant current which is independent of the voltage across it.
A temperature control system changing a temperature of an indoor space to a target temperature within a target time, the temperature control system comprising: an indoor apparatus adjusting the temperature of the indoor space, the indoor apparatus being operable in a plurality of operation modes respectively corresponding to a plurality of operation energy powers; a temperature sensor sensing a current temperature of the indoor space; and a control apparatus connected to the indoor apparatus and the temperature sensor characterised by executing an operation strategy calculation procedure to calculate a plurality of operation strategies according to the target time, the target temperature, an operation data of the indoor apparatus, the current temperature and an environmental factor, determine each total operation energy consumption within the target time respectively corresponding to each operation strategy according to the operation energy powers and a set of a plurality of operation times of each operation strategy, select one of the operation strategies corresponding to the minimal total operation energy consumption, and executing the selected operation strategy to control the indoor apparatus to switch a current mode of the indoor apparatus between the operation modes, wherein each operation strategy comprises a different set of the plurality of operation times that the indoor apparatus operates under the operation modes, a sum of each set of all of the operation times of each operation strategy being equal to the target time. an indoor apparatus adjusting the temperature of the indoor space, the indoor apparatus being operable in a plurality of operation modes respectively corresponding to a plurality of operation energy powers; a temperature sensor sensing a current temperature of the indoor space; and a control apparatus connected to the indoor apparatus and the temperature sensor characterised by executing an operation strategy calculation procedure to calculate a plurality of operation strategies according to the target time, the target temperature, an operation data of the indoor apparatus, the current temperature and an environmental factor, determine each total operation energy consumption within the target time respectively corresponding to each operation strategy according to the operation energy powers and a set of a plurality of operation times of each operation strategy, select one of the operation strategies corresponding to the minimal total operation energy consumption, and executing the selected operation strategy to control the indoor apparatus to switch a current mode of the indoor apparatus between the operation modes, wherein each operation strategy comprises a different set of the plurality of operation times that the indoor apparatus operates under the operation modes, a sum of each set of all of the operation times of each operation strategy being equal to the target time.
A fuel injector, comprising: a first fluid duct having a first fuel inlet, a second fluid duct having a second fuel inlet, and a third fluid duct having a third fuel inlet; a first fuel source for providing fuel to the first fuel inlet; a second fuel source for providing fuel to the second fuel inlet; a third fuel source for providing fuel to the third fuel inlet; a compressed air source structured to flow compressed air simultaneously in each of the first fluid duct, the second fluid duct, and the third fluid duct whereby to form a first combined stream, a second combined stream and a third combined stream, the first combined stream comprising the compressed air from the compressed air source mixed with a first fuel from the first fuel inlet, the second combined stream comprising the compressed air from the compressed air source mixed with a second fuel from the second fuel inlet, and the third combined stream comprising the compressed air from the compressed air source mixed with a third fuel from the third fuel inlet; and a convergence point for receiving and combining the first combined stream, the second combined stream and the third combined stream wherein at least the first fuel source and the second fuel source and third fuel source are structured in a parallel flow arrangement; the fuel injector characterised in that the convergence point is provided upstream from a nozzle and in use the effluent from the convergence point is provided to the nozzle. a first fluid duct having a first fuel inlet, a second fluid duct having a second fuel inlet, and a third fluid duct having a third fuel inlet; a first fuel source for providing fuel to the first fuel inlet; a second fuel source for providing fuel to the second fuel inlet; a third fuel source for providing fuel to the third fuel inlet; a compressed air source structured to flow compressed air simultaneously in each of the first fluid duct, the second fluid duct, and the third fluid duct whereby to form a first combined stream, a second combined stream and a third combined stream, the first combined stream comprising the compressed air from the compressed air source mixed with a first fuel from the first fuel inlet, the second combined stream comprising the compressed air from the compressed air source mixed with a second fuel from the second fuel inlet, and the third combined stream comprising the compressed air from the compressed air source mixed with a third fuel from the third fuel inlet; and a convergence point for receiving and combining the first combined stream, the second combined stream and the third combined stream wherein at least the first fuel source and the second fuel source and third fuel source are structured in a parallel flow arrangement; the fuel injector characterised in that the convergence point is provided upstream from a nozzle and in use the effluent from the convergence point is provided to the nozzle.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a signal comprising precoded data symbol pairs, wherein the precoded data symbol pairs are precoded by using a transmit diversity scheme, and the transmit diversity scheme comprises at least one of space frequency block coding, SFBC, and frequency switched transmit diversity, FSTD; identifying resource elements, REs, to be used for receiving the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block; demapping the precoded data symbol pairs from the identified REs; performing a channel diversity decoding of the precoded data symbol pairs; and performing a turbo code decoding for obtaining data from values of decoded data symbol pairs, wherein at least one available RE in the OFDM symbol is not used for receiving the precoded data symbol pairs, in case that a difference between subcarrier indices of two available REs in the OFDM symbol is three or more, and wherein the demapping of the precoded data symbol pairs is skipped for the at least one available RE. receiving, from a base station, a signal comprising precoded data symbol pairs, wherein the precoded data symbol pairs are precoded by using a transmit diversity scheme, and the transmit diversity scheme comprises at least one of space frequency block coding, SFBC, and frequency switched transmit diversity, FSTD; identifying resource elements, REs, to be used for receiving the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block; demapping the precoded data symbol pairs from the identified REs; performing a channel diversity decoding of the precoded data symbol pairs; and performing a turbo code decoding for obtaining data from values of decoded data symbol pairs, wherein at least one available RE in the OFDM symbol is not used for receiving the precoded data symbol pairs, in case that a difference between subcarrier indices of two available REs in the OFDM symbol is three or more, and wherein the demapping of the precoded data symbol pairs is skipped for the at least one available RE.
A double connector for butt-connecting two components comprising a guide bolt having a respective bolt section tapering in the direction of each bolt end on both sides of a middle bolt section, and comprising two in particular identically constructed spreading sockets which are movably guided on the guide bolt and which in each case can be pushed together from an outer socket end position toward the middle bolt section into a mounted position, in which the two spreading sockets are latched against being pushed back, wherein the spreading sockets each have at least one spreading tab which is spread outwardly via the guide bolt in the mounted position, characterized in that the spreading sockets in each case comprise a sleeve section which in the outer socket end position comprises an unround, in particular oval or elliptical, outer periphery which by pressing together the sleeve section along the long axis of the unround outer periphery, in particular along the main axis of the oval or elliptical outer periphery, is deformable to a more round outer periphery, in particular a round or almost round outer periphery, and that in at least one of those sleeve segments which, when the sleeve section is undeformed, do not protrude outwardly over the outer periphery of the deformed sleeve section, the sleeve section comprises a latching recess on the inner face, wherein in the outer socket end position the latching recess, when the sleeve section is undeformed, is latched to the bolt end and, when the sleeve section is deformed, is no longer or only slightly latched to the bolt end. comprising a guide bolt having a respective bolt section tapering in the direction of each bolt end on both sides of a middle bolt section, and comprising two in particular identically constructed spreading sockets which are movably guided on the guide bolt and which in each case can be pushed together from an outer socket end position toward the middle bolt section into a mounted position, in which the two spreading sockets are latched against being pushed back, wherein the spreading sockets each have at least one spreading tab which is spread outwardly via the guide bolt in the mounted position, characterized in that the spreading sockets in each case comprise a sleeve section which in the outer socket end position comprises an unround, in particular oval or elliptical, outer periphery which by pressing together the sleeve section along the long axis of the unround outer periphery, in particular along the main axis of the oval or elliptical outer periphery, is deformable to a more round outer periphery, in particular a round or almost round outer periphery, and that in at least one of those sleeve segments which, when the sleeve section is undeformed, do not protrude outwardly over the outer periphery of the deformed sleeve section, the sleeve section comprises a latching recess on the inner face, wherein in the outer socket end position the latching recess, when the sleeve section is undeformed, is latched to the bolt end and, when the sleeve section is deformed, is no longer or only slightly latched to the bolt end.