mhurhangee/ep-ind-claims huggingface dataset:
A latch circuit device comprising: a first input to receive a reset control signal; a second input responsive to an output of a latch; and a logic circuit adapted to conditionally reset the latch based on the second input in response to receiving the reset control signal at the first input; characterized in that the logic circuit comprises: a NAND gate, one or more inverters (228, 230, 232), and an OR gate; and a transistor including a gate terminal coupled to an output of the OR gate and responsive to the OR gate to reset the latch to a known state; wherein the NAND gate includes a first input responsive to the reset control signal and a second input responsive to the output of the latch; and the OR gate receives an output from the NAND gate at a first input and receives an output from the one or more inverters (228, 230, 232) at a second input. a first input to receive a reset control signal; a second input responsive to an output of a latch; and a logic circuit adapted to conditionally reset the latch based on the second input in response to receiving the reset control signal at the first input; characterized in that the logic circuit comprises: a NAND gate, one or more inverters (228, 230, 232), and an OR gate; and a transistor including a gate terminal coupled to an output of the OR gate and responsive to the OR gate to reset the latch to a known state; wherein the NAND gate includes a first input responsive to the reset control signal and a second input responsive to the output of the latch; and the OR gate receives an output from the NAND gate at a first input and receives an output from the one or more inverters (228, 230, 232) at a second input. a NAND gate, one or more inverters (228, 230, 232), and an OR gate; and a transistor including a gate terminal coupled to an output of the OR gate and responsive to the OR gate to reset the latch to a known state; wherein the NAND gate includes a first input responsive to the reset control signal and a second input responsive to the output of the latch; and the OR gate receives an output from the NAND gate at a first input and receives an output from the one or more inverters (228, 230, 232) at a second input.
A metal-clad substrate comprising, on a substrate, a resin layer containing a plating catalyst or a precursor thereof and a copolymer having a polymerizable group and a functional group which is capable of forming interaction with the plating catalyst or a precursor thereof, characterized in that the copolymer contains a unit represented by the following formula and a unit represented by the following formula: wherein in formula and formula, R 1 to R 5 each independently represent a hydrogen atom, or a substituted or unsubstituted alkyl group; X, Y and Z each independently represent a single bond, a substituted divalent organic group, an unsubstituted divalent organic group, an ester group, an amide group, or an ether group; and L 1 and L 2 each independently represent a substituted or unsubstituted divalent organic group; and the resin layer satisfies the following requirement 1, and a plating film formed inside and on top of the resin layer: Requirement 1: the resin layer contains the plating catalyst or a precursor thereof within a portion extending from a surface to a depth of 25 nm of the resin layer, in an amount in the range of 3 x 10 -20 mol/nm 3 to 30 x 10 -20 mol/nm 3 in terms of a content of a metal element thereof. Requirement 1: the resin layer contains the plating catalyst or a precursor thereof within a portion extending from a surface to a depth of 25 nm of the resin layer, in an amount in the range of 3 x 10 -20 mol/nm 3 to 30 x 10 -20 mol/nm 3 in terms of a content of a metal element thereof.
Method for the control of the operation of at least one functional component (1, 2, 3) of a motor vehicle, with the step - Implementation of an authentication of at least one functional component relevant to the safety and/or emissions of the driving operation of the motor vehicle with regard to whether the functional component is an original component of the motor vehicle or an unauthorisedly exchanged and/or unauthorisedly manipulated functional component, characterised by the following step: - Control of the operation of at least one other functional component (2, 3) of the motor vehicle in such a way that the or at least one functionality of the at least one other functional component (2, 3) is systematically restricted, provided that the implemented authentication shows that the at least one functional component relevant to the safety and/or emissions of the driving operation of the motor vehicle has been unauthorisedly exchanged and/or unauthorisedly manipulated, whereby the other functional component is not a functional component relevant to the safety of the driving operation of the motor vehicle. - Implementation of an authentication of at least one functional component relevant to the safety and/or emissions of the driving operation of the motor vehicle with regard to whether the functional component is an original component of the motor vehicle or an unauthorisedly exchanged and/or unauthorisedly manipulated functional component, - Control of the operation of at least one other functional component (2, 3) of the motor vehicle in such a way that the or at least one functionality of the at least one other functional component (2, 3) is systematically restricted, provided that the implemented authentication shows that the at least one functional component relevant to the safety and/or emissions of the driving operation of the motor vehicle has been unauthorisedly exchanged and/or unauthorisedly manipulated, whereby the other functional component is not a functional component relevant to the safety of the driving operation of the motor vehicle.
A taste and flavor modifying composition comprising major steviol glycosides comprising Reb A, Reb C, Reb D and Stevioside, and glycosylated diterpene derivative plant molecules, derived from a Stevia rebaudiana plant, wherein the content of each of the four major steviol glycosides varies between 1% to 25% of the composition.
An implantable semiconductor device, comprising an electrode (104, 209) configured to be in contact with biological tissue and at least one capacitor, wherein the capacitor comprises a bottom capacitor electrode (101, 201) having a first surface facing and in contact with the electrode configured to be in contact with biological tissue, and, on the side opposite to the one having the first surface, a dielectric layer (102, 202), and a top capacitor electrode (103, 203), characterized in that the bottom capacitor electrode is a silicon substrate and the capacitor is a three-dimensional capacitor, the bottom capacitor electrode comprising at least one of a pillar, a trench, or a hole, on a side opposite to the side having the first surface facing and in contact with the electrode configured to be in contact with biological tissue, and the electrode configured to be in contact with biological tissue comprises a layer of biocompatible conductive material deposited on said first surface of the bottom capacitor electrode. wherein the capacitor comprises a bottom capacitor electrode (101, 201) having a first surface facing and in contact with the electrode configured to be in contact with biological tissue, and, on the side opposite to the one having the first surface, a dielectric layer (102, 202), and a top capacitor electrode (103, 203), characterized in that the bottom capacitor electrode is a silicon substrate and the capacitor is a three-dimensional capacitor, the bottom capacitor electrode comprising at least one of a pillar, a trench, or a hole, on a side opposite to the side having the first surface facing and in contact with the electrode configured to be in contact with biological tissue, and the electrode configured to be in contact with biological tissue comprises a layer of biocompatible conductive material deposited on said first surface of the bottom capacitor electrode.
A method performed by an eNB, the method comprising: transmitting a radio resource control, RRC, change message, to a wireless transmit/receive unit, WTRU, wherein the RRC change message includes an information element, IE, indicating both a measurement gap configuration procedure and a measurement gap activation procedure, wherein the RRC change message further indicates a plurality of measurement gap parameters combined into a common set; and receiving an RRC change response from the WTRU on a condition that the WTRU performed the measurement gap configuration procedure based on the RRC change message and performed the measurement gap activation procedure based on the RRC change message. transmitting a radio resource control, RRC, change message, to a wireless transmit/receive unit, WTRU, wherein the RRC change message includes an information element, IE, indicating both a measurement gap configuration procedure and a measurement gap activation procedure, wherein the RRC change message further indicates a plurality of measurement gap parameters combined into a common set; and receiving an RRC change response from the WTRU on a condition that the WTRU performed the measurement gap configuration procedure based on the RRC change message and performed the measurement gap activation procedure based on the RRC change message.
A method of controlling fouling of a membrane during a fluid filtering process, comprising: accepting (1102, 1202) a selection of a filtrate flow rate; selecting a maximum transmembrane pressure; predicting (1104, 1204) an estimated procedure end time to separate at least a portion of a filtrate fluid from a bulk fluid; determining a control point corresponding to the maximum transmembrane pressure and the estimated procedure end time; flowing (1002, 1004, 1106, 1206) the bulk fluid past the membrane; changing (1108, 1110; 1208, 1210) a filtrate flow rate until the selected filtrate flow rate through the membrane is achieved; determining (1008, 1114, 1214) a transmembrane pressure and time elapsed when the selected filtrate flow rate is achieved; determining (1006, 1112, 1212) an acceptable fouling rate, as defined by a slope of a plot of a current transmembrane pressure and the control point (754, 756), and determining (1114, 1214) a slope of a plot of periodically-measured transmembrane pressures (762, 760) versus time; comparing (1010, 1116, 1216) the two slopes (764, 766) to determine an acceptable rate of pressure change with time of the transmembrane pressure; and adjusting (1012; 1120, 1126; 1220, 1226) the filtrate flow rate based on the determined acceptable rate of change with time of the transmembrane pressure to cause the plot of periodically-measured transmembrane pressures versus time to approximate the plot of the acceptable fouling rate. accepting (1102, 1202) a selection of a filtrate flow rate; selecting a maximum transmembrane pressure; predicting (1104, 1204) an estimated procedure end time to separate at least a portion of a filtrate fluid from a bulk fluid; determining a control point corresponding to the maximum transmembrane pressure and the estimated procedure end time; flowing (1002, 1004, 1106, 1206) the bulk fluid past the membrane; changing (1108, 1110; 1208, 1210) a filtrate flow rate until the selected filtrate flow rate through the membrane is achieved; determining (1008, 1114, 1214) a transmembrane pressure and time elapsed when the selected filtrate flow rate is achieved; determining (1006, 1112, 1212) an acceptable fouling rate, as defined by a slope of a plot of a current transmembrane pressure and the control point (754, 756), and determining (1114, 1214) a slope of a plot of periodically-measured transmembrane pressures (762, 760) versus time; comparing (1010, 1116, 1216) the two slopes (764, 766) to determine an acceptable rate of pressure change with time of the transmembrane pressure; and adjusting (1012; 1120, 1126; 1220, 1226) the filtrate flow rate based on the determined acceptable rate of change with time of the transmembrane pressure to cause the plot of periodically-measured transmembrane pressures versus time to approximate the plot of the acceptable fouling rate.
A method of operating a vehicle comprising at least a first vehicle retarding subsystem (3; 5; 13) controllable to retard the vehicle, and processing circuitry coupled to said at least first vehicle retarding subsystem (3; 5; 13), said method comprising the steps of: acquiring (S10, S20, S30), by said processing circuitry from said first vehicle retarding subsystem (3; 5; 13), at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and determining (S11, S21, S31), by said processing circuitry, a measure indicative of a retardation energy capacity (VCREC) currently available for retardation of said vehicle, based on: said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13). acquiring (S10, S20, S30), by said processing circuitry from said first vehicle retarding subsystem (3; 5; 13), at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and determining (S11, S21, S31), by said processing circuitry, a measure indicative of a retardation energy capacity (VCREC) currently available for retardation of said vehicle, based on: said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13). said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13).
A method for processing network data for analysis, comprising: receiving data packets by a network monitoring device at a location in a network; determining a session associated with the received data packets by the network monitoring device; generating a common header summarizing information in headers of a plurality of data packets in the session by the network monitoring device; generating, by the network monitoring device, payload metadata storing a subset comprising information available in data payloads of each of the plurality of the data packets in the session for analysing, evaluating or troubleshooting the network; generating, for each session, a session record including the common header and the payload metadata by the network monitoring device; and storing the session record in the network monitoring device. receiving data packets by a network monitoring device at a location in a network; determining a session associated with the received data packets by the network monitoring device; generating a common header summarizing information in headers of a plurality of data packets in the session by the network monitoring device; generating, by the network monitoring device, payload metadata storing a subset comprising information available in data payloads of each of the plurality of the data packets in the session for analysing, evaluating or troubleshooting the network; generating, for each session, a session record including the common header and the payload metadata by the network monitoring device; and storing the session record in the network monitoring device.
A method of removing high abundance species from a plurality of nucleic acid molecules, comprising: hybridizing a plurality of first oligonucleotides comprising a binding moiety with a first plurality of nucleic acid molecules, wherein the first plurality of nucleic acid molecules comprises at least one high abundance species; extending the plurality of first oligonucleotides to generate a plurality of complementary strands of the first plurality of nucleic acid molecules comprising the binding moiety; denaturing a plurality of double-stranded nucleic acid molecules comprising the plurality of complementary strands of the first plurality of nucleic acid molecules; partially reannealing the plurality of complementary strands of the first plurality of nucleic acid molecules; and removing the reannealed complementary strands of the first plurality of nucleic acid molecules by a capture molecule immobilized on one or more solid support to generate a second plurality of nucleic acid molecules, wherein the capture molecules specifically bind to the binding moiety, whereby the content of the at least one high abundance species in the second plurality of nucleic acid molecules is reduced in comparison to the content of the at least one high abundance species in the first plurality of nucleic acid molecules. hybridizing a plurality of first oligonucleotides comprising a binding moiety with a first plurality of nucleic acid molecules, wherein the first plurality of nucleic acid molecules comprises at least one high abundance species; extending the plurality of first oligonucleotides to generate a plurality of complementary strands of the first plurality of nucleic acid molecules comprising the binding moiety; denaturing a plurality of double-stranded nucleic acid molecules comprising the plurality of complementary strands of the first plurality of nucleic acid molecules; partially reannealing the plurality of complementary strands of the first plurality of nucleic acid molecules; and removing the reannealed complementary strands of the first plurality of nucleic acid molecules by a capture molecule immobilized on one or more solid support to generate a second plurality of nucleic acid molecules, wherein the capture molecules specifically bind to the binding moiety, whereby the content of the at least one high abundance species in the second plurality of nucleic acid molecules is reduced in comparison to the content of the at least one high abundance species in the first plurality of nucleic acid molecules.
A method for analyzing a streaming media session between at least two communicating entities, wherein at least one media stream comprising at least two packets is communicated between the at least two communicating entities during the streaming media session, wherein the communicating entity sources and/or sinks the at least one media stream, the method comprising: (a) configuring at least two monitoring entities to record a plurality of observations pertaining to at least one of: the at least one media stream, the at least two packets, devices associated with at least one of the at least two communicating entities, wherein the at least two monitoring entities comprise the at least two communicating entities or at least one network entity (104, 204) forwarding the at least one media stream between the at least two communicating entities; (b) receiving, from the at least two monitoring entities, the plurality of observations; (c) processing the plurality of observations to obtain a plurality of pre-processed observations; (d) analyzing the plurality of pre-processed observations to determine a session quality; and (e) sending at least one notification to at least one of the at least two monitoring entities, if the session quality satisfies at least one quality criterion, wherein the at least one notification is sent during the streaming media session. (a) configuring at least two monitoring entities to record a plurality of observations pertaining to at least one of: the at least one media stream, the at least two packets, devices associated with at least one of the at least two communicating entities, wherein the at least two monitoring entities comprise the at least two communicating entities or at least one network entity (104, 204) forwarding the at least one media stream between the at least two communicating entities; (b) receiving, from the at least two monitoring entities, the plurality of observations; (c) processing the plurality of observations to obtain a plurality of pre-processed observations; (d) analyzing the plurality of pre-processed observations to determine a session quality; and (e) sending at least one notification to at least one of the at least two monitoring entities, if the session quality satisfies at least one quality criterion, wherein the at least one notification is sent during the streaming media session.
A method for separating at least a portion of solids from a hydrocarbon fluid having solids therein comprising: adding a demulsifying agent to the hydrocarbon fluid in an effective amount for subsequent separation of at least a portion of the solids from the hydrocarbon fluid; wherein an emulsion comprises an oil phase and a water phase; and wherein the oil phase comprises the hydrocarbon fluid; and wherein the adding of the demulsifying agent is added to a phase selected from the group consisting of the oil phase, the water phase, and combinations thereof; and wherein the demulsifying agent water-wets at least a portion of the solids; and separating at least a portion of the water-wet solids from the hydrocarbon fluid; wherein the demulsifying agent is selected from the group consisting of di-lauryl succinate, dioctyl succinate, di-hexyl succinate, octyl phenyl succinate, dodecyl diphenyl succinate, ditridecyl succinate, sodium lauryl sulfoacetate, salts thereof, and combinations thereof; wherein the effective amount of the demulsifying agent ranges from 0.1 ppm to 200 ppm based on the hydrocarbon fluid; wherein the hydrocarbon stream is a crude oil, and wherein the adding the demulsifying agent occurs upstream from a desalter, and the demulsifying agent rests with the hydrocarbon stream for a period of 30 minutes to 5 days prior to injection into the desalter. adding a demulsifying agent to the hydrocarbon fluid in an effective amount for subsequent separation of at least a portion of the solids from the hydrocarbon fluid; wherein an emulsion comprises an oil phase and a water phase; and wherein the oil phase comprises the hydrocarbon fluid; and wherein the adding of the demulsifying agent is added to a phase selected from the group consisting of the oil phase, the water phase, and combinations thereof; and wherein the demulsifying agent water-wets at least a portion of the solids; and separating at least a portion of the water-wet solids from the hydrocarbon fluid; wherein the demulsifying agent is selected from the group consisting of di-lauryl succinate, dioctyl succinate, di-hexyl succinate, octyl phenyl succinate, dodecyl diphenyl succinate, ditridecyl succinate, sodium lauryl sulfoacetate, salts thereof, and combinations thereof; wherein the effective amount of the demulsifying agent ranges from 0.1 ppm to 200 ppm based on the hydrocarbon fluid; wherein the hydrocarbon stream is a crude oil, and wherein the adding the demulsifying agent occurs upstream from a desalter, and the demulsifying agent rests with the hydrocarbon stream for a period of 30 minutes to 5 days prior to injection into the desalter.