mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a nucleotide sequence of at least one polynucleotide, the method comprising the steps of: translocating at least one single stranded polynucleotide through a nanopore, wherein nucleotides of the single stranded polynucleotide are labeled with fluorescent labels from a mutually quenching set, wherein the nanopore forces the fluorescent labels within the nanopore into a constrained state wherein substantially no detectable signal is generated, and wherein each fluorescent label of the mutually quenching set (i) quenches fluorescence of every fluorescent label of the set such that fluorescent labels of adjacent nucleotides are in a quenched state in free solution and (ii) generates a distinct fluorescent signal when excited and when in a non-quenched state; exciting the fluorescent label of each nucleotide upon exiting the nanopore and prior to formation of a quenched state with an adjacent nucleotide; measuring a fluorescent signal generated by the exiting fluorescent label to identify the nucleotide to which the fluorescent label is attached; and determining a nucleotide sequence of the polynucleotide from a sequence of fluorescent signals. translocating at least one single stranded polynucleotide through a nanopore, wherein nucleotides of the single stranded polynucleotide are labeled with fluorescent labels from a mutually quenching set, wherein the nanopore forces the fluorescent labels within the nanopore into a constrained state wherein substantially no detectable signal is generated, and wherein each fluorescent label of the mutually quenching set (i) quenches fluorescence of every fluorescent label of the set such that fluorescent labels of adjacent nucleotides are in a quenched state in free solution and (ii) generates a distinct fluorescent signal when excited and when in a non-quenched state; exciting the fluorescent label of each nucleotide upon exiting the nanopore and prior to formation of a quenched state with an adjacent nucleotide; measuring a fluorescent signal generated by the exiting fluorescent label to identify the nucleotide to which the fluorescent label is attached; and determining a nucleotide sequence of the polynucleotide from a sequence of fluorescent signals.
A tip assembly, comprising a proximal end, comprising a Y fitting , the Y fitting comprising a first proximal end; a second proximal end; a distal end; a first fluid channel extending from the first proximal end to the distal end; and a second fluid channel extending from the second proximal end to the distal end; a distal end; a mixing nozzle , comprising a proximal end, comprising a fluid inlet; a distal end, comprising a fluid outlet, wherein the distal end of the mixing nozzle corresponds to the distal end of the tip assembly; and a mixing chamber disposed between and in fluid communication with the fluid inlet and the fluid outlet; a tube extending from the distal end of the Y fitting to the proximal end of the mixing nozzle; a first cannula, disposed within and extending along substantially the entire length of the tube, in fluid communication with the first fluid channel of the Y fitting and the fluid inlet of the mixing nozzle; and a second cannula, disposed within and extending along substantially the entire length of the tube, in fluid communication with the second fluid channel of the Y fitting and the fluid inlet of the mixing nozzle; wherein the tube, the first cannula, and the second cannula are flexible; characterised in that the tip assembly further comprises a tubing adapter to receive the distal end of the Y fitting and a proximal end of the tube, in that the first cannula and the second cannula have an inside diameter of about 0.76 mm to about 1.27 mm, and in that the first cannula and the second cannula are identical in length and inside diameter. a first proximal end; a second proximal end; a distal end; a first fluid channel extending from the first proximal end to the distal end; and a second fluid channel extending from the second proximal end to the distal end; a proximal end, comprising a fluid inlet; a distal end, comprising a fluid outlet, wherein the distal end of the mixing nozzle corresponds to the distal end of the tip assembly; and a mixing chamber disposed between and in fluid communication with the fluid inlet and the fluid outlet;
A method for neutralizing a sulfuric acid acidic solution by adding a neutralizing agent thereto, wherein the flow rate of the sulfuric acid acidic solution is measured to determine a neutralization start solution flow rate, the flow rate of the neutralizing agent is measured to determine a neutralizing agent addition flow rate, the sulfuric acid acidic solution is sampled at time intervals to measure a free sulfuric acid concentration by a titration method, and the numerical value of the free sulfuric acid concentration in g/L is used as a free sulfuric acid coefficient, a neutralizing agent addition ratio is determined using the neutralization start solution flow rate, the neutralizing agent addition flow rate, and the free sulfuric acid coefficient, wherein the neutralizing agent addition ratio is represented by the following formula: R = Qc / Qs × C wherein R is the neutralizing agent addition ratio, Qc is the neutralizing agent addition flow rate, Qs is the neutralization start solution flow rate, and C is the free sulfuric acid coefficient, and the amount of the neutralizing agent added is adjusted using, as an index, the neutralizing agent addition ratio to thereby neutralize the sulfuric acid acidic solution to a desired pH without using a pH meter.
A method for monitoring a cellular network on board an aircraft, comprising: providing a network control unit comprising a general control system operatively linked to a noise generation unit , wherein the network control unit comprises one or more antennas ; generating a first noise signal using the noise generation unit , wherein the first noise signal has a first signal configuration; outputting via the one or more antennas a generated noise based on the first noise signal; monitoring power supplied to or received from at least one of a plurality of on-board cellular base stations (120A-120N), wherein the at least one of a plurality of on-board cellular base stations (120A-120N) is communicatively coupled with the network control unit ; identifying a loss of power supplied to or received from the at least one of a plurality of cellular base stations (120A-120N); and characterised in that on identifying the loss of power supplied to or received from the at least one of a plurality of cellular base stations (120A-120N), generating via the noise generation unit a second noise signal having a second signal configuration that is different from the first signal configuration and outputting via the one or more antennas the generated noise based on the second noise signal. providing a network control unit comprising a general control system operatively linked to a noise generation unit , wherein the network control unit comprises one or more antennas ; generating a first noise signal using the noise generation unit , wherein the first noise signal has a first signal configuration; outputting via the one or more antennas a generated noise based on the first noise signal; monitoring power supplied to or received from at least one of a plurality of on-board cellular base stations (120A-120N), wherein the at least one of a plurality of on-board cellular base stations (120A-120N) is communicatively coupled with the network control unit ; identifying a loss of power supplied to or received from the at least one of a plurality of cellular base stations (120A-120N); and characterised in that on identifying the loss of power supplied to or received from the at least one of a plurality of cellular base stations (120A-120N), generating via the noise generation unit a second noise signal having a second signal configuration that is different from the first signal configuration and outputting via the one or more antennas the generated noise based on the second noise signal.
A power unit, in particular a power unit of a hybrid vehicle, with a two-cylinder reciprocating piston engine , which has a crankcase in which two counter-rotating crankshafts are arranged, which are connected by connecting rods to pistons , which are guided in two cylinders in tandem arrangement, wherein both crankshafts are respectively drivingly connected to a generator , and wherein the reciprocating piston engine has a cylinder head which is connected to the crankcase , characterized in that the reciprocating piston engine has a camshaft lying beneath, and the cylinder head is able to be connected to the crankcase in at least two positions, in particular rotated by 180° with respect to one another, wherein the camshaft is arranged in a central plane between the crankshafts beneath a lower dead centre of the two pistons .
Method for determining a tread depth of a vehicle tyre , comprising - measuring a local tread depth at at least one measuring point of the vehicle tyre as an indicator of a minimum tread depth of the vehicle tyre ; characterized by the steps of: - determining a correction factor which takes into account uneven tyre wear ; - determining the minimum tread depth of the vehicle tyre by a correction of the measured local tread depth to allow for uneven tyre wear by means of the correction factor. - measuring a local tread depth at at least one measuring point of the vehicle tyre as an indicator of a minimum tread depth of the vehicle tyre ; characterized by the steps of: - determining a correction factor which takes into account uneven tyre wear ; - determining the minimum tread depth of the vehicle tyre by a correction of the measured local tread depth to allow for uneven tyre wear by means of the correction factor.
A conducting material composition for a lithium rechargeable battery comprising: conductive carbon-based material containing graphene alone or graphene with carbon nanotube as well as carbon black, wherein the weight ratio of the graphene alone/or with the carbon nanotube to the carbon black is from 8:2 to 5:5; and a dispersant containing a plurality kinds of poly aromatic hydrocarbon oxides, wherein the dispersant contains poly aromatic hydrocarbon oxides having a molecular weight of 300 to 700, measured with MALDI TOF mass spectrometer, at a content of 65 wt.% or more, wherein at the time of performing element analysis on the plurality kinds of poly aromatic hydrocarbon oxides, an oxygen content is 30 to 40 wt.% of the entire element content of the dispersant, and wherein the dispersant is obtained by an oxidation on a pitch . conductive carbon-based material containing graphene alone or graphene with carbon nanotube as well as carbon black, wherein the weight ratio of the graphene alone/or with the carbon nanotube to the carbon black is from 8:2 to 5:5; and a dispersant containing a plurality kinds of poly aromatic hydrocarbon oxides, wherein the dispersant contains poly aromatic hydrocarbon oxides having a molecular weight of 300 to 700, measured with MALDI TOF mass spectrometer, at a content of 65 wt.% or more, wherein at the time of performing element analysis on the plurality kinds of poly aromatic hydrocarbon oxides, an oxygen content is 30 to 40 wt.% of the entire element content of the dispersant, and wherein the dispersant is obtained by an oxidation on a pitch .
An oncolytic vaccinia virus comprising a nucleic acid that codes for 15-hydroxyprostaglandin dehydrogenase (15-PGDH) or a functional domain having 15-PGDH activity, wherein the oncolytic vaccinia virus is thymidine kinase negative.
An airfoil for a turbine engine, the airfoil comprising: a cooling chamber disposed inside the airfoil , the cooling chamber configured to direct cooling air inside the airfoil ; an impingement hole disposed inside the airfoil and fluidly coupled with the cooling chamber , the impingement hole configured to direct at least some of the cooling air out of the cooling chamber ; and a double impingement slot cap assembly coupled with the airfoil, the double impingement slot cap assembly forming a cover over the impingement hole , the double impingement slot cap assembly configured to direct the cooling air exiting the cooling chamber in the airfoil through the impingement hole along one or more exterior surfaces of the airfoil ; the airfoil further comprising one or more supports disposed inside the airfoil and coupled with the double impingement slot cap assembly , wherein the supports are configured to direct the cooling air exiting the cooling chamber inside the airfoil around the supports , characterised in that the one or more supports are configured to direct at least some of the cooling air exiting the cooling chamber through the impingement hole along different exterior surfaces of the airfoil . a cooling chamber disposed inside the airfoil , the cooling chamber configured to direct cooling air inside the airfoil ; an impingement hole disposed inside the airfoil and fluidly coupled with the cooling chamber , the impingement hole configured to direct at least some of the cooling air out of the cooling chamber ; and a double impingement slot cap assembly coupled with the airfoil, the double impingement slot cap assembly forming a cover over the impingement hole , the double impingement slot cap assembly configured to direct the cooling air exiting the cooling chamber in the airfoil through the impingement hole along one or more exterior surfaces of the airfoil ; the airfoil further comprising one or more supports disposed inside the airfoil and coupled with the double impingement slot cap assembly , wherein the supports are configured to direct the cooling air exiting the cooling chamber inside the airfoil around the supports , characterised in that the one or more supports are configured to direct at least some of the cooling air exiting the cooling chamber through the impingement hole along different exterior surfaces of the airfoil .
A refrigerator comprising: a storage chamber partitioned by a heat insulation wall and a heat insulation door , configured to store a storage object; a storage-volume estimating unit configured to estimate a storage volume in the storage chamber ; a memory unit configured to memorize a result of estimation by the storage-volume estimating unit ; and an arithmetic control unit configured to calculate a storage change volume based on a result of estimation of the storage volume up to a last time memorized in the memory unit and a result of estimation by the storage-volume estimating unit , and configured to control an output operation of an electrofunctional part, wherein the arithmetic control unit is configured to set an operation value, compare a predetermined threshold value with the storage change volume, determine that the storage volume has changed when the storage change volume exceeds the predetermined threshold value and change the output operation of the electrofunctional part, and also determine that the storage volume has not changed when the storage change volume does not exceed the predetermined threshold value and keep the operation value unchanged so that the output operation of the electrofunctional part is carried out according to the operation value, and wherein the electrofunctional part includes at least one of a cooling fan , a damper , and a compressor for changing a cooling power in the storage chamber . a storage chamber partitioned by a heat insulation wall and a heat insulation door , configured to store a storage object; a storage-volume estimating unit configured to estimate a storage volume in the storage chamber ; a memory unit configured to memorize a result of estimation by the storage-volume estimating unit ; and an arithmetic control unit configured to calculate a storage change volume based on a result of estimation of the storage volume up to a last time memorized in the memory unit and a result of estimation by the storage-volume estimating unit , and configured to control an output operation of an electrofunctional part, wherein the arithmetic control unit is configured to set an operation value, compare a predetermined threshold value with the storage change volume, determine that the storage volume has changed when the storage change volume exceeds the predetermined threshold value and change the output operation of the electrofunctional part, and also determine that the storage volume has not changed when the storage change volume does not exceed the predetermined threshold value and keep the operation value unchanged so that the output operation of the electrofunctional part is carried out according to the operation value, and wherein the electrofunctional part includes at least one of a cooling fan , a damper , and a compressor for changing a cooling power in the storage chamber .
A method for distributing adaptive bitrate ABR media in a network, the method comprising: initially ingesting a first ABR media element at a first network node; creating a first service manifest associated with the first ABR media element when the first ABR media element is initially ingested, the first service manifest comprising a plurality of directive elements, and providing constraints in the directive elements on at least one of: media catalog routing, and channel routing; receiving , at the first network node, a second ABR media element that was initially ingested at a second network node and associated with which a second service manifest was created by the second network node; and initiating distribution of each of the first and second ABR media elements and the associated first and second service manifests from the first network node to a first plurality of network nodes, wherein the method further comprises: employing the service manifest during distribution and delivery of the media to provide guidance and enforce compliance; and modifying the service manifest as it is passed through the network and documenting the modification in a packager element of the service manifest. initially ingesting a first ABR media element at a first network node; creating a first service manifest associated with the first ABR media element when the first ABR media element is initially ingested, the first service manifest comprising a plurality of directive elements, and providing constraints in the directive elements on at least one of: media catalog routing, and channel routing; receiving , at the first network node, a second ABR media element that was initially ingested at a second network node and associated with which a second service manifest was created by the second network node; and initiating distribution of each of the first and second ABR media elements and the associated first and second service manifests from the first network node to a first plurality of network nodes, wherein the method further comprises: employing the service manifest during distribution and delivery of the media to provide guidance and enforce compliance; and modifying the service manifest as it is passed through the network and documenting the modification in a packager element of the service manifest.
A method of identifying one or more transmit and receive beamforming direction pairs (TX/RX) between an initiator node (DN x , 102) and a responder node (CN x , 104) in a wireless communication network , wherein in an asynchronous mode, transmitting training packets from the initiator node (DNx, 102) for a number of times in each of a number of transmit beamforming directions (TX); characterized by at the responder node (CN x , 104), trying to detect a training packet in each of a number of receive beamforming directions (RX) during a receive window that differs in size from a transmit window in which the training packets are transmitted, such that the rate at which the receiver of the responder node (CN x , 104) cycles through its possible receive directions (RX) differs from the rate at which the transmitter of the initiator node (DN x , 102) sends its training packets in a single transmit direction (TX); asynchronously detecting a training packet at the responder node (CN x , 104) and using timing synchronization information in the asynchronously detected training packet to synchronize the responder node (CN x , 104) to the initiator node (DN x , 102); and receiving an indication that the responder node (CN x , 104) has detected a training packet and is synchronized to the initiator node (DN x , 102); and once the initiator node (DN x , 102) and the responder node (CN x , 104) are synchronized, transmitting training packets in a synchronous mode from the initiator node (DN x , 102) in each of a number of possible transmit beamforming directions (TX); listening for feedback from the responder node (CN x , 104) that indicates that a training packet was received on a particular transmit and receive beamforming direction pair (TX/RX); and using the identified transmit and receive beamforming direction pair (TX/RX) to transmit data packets to the responder node (CN x , 104).
A computer-implemented method, comprising: receiving, by a mobile device , during a time period, an acoustic signal in a real-time location system in an environment , the acoustic signal having been transmitted by an acoustic transmitting device located in the environment , the acoustic transmitting device being one of M acoustic transmitting devices in the environment ; detecting, by the mobile device , an identifier from the received acoustic signal, wherein the detected identifier is a member of a rotating set of identifiers provided by the real-time location system , wherein each of the identifiers has a respective time period of validity for association with an acoustic transmitting device, the rotating set of identifiers having N unique identifiers, and M exceeds N; and determining, by the mobile device , a location of the mobile device based on the detected identifier and the time period. receiving, by a mobile device , during a time period, an acoustic signal in a real-time location system in an environment , the acoustic signal having been transmitted by an acoustic transmitting device located in the environment , the acoustic transmitting device being one of M acoustic transmitting devices in the environment ; detecting, by the mobile device , an identifier from the received acoustic signal, wherein the detected identifier is a member of a rotating set of identifiers provided by the real-time location system , wherein each of the identifiers has a respective time period of validity for association with an acoustic transmitting device, the rotating set of identifiers having N unique identifiers, and M exceeds N; and determining, by the mobile device , a location of the mobile device based on the detected identifier and the time period.