mhurhangee/patent-ind-claim-en huggingface dataset:
A computerized method for detecting an anomaly in a computer that is a member of a population of networked computers , the method comprising: receiving snapshots from respective member computers of the population of computers , wherein the snapshots include run-time memory scan results of the member computers ; identifying correlations between executing codes and dynamic link libraries loaded in memory during execution of the executing codes, wherein the executing codes correspond to run-time processes; generating a model from the received snapshots by encoding the correlations to form clusters of encoded correlations in the model, said model further including a set of stack traces and their associated processes characterizing thread creation behavior; and comparing a sample snapshot from the member computer to the model to determine whether a behavioral anomaly is present, wherein the behavioral anomaly is determined based on detecting one or more of changes in code, changes in execution stack, changes in execution of threads in comparison to the model. receiving snapshots from respective member computers of the population of computers , wherein the snapshots include run-time memory scan results of the member computers ; identifying correlations between executing codes and dynamic link libraries loaded in memory during execution of the executing codes, wherein the executing codes correspond to run-time processes; generating a model from the received snapshots by encoding the correlations to form clusters of encoded correlations in the model, said model further including a set of stack traces and their associated processes characterizing thread creation behavior; and comparing a sample snapshot from the member computer to the model to determine whether a behavioral anomaly is present, wherein the behavioral anomaly is determined based on detecting one or more of changes in code, changes in execution stack, changes in execution of threads in comparison to the model.
A fan control method, applied to an induction cooker with multiple heating zones, where the fan control method comprises: obtaining a working mode of the induction cooker, characterised by obtaining an Insulated Gate Bipolar Transistor (IGBT) temperature and a cooktop temperature of the induction cooker; based on the working mode, the IGBT temperature and the cooktop temperature, controlling a rotation speed of the fan. obtaining a working mode of the induction cooker, characterised by obtaining an Insulated Gate Bipolar Transistor (IGBT) temperature and a cooktop temperature of the induction cooker; based on the working mode, the IGBT temperature and the cooktop temperature, controlling a rotation speed of the fan.
An alkaloid derivative of the following formula (I) or pharmaceutically acceptable salt thereof: wherein, X is an oxygen atom and Y is a carbon atom; or X is a sulfur atom and Y is a nitrogen atom, Z is a nitrogen or carbon atom, R 1 and R 2 are each independently hydrogen, hydroxyl, or C 1 -C 6 alkoxy, R 3 is C 1 -C 6 alkyl, R 4 and R 5 are each independently hydrogen, C 1 -C 6 alkyl, or C 3 -C 10 cycloalkyl, or R 4 and R 5 form a 5- to 7- membered heterocycle in combination with nitrogen adjacent thereto, and n is an integer of 0 to 6. X is an oxygen atom and Y is a carbon atom; or X is a sulfur atom and Y is a nitrogen atom, Z is a nitrogen or carbon atom, R 1 and R 2 are each independently hydrogen, hydroxyl, or C 1 -C 6 alkoxy, R 3 is C 1 -C 6 alkyl, R 4 and R 5 are each independently hydrogen, C 1 -C 6 alkyl, or C 3 -C 10 cycloalkyl, or R 4 and R 5 form a 5- to 7- membered heterocycle in combination with nitrogen adjacent thereto, and n is an integer of 0 to 6.
A chimeric protein comprising a Factor VIII ("FVIII") protein and a von Willebrand Factor (VWF) fragment, wherein the FVIII protein comprises an A1 domain, an A2 domain, an A3 domain, a C1 domain, and a C2 domain; wherein the VWF fragment comprises a D' domain and a D3 domain of VWF; and wherein the VWF fragment and the FVIII protein are linked by a covalent bond, which prevents dissociation of the VWF fragment from the FVIII protein in the presence of endogenous VWF, wherein the VWF fragment inhibits or prevents endogenous VWF from binding to the FVIII protein by shielding or blocking a VWF binding site on the FVIII protein.
A data collection system comprising: an acquisition unit in a client apparatus , configured to acquire a plurality of pieces of data indicating a physical amount detected by a sensor, the client apparatus being connected to a plurality of sensors via a communication line; a transmission unit in the client apparatus , configured to transmit, to a server apparatus , a data set including a data string including at least a portion of the received plurality of pieces of data and first information indicating the number of pieces of data included in the data string, wherein one piece of data includes one measurement value measured by a respective sensor; a reception unit in the server apparatus , configured to receive the data set from the client apparatus ; a processing unit in the server apparatus , configured to process the received data set; and a re-transmission unit in the client apparatus , configured to re-transmit the data set to the server apparatus if a condition indicating that the number of the pieces of data included in the data set received by the server apparatus and the number of the pieces of data indicated by the first information are different is satisfied; wherein the data set includes a priority level, and if a plurality of data sets are to be re-transmitted, the re-transmission unit re-transmits the plurality of data sets in accordance with a sequence corresponding to the priority level included in each of the plurality of data sets. an acquisition unit in a client apparatus , configured to acquire a plurality of pieces of data indicating a physical amount detected by a sensor, the client apparatus being connected to a plurality of sensors via a communication line; a transmission unit in the client apparatus , configured to transmit, to a server apparatus , a data set including a data string including at least a portion of the received plurality of pieces of data and first information indicating the number of pieces of data included in the data string, wherein one piece of data includes one measurement value measured by a respective sensor; a reception unit in the server apparatus , configured to receive the data set from the client apparatus ; a processing unit in the server apparatus , configured to process the received data set; and a re-transmission unit in the client apparatus , configured to re-transmit the data set to the server apparatus if a condition indicating that the number of the pieces of data included in the data set received by the server apparatus and the number of the pieces of data indicated by the first information are different is satisfied; wherein the data set includes a priority level, and if a plurality of data sets are to be re-transmitted, the re-transmission unit re-transmits the plurality of data sets in accordance with a sequence corresponding to the priority level included in each of the plurality of data sets.
A compact bipolarization excitation assembly consisting of an orthomode transducer OMT comprising two transmission pathways, respectively dedicated to two orthogonal polarizations, a first and a second power splitter respectively connected to the two transmission pathways of the OMT , and a first and a second connection waveguide , the OMT consisting of a cross junction comprising a central waveguide parallel to an axis Z and four lateral ports respectively coupled to the central waveguide and oriented in two directions X and Y orthogonal to one another and to the axis Z, wherein the first power splitter consists of an input waveguide capable of being connected to a first power source working in a first polarization P1 and of two output ports respectively coupled to a first and a second lateral port of the OMT, oriented in the direction X, via the first and the second respective connection waveguide , wherein the first power splitter is located on a first lateral side of the OMT , the input waveguide having a lateral wall orthogonal to the direction X and extending heightwise parallel to the axis Z, characterized in that the two output ports , respectively upper and lower, of the first power splitter are formed one above the other in the direction of the axis Z in the said lateral wall of the input waveguide , the upper output port being placed facing the first lateral port of the OMT to which it is connected by the first connection waveguide , and in that the first and second connection waveguides have different electrical lengths, the difference in electrical length between the first and second connection waveguides being equal to a half-wavelength λ/2, where λ is the central wavelength of operation.
A method in a vehicle for determining road properties, the method comprising: detecting vehicle acceleration in x, y and z directions; detecting a rack force acting on a steering rack of the vehicle; detecting a wheel speed for each of all four wheels; determining a wheel speed energy based on said wheel speed; determining a wheel slip of all four wheels based on a respective wheel speed of said wheel; determining an acceleration energy in each of said x, y and z-directions based on said vehicle acceleration; determining a vehicle speed ; determining a rack force energy based on the detected rack force; and determining road properties based on said wheel speed energy, wheel slip, acceleration energy, vehicle speed and rack force energy, wherein determining the road properties includes determining a road roughness. detecting vehicle acceleration in x, y and z directions; detecting a rack force acting on a steering rack of the vehicle; detecting a wheel speed for each of all four wheels; determining a wheel speed energy based on said wheel speed; determining a wheel slip of all four wheels based on a respective wheel speed of said wheel; determining an acceleration energy in each of said x, y and z-directions based on said vehicle acceleration; determining a vehicle speed ; determining a rack force energy based on the detected rack force; and determining road properties based on said wheel speed energy, wheel slip, acceleration energy, vehicle speed and rack force energy, wherein determining the road properties includes determining a road roughness.
A method for supporting protocol independent multicast sparse mode, PIM-SM, using multicast resource reservation protocol-traffic engineering, mRSVP-TE, comprising: creating , by a source provider edge, PE, router, a protocol independent multicast, PIM, state, wherein the PIM state is an (S, G) state; sending , by the source PE router, a first unicast data message to a rendezvous point, RP, PE router using the PIM state, wherein the first unicast data message is a PIM register message encapsulated as a unicast multiprotocol label switching, MPLS-, packet; receiving , by the source PE router, a PIM join message from the RP PE router, wherein the PIM join message triggers creating a second PIM state, wherein the second PIM state is an (S, G) state; sending , by the source PE router, a second unicast data message to the RP PE router via a default multicast distribution tree, MDT, using the second PIM state; receiving , by the source PE router, a PIM register-stop message from the RP PE router, wherein the PIM register-stop message suspends sending the second unicast data message; and sending , by the source PE router, multicast data traffic via the default MDT. creating , by a source provider edge, PE, router, a protocol independent multicast, PIM, state, wherein the PIM state is an (S, G) state; sending , by the source PE router, a first unicast data message to a rendezvous point, RP, PE router using the PIM state, wherein the first unicast data message is a PIM register message encapsulated as a unicast multiprotocol label switching, MPLS-, packet; receiving , by the source PE router, a PIM join message from the RP PE router, wherein the PIM join message triggers creating a second PIM state, wherein the second PIM state is an (S, G) state; sending , by the source PE router, a second unicast data message to the RP PE router via a default multicast distribution tree, MDT, using the second PIM state; receiving , by the source PE router, a PIM register-stop message from the RP PE router, wherein the PIM register-stop message suspends sending the second unicast data message; and sending , by the source PE router, multicast data traffic via the default MDT.
A computer-implemented method of determining an antimicrobial drug, e.g. antibiotic, resistance profile for a microorganism, particularly a bacterial microorganism, comprising: obtaining or providing a first data set of gene sequences of a plurality of clinical isolates of the microorganism; wherein at least a part of the gene sequences of the first data set are assembled; analyzing the gene sequences of the first data set for genetic variants to obtain a third data set of genetic variants, wherein the genetic variants in the gene sequences of the first data set are detected alignment-free; providing a second data set of antimicrobial drug, e.g. antibiotic, resistance and/or susceptibility of the plurality of clinical isolates of the microorganism; correlating the third data set with the second data set and statistically analyzing the correlation; and determining the genetic sites in the genome of the microorganism with antimicrobial drug, e.g. antibiotic, resistance. obtaining or providing a first data set of gene sequences of a plurality of clinical isolates of the microorganism; wherein at least a part of the gene sequences of the first data set are assembled; analyzing the gene sequences of the first data set for genetic variants to obtain a third data set of genetic variants, wherein the genetic variants in the gene sequences of the first data set are detected alignment-free; providing a second data set of antimicrobial drug, e.g. antibiotic, resistance and/or susceptibility of the plurality of clinical isolates of the microorganism; correlating the third data set with the second data set and statistically analyzing the correlation; and determining the genetic sites in the genome of the microorganism with antimicrobial drug, e.g. antibiotic, resistance.
An antenna comprising: a tower extending vertically upward from a ground location; a first set of elongate antenna elements electrically coupled to and extending outwardly from the tower at a first height (hi) above the ground location; a second set of elongate antenna elements electrically coupled to and extending outwardly from the tower at a second height (h2) above the ground location and below the first height (h1); and a radio frequency, RF, feed electrically coupled to the tower , wherein at least one of the first and second sets of elongated antenna elements are arranged in a conical pattern; a plurality of ground conductors provided at the ground location and electrically connected to the RF feed ; one or more ground return conductors electrically connected to one or more of the second set of elongate antenna elements and to the plurality of ground conductors ; characterized in that the one or more ground return conductors are configured such that currents flowing in the one or more ground return conductors are antiparallel to currents flowing in the tower . a tower extending vertically upward from a ground location; a first set of elongate antenna elements electrically coupled to and extending outwardly from the tower at a first height (hi) above the ground location; a second set of elongate antenna elements electrically coupled to and extending outwardly from the tower at a second height (h2) above the ground location and below the first height (h1); and a radio frequency, RF, feed electrically coupled to the tower , wherein at least one of the first and second sets of elongated antenna elements are arranged in a conical pattern; a plurality of ground conductors provided at the ground location and electrically connected to the RF feed ; one or more ground return conductors electrically connected to one or more of the second set of elongate antenna elements and to the plurality of ground conductors ; characterized in that the one or more ground return conductors are configured such that currents flowing in the one or more ground return conductors are antiparallel to currents flowing in the tower .
An independent speed variable frequency alternating current (AC) generator apparatus comprising: a rotor and a stator , the rotor configured to rotate relative to the stator; a magnetic field source attached to the rotor and configured to generate a first rotating magnetic field upon rotation of the rotor, wherein a rotational frequency of the first rotating magnetic field is dependent on a rotational frequency of the rotor; a main rotor winding attached to the rotor and configured to generate a second rotating magnetic field upon the rotation of the rotor, and a main stator winding configured to convert the second rotating magnetic field into an AC power signal, characterized in that a rotational frequency of the second rotating magnetic field is independent of the rotational frequency of the rotor, and the main rotor winding is a three or more phase winding; and characterized by an inverter attached to the rotor and configured to convert a direct current power signal into a main field AC power signal , wherein the main rotor winding is driven with the main field AC power signal to produce a magnetic field that rotates relative to the rotor; and a generator control unit coupled to the inverter and configured to control the main field AC power signal, thereby controlling a rotational speed, a direction and an amplitude of the second rotating magnetic field relative to the rotor, wherein the generator control unit includes control circuitry attached to the stator and control circuitry attached to the rotor. a rotor and a stator , the rotor configured to rotate relative to the stator; a magnetic field source attached to the rotor and configured to generate a first rotating magnetic field upon rotation of the rotor, wherein a rotational frequency of the first rotating magnetic field is dependent on a rotational frequency of the rotor; a main rotor winding attached to the rotor and configured to generate a second rotating magnetic field upon the rotation of the rotor, and a main stator winding configured to convert the second rotating magnetic field into an AC power signal, characterized in that a rotational frequency of the second rotating magnetic field is independent of the rotational frequency of the rotor, and the main rotor winding is a three or more phase winding; and characterized by an inverter attached to the rotor and configured to convert a direct current power signal into a main field AC power signal , wherein the main rotor winding is driven with the main field AC power signal to produce a magnetic field that rotates relative to the rotor; and a generator control unit coupled to the inverter and configured to control the main field AC power signal, thereby controlling a rotational speed, a direction and an amplitude of the second rotating magnetic field relative to the rotor, wherein the generator control unit includes control circuitry attached to the stator and control circuitry attached to the rotor.
A method for monitoring a polyphase electricity network , implemented at least partially in a processing unit of an item of electrical equipment connected to the polyphase electricity network, and comprising the steps, repeated regularly, of: - acquiring voltage measurements taken by voltage sensors (R 1A , R 1B , R 2A , R 2B , R 3A , R 3B ) of the item of electrical equipment that are connected to the polyphase electricity network; - producing current values of electrical parameters from the voltage measurements; - accessing a reference table that comprises a list of connection configurations each associated with a distinct combination of reference values of said electrical parameters, the list of connection configurations comprising first connection configurations each corresponding to a distinct combination of connection or disconnection states for each phase (P1, P2, P3) and for the neutral (N); - implementing an exploratory algorithm intended to explore the reference table to identify the connection configuration associated with the current values of the electrical parameters. - acquiring voltage measurements taken by voltage sensors (R 1A , R 1B , R 2A , R 2B , R 3A , R 3B ) of the item of electrical equipment that are connected to the polyphase electricity network; - producing current values of electrical parameters from the voltage measurements; - accessing a reference table that comprises a list of connection configurations each associated with a distinct combination of reference values of said electrical parameters, the list of connection configurations comprising first connection configurations each corresponding to a distinct combination of connection or disconnection states for each phase (P1, P2, P3) and for the neutral (N); - implementing an exploratory algorithm intended to explore the reference table to identify the connection configuration associated with the current values of the electrical parameters.
An apparatus for assessing degradation and estimating strength by using ultrasound, the apparatus comprising: an ultrasound transmitting unit making an ultrasound signal having a single frequency be incident in an inspected object; an ultrasound receiving unit receiving the ultrasound signal penetrating the inspected object or reflected on the inspected object; a signal processing unit calculating a propagation speed through a time interval of the ultrasound signal received by the ultrasound receiving unit and separates the received ultrasound signal into a fundamental frequency component and a harmonic component to calculate non-linear parameter, and measuring linear and non-linear elastic coefficients by using the propagation speed and the non-linear parameter; and a strength estimating unit obtaining a tensile curve by using the linear and non-linear elastic coefficients and estimating at least one of tensile strength and yield strength by using the tensile curve. an ultrasound transmitting unit making an ultrasound signal having a single frequency be incident in an inspected object; an ultrasound receiving unit receiving the ultrasound signal penetrating the inspected object or reflected on the inspected object; a signal processing unit calculating a propagation speed through a time interval of the ultrasound signal received by the ultrasound receiving unit and separates the received ultrasound signal into a fundamental frequency component and a harmonic component to calculate non-linear parameter, and measuring linear and non-linear elastic coefficients by using the propagation speed and the non-linear parameter; and a strength estimating unit obtaining a tensile curve by using the linear and non-linear elastic coefficients and estimating at least one of tensile strength and yield strength by using the tensile curve.