mhurhangee/ep-ind-claims huggingface dataset:
A computer-automated method for analyzing network performance data from a telecommunications network, the method comprising: receiving a data set containing a log of a first time sequence of network events (a, b, c) occurring on the telecommunications network in which each network event is associated with at least one network location and has been classified into one of a plurality of event types; creating a second time sequence from the first time sequence by aggregating the events into event groups (A, B, C), wherein each event group is defined as a plurality of events which are in a specific sequence of event types, each event group being classified into one of a plurality of event group types; creating a third time sequence from the second time sequence by aggregating the event groups into event super-groups (α, β), wherein each event super-group is defined as a plurality of event groups which are in a specific sequence of event group types, each event super-group being classified into one of a plurality of event super-group types; and rendering into a visualization at least one of the time sequences such that in the visualization each of said types is visually distinct from other types in the same time sequence. receiving a data set containing a log of a first time sequence of network events (a, b, c) occurring on the telecommunications network in which each network event is associated with at least one network location and has been classified into one of a plurality of event types; creating a second time sequence from the first time sequence by aggregating the events into event groups (A, B, C), wherein each event group is defined as a plurality of events which are in a specific sequence of event types, each event group being classified into one of a plurality of event group types; creating a third time sequence from the second time sequence by aggregating the event groups into event super-groups (α, β), wherein each event super-group is defined as a plurality of event groups which are in a specific sequence of event group types, each event super-group being classified into one of a plurality of event super-group types; and rendering into a visualization at least one of the time sequences such that in the visualization each of said types is visually distinct from other types in the same time sequence.
A method for producing a groove pattern on a cylinder surface, the method comprising: - providing a patterning head (HEAD1), which comprises an abrasive module and a pressing actuator, - pressing the abrasive module against the cylinder surface by using the actuator, and - forming a plurality of grooves on the cylinder surface by causing relative motion between the abrasive module and the cylinder surface, wherein the abrasive module comprises an abrasive article and a collector block, the abrasive article being removably attached to the collector block, wherein a curved supporting surface of the collector block comprises a plurality of second openings for drawing gas and particles released from the cylinder surface, characterized in that the abrasive article is an abrasive mesh article, which comprises a plurality of abrasive grains bonded to a flexible mesh backing, the abrasive mesh article is attached to the curved supporting surface of the collector block by a releasable fastening system (HLSYS1), the flexible mesh backing comprises a plurality of first openings, and wherein the first openings are in communication with the second openings of the collector block via the releasable fastening system (HLSYS1), for providing pathways for the released particles from the first openings to the second openings of the collector block via the releasable fastening system (HLSYS1), wherein the method comprises drawing gas through the abrasive mesh article to remove particles released from the cylinder surface. - providing a patterning head (HEAD1), which comprises an abrasive module and a pressing actuator, - pressing the abrasive module against the cylinder surface by using the actuator, and - forming a plurality of grooves on the cylinder surface by causing relative motion between the abrasive module and the cylinder surface, wherein the abrasive module comprises an abrasive article and a collector block, the abrasive article being removably attached to the collector block, wherein a curved supporting surface of the collector block comprises a plurality of second openings for drawing gas and particles released from the cylinder surface, characterized in that the abrasive article is an abrasive mesh article, which comprises a plurality of abrasive grains bonded to a flexible mesh backing, the abrasive mesh article is attached to the curved supporting surface of the collector block by a releasable fastening system (HLSYS1), the flexible mesh backing comprises a plurality of first openings, and wherein the first openings are in communication with the second openings of the collector block via the releasable fastening system (HLSYS1), for providing pathways for the released particles from the first openings to the second openings of the collector block via the releasable fastening system (HLSYS1), wherein the method comprises drawing gas through the abrasive mesh article to remove particles released from the cylinder surface.
A method for processing biometric data performed by a connected proof entity and a verification entity; the proof entity having a biometric candidate datum, a biometric reference datum, a hash value of the biometric reference datum, a hash value of the biometric candidate datum; the verification entity having only the hash value of the biometric candidate datum; the method comprising steps of: (a) generation by the data-processing unit of the proof entity of a zero-knowledge proof of the assumption that, given two hash values, there is a biometric candidate datum and a biometric reference datum: - having for respective hash values the given hash values, and - coinciding; (b) transmission by the proof entity to the verification entity of said zero-knowledge proof, the hash value of the biometric candidate datum, and the hash value of the biometric reference datum; (c) verification by a data-processing unit of the verification entity that the zero-knowledge proof received from the proof entity is valid using hash values received from the proof entity, and that the hash value received from the proof entity of the biometric candidate datum corresponds to the one the verification entity has. (a) generation by the data-processing unit of the proof entity of a zero-knowledge proof of the assumption that, given two hash values, there is a biometric candidate datum and a biometric reference datum: - having for respective hash values the given hash values, and - coinciding; - having for respective hash values the given hash values, and - coinciding; (b) transmission by the proof entity to the verification entity of said zero-knowledge proof, the hash value of the biometric candidate datum, and the hash value of the biometric reference datum; (c) verification by a data-processing unit of the verification entity that the zero-knowledge proof received from the proof entity is valid using hash values received from the proof entity, and that the hash value received from the proof entity of the biometric candidate datum corresponds to the one the verification entity has.
A method of joining two thermoplastic components comprising: producing a first thermoplastic composite component by placing a first amorphous thermoplastic film on a first stack of thermoplastic pre-preg, and co-consolidating the first amorphous thermoplastic film and the first stack of thermoplastic pre-preg to provide a layer of the first amorphous thermoplastic film on the first stack of thermoplastic pre-preg; producing a second thermoplastic composite component by placing a second amorphous thermoplastic film on a second stack of thermoplastic pre-preg, and co-consolidating the second amorphous thermoplastic film and the second stack of thermoplastic pre-preg to provide a layer of the second amorphous thermoplastic film on the second stack of thermoplastic pre-preg; assembling the first and second thermoplastic composite components, including placing the first and second amorphous thermoplastic films against each other; pressing the first and second amorphous thermoplastic films against each other by applying pressure to the first and second thermoplastic composite components; and fusing the first and second amorphous thermoplastic films together at a temperature below approximately 475°F (246°C); wherein each of the first and second thermoplastic pre-preg is PEEK and each of the first and second amorphous thermoplastic films is PES. producing a first thermoplastic composite component by placing a first amorphous thermoplastic film on a first stack of thermoplastic pre-preg, and co-consolidating the first amorphous thermoplastic film and the first stack of thermoplastic pre-preg to provide a layer of the first amorphous thermoplastic film on the first stack of thermoplastic pre-preg; producing a second thermoplastic composite component by placing a second amorphous thermoplastic film on a second stack of thermoplastic pre-preg, and co-consolidating the second amorphous thermoplastic film and the second stack of thermoplastic pre-preg to provide a layer of the second amorphous thermoplastic film on the second stack of thermoplastic pre-preg; assembling the first and second thermoplastic composite components, including placing the first and second amorphous thermoplastic films against each other; pressing the first and second amorphous thermoplastic films against each other by applying pressure to the first and second thermoplastic composite components; and fusing the first and second amorphous thermoplastic films together at a temperature below approximately 475°F (246°C); wherein each of the first and second thermoplastic pre-preg is PEEK and each of the first and second amorphous thermoplastic films is PES.
A method of manufacturing a wind turbine blade part (24, 26), the method comprising: providing a preform mould, arranging a plurality of layers (70, 72, 74) within the preform mould to form a stack of layers, wherein one or more of the layers is formed by a fabric comprising a fibre material treated with a binding agent, the fabric comprising an alternating pattern of first sections of fibre material free from binding agent and second sections of fibre material treated with binding agent, heating the stack of layers to form a preform, transferring the preform to a blade mould comprising a mould cavity, infusing resin to the blade mould cavity, curing and/or hardening the resin in order to form the blade part, characterized in that one or both of the outer layers of the stack are formed by a patterned fabric and that one or more of the inner layers of the stack are formed by a non-patterned fabric. providing a preform mould, arranging a plurality of layers (70, 72, 74) within the preform mould to form a stack of layers, wherein one or more of the layers is formed by a fabric comprising a fibre material treated with a binding agent, the fabric comprising an alternating pattern of first sections of fibre material free from binding agent and second sections of fibre material treated with binding agent, heating the stack of layers to form a preform, transferring the preform to a blade mould comprising a mould cavity, infusing resin to the blade mould cavity, curing and/or hardening the resin in order to form the blade part,
A trailer refrigerating apparatus, comprising: a casing attached to an opening on a front side of a trailer; a cooling unit configured to cool air in an in-compartment space of the trailer; and an engine generator (40, 41) configured to supply power to the cooling unit, characterised in that the casing includes an engine support which is fixed to a main body of the casing and on which the engine generator (40, 41) is mounted, and the engine support is drawable from the main body of the casing in a forward direction relative to the front side of the trailer. a casing attached to an opening on a front side of a trailer; a cooling unit configured to cool air in an in-compartment space of the trailer; and an engine generator (40, 41) configured to supply power to the cooling unit, characterised in that the casing includes an engine support which is fixed to a main body of the casing and on which the engine generator (40, 41) is mounted, and the engine support is drawable from the main body of the casing in a forward direction relative to the front side of the trailer.
Method for controlling a three-phase electric machine of a motor vehicle powered by chopped voltages and comprising a step of determination of current setpoints for each phase of the electric machine as a function of a torque request from the driver, and a step of determination of the voltages of each phase of the electric machine as a function of the current setpoints for each phase, characterized in that it comprises the following steps during which: the powers of each phase of the electric machine are determined, expressed in the Park reference frame, a determination is made as to whether a measurement of the speed of rotation of the magnetic field in the electric machine exceeds a threshold value, and, if it does, a bandpass filtering of the powers of each phase of the electric machine is performed, each power after filtering is multiplied by gains that can be calibrated to obtain attenuation currents relative to each phase, final current setpoints are determined by subtracting the attenuation currents relative to each phase from the current setpoints of the corresponding phases, and power supply voltage setpoints for the phases of the electric machine are determined as a function of the final current setpoints. the powers of each phase of the electric machine are determined, expressed in the Park reference frame, a determination is made as to whether a measurement of the speed of rotation of the magnetic field in the electric machine exceeds a threshold value, and, if it does, a bandpass filtering of the powers of each phase of the electric machine is performed, each power after filtering is multiplied by gains that can be calibrated to obtain attenuation currents relative to each phase, final current setpoints are determined by subtracting the attenuation currents relative to each phase from the current setpoints of the corresponding phases, and power supply voltage setpoints for the phases of the electric machine are determined as a function of the final current setpoints.
Use of an isolated DNA sequence which comprises a nucleic acid molecule, the nucleotide sequence of which has the core sequence motif vaaagtm or a core sequence motif complementary thereto as a pathogen-inducible or elicitor-inducible-mediating cis-regulatory element in a chimeric promoter wherein 'v' stands for adenine (a), guanine (g) or cytosine (c), and 'm' stands for adenine (a) or cytosine (c).
A solenoid valve with special steel components, used in food processing equipments in which the components for the passage of liquids are made of stainless steel, characterized in that said components are made of chrome-nickel-molybdenum austenitic steel with low carbon content, wherein said austenitic steel consists of the alloy identified by codes EN 1.4598 and DIN X2CrNiMoCuS 17-10-2.
A method for providing a push to talk, PTT, service in a communication system, the method comprising: generating a file format including information related to a plurality of data of the PTT service to be played at the same time; and playing the plurality of data at the same time based on the file format, wherein the information is represented as a time table indexed by a unit time, and wherein the time table comprises: a first field indicating a number of the plurality of data to be played at the same time with respect to said index, a second field indicating identifiers of the plurality of data to be played at the same time with respect to the index, and a third field indicating location information of the plurality of data to be played at the same time with respect to an index. generating a file format including information related to a plurality of data of the PTT service to be played at the same time; and playing the plurality of data at the same time based on the file format, wherein the information is represented as a time table indexed by a unit time, and wherein the time table comprises: a first field indicating a number of the plurality of data to be played at the same time with respect to said index, a second field indicating identifiers of the plurality of data to be played at the same time with respect to the index, and a first field indicating a number of the plurality of data to be played at the same time with respect to said index, a second field indicating identifiers of the plurality of data to be played at the same time with respect to the index, and a third field indicating location information of the plurality of data to be played at the same time with respect to an index.
A process for making particles comprising a hydrophobic dopant therein said dopant being releasable from the particles, the process comprising: providing an emulsion comprising a hydrophilic phase and a hydrophobic phase dispersed in the hydrophilic phase, said hydrophobic phase comprising a precursor material and the dopant, said emulsion comprising an aminosilane catalyst, wherein the ratio of the catalyst to the precursor material is between 3:1 and 0.1: 1 on a weight, volume or mole basis; and reacting the precursor material in the presence of the catalyst to form the particles comprising the dopant therein said dopant being releasable from the particles wherein the precursor is an organosilica precursor. providing an emulsion comprising a hydrophilic phase and a hydrophobic phase dispersed in the hydrophilic phase, said hydrophobic phase comprising a precursor material and the dopant, said emulsion comprising an aminosilane catalyst, wherein the ratio of the catalyst to the precursor material is between 3:1 and 0.1: 1 on a weight, volume or mole basis; and reacting the precursor material in the presence of the catalyst to form the particles comprising the dopant therein said dopant being releasable from the particles wherein the precursor is an organosilica precursor.
A total air temperature sensor assembly (200;300), the assembly comprising: a housing accommodating a temperature sensor; a first airfoil including a leading end and a trailing end, a second airfoil including a leading end and a trailing end, the second airfoil being convex and the first airfoil includes an inner sidewall extending between the leading and trailing ends of the first airfoil and that faces and defines at least part of a curved passageway, the inner sidewall of the first airfoil including a first convex portion, a second convex portion and a concave portion disposed between the first and second convex portions; the leading ends of the first and second airfoils are disposed in front of the housing and the first and second airfoils are disposed in a spaced apart fashion to define the curved passageway extending between the first and second airfoils and leading to the housing, wherein airflow entering the curved passageway between the first airfoil and the second airfoil is directed towards and then past the housing and the trailing end of the second airfoil is disposed in front of and spaced apart from the housing. a housing accommodating a temperature sensor; a first airfoil including a leading end and a trailing end, a second airfoil including a leading end and a trailing end, the second airfoil being convex and the first airfoil includes an inner sidewall extending between the leading and trailing ends of the first airfoil and that faces and defines at least part of a curved passageway, the inner sidewall of the first airfoil including a first convex portion, a second convex portion and a concave portion disposed between the first and second convex portions; the leading ends of the first and second airfoils are disposed in front of the housing and the first and second airfoils are disposed in a spaced apart fashion to define the curved passageway extending between the first and second airfoils and leading to the housing, wherein airflow entering the curved passageway between the first airfoil and the second airfoil is directed towards and then past the housing and the trailing end of the second airfoil is disposed in front of and spaced apart from the housing.
An intravascular ultrasound imaging system, comprising: a catheter having an elongated body having a distal end and an imaging core arranged to be inserted into the elongated body, the imaging core being arranged to transmit ultrasonic energy pulses and to receive reflected ultrasonic energy pulses; and an imaging engine coupled to the imaging core and arranged to provide the imaging core with energy pulses to cause the imaging core to transmit the ultrasonic energy pulses, the energy pulses being arranged in repeated sequences, wherein the energy pulses of each sequence have varying characteristics, and each energy pulse is associated with an image frame, characterized in that the imaging engine comprises a processor that processes the reflected ultrasonic energy pulses in the image frames and a detector that detects the varying characteristic in the reflected ultrasonic energy pulses, and wherein the imaging engine processes the frames according to the detected varying characteristic. a catheter having an elongated body having a distal end and an imaging core arranged to be inserted into the elongated body, the imaging core being arranged to transmit ultrasonic energy pulses and to receive reflected ultrasonic energy pulses; and an imaging engine coupled to the imaging core and arranged to provide the imaging core with energy pulses to cause the imaging core to transmit the ultrasonic energy pulses, the energy pulses being arranged in repeated sequences, wherein the energy pulses of each sequence have varying characteristics, and each energy pulse is associated with an image frame, characterized in that the imaging engine comprises a processor that processes the reflected ultrasonic energy pulses in the image frames and a detector that detects the varying characteristic in the reflected ultrasonic energy pulses, and wherein the imaging engine processes the frames according to the detected varying characteristic.
A resin composition, comprising a polycarbonate resin; a rubber-modified aromatic vinyl-based copolymer resin; a conductive additive comprising a carbon fiber and a carbon nanotube; talc; and a foaming agent, wherein a weight ratio of the carbon fiber and the carbon nanotube is 1: 0.1 to 1: 0.4, wherein the resin composition further comprises a phosphorus-based flame retardant and a flame retardant auxiliary agent. a polycarbonate resin; a rubber-modified aromatic vinyl-based copolymer resin; a conductive additive comprising a carbon fiber and a carbon nanotube; talc; and a foaming agent, wherein a weight ratio of the carbon fiber and the carbon nanotube is 1: 0.1 to 1: 0.4, wherein the resin composition further comprises a phosphorus-based flame retardant and a flame retardant auxiliary agent.