mhurhangee/patent-ind-claim-en huggingface dataset:
A method for classification of motion of a moving target comprising steps of: - creating different motion-specific models using Hidden Markov Model for all the motions desired to be classified; obtaining a database which includes the created different motion models; - detecting a target by a pulsed radar; - determining the range cell of the detected target within a coherent processing interval; - storing signals received, at each pulse within a coherent processing interval, from the target within said range cell; - finding feature vectors, at a certain frequency, from a continuous signal obtained by processing the stored signals and adding them together; - generating a feature vector time series by arranging the found feature vectors in succession; - comparing the generated feature vector time series to the Hidden Markov Model-based motion models in the database so as to calculate its probability for each motion model that is present in the database; - selecting the motion determined by the motion model with the highest calculated probability as the motion of the target ; characterized in that the step of finding feature vectors of the target within the range cell comprises the steps of - generating a continuous signal having a constant pulse repetition frequency by consecutively adding the pulses received by pulsed radar with constant pulse repetition at successive coherent processing intervals, - receiving a signal at a certain window length at periodic intervals from the generated signal, - finding a feature vector by multiplying the received signal by a transformation matrix. - creating different motion-specific models using Hidden Markov Model for all the motions desired to be classified; obtaining a database which includes the created different motion models; - detecting a target by a pulsed radar; - determining the range cell of the detected target within a coherent processing interval; - storing signals received, at each pulse within a coherent processing interval, from the target within said range cell; - finding feature vectors, at a certain frequency, from a continuous signal obtained by processing the stored signals and adding them together; - generating a feature vector time series by arranging the found feature vectors in succession; - comparing the generated feature vector time series to the Hidden Markov Model-based motion models in the database so as to calculate its probability for each motion model that is present in the database; - selecting the motion determined by the motion model with the highest calculated probability as the motion of the target ; - generating a continuous signal having a constant pulse repetition frequency by consecutively adding the pulses received by pulsed radar with constant pulse repetition at successive coherent processing intervals, - receiving a signal at a certain window length at periodic intervals from the generated signal, - finding a feature vector by multiplying the received signal by a transformation matrix.
A weight distribution apparatus for adjusting a center of mass of a drone (10; 17; 23), comprising: a first balance track extending outwardly from a central region of the drone (10; 17; 18; 19; 20; 21; 22; 23), wherein the first balance track includes a plurality of weight-balance fixation positions; ; and a repositionable weight configured to be secured at any one of the plurality of weight-balance fixation positions; characterised in that the plurality of weight-balance fixation positions corresponds to different lengths of the first balance track , wherein the repositionable weight includes an electronic component , and wherein the first balance track is configured to change a length for changing the repositionable weight from a first one of the plurality of weight-balance fixation positions to a second one of the plurality of weight-balance fixation positions. a first balance track extending outwardly from a central region of the drone (10; 17; 18; 19; 20; 21; 22; 23), wherein the first balance track includes a plurality of weight-balance fixation positions; ; and a repositionable weight configured to be secured at any one of the plurality of weight-balance fixation positions; characterised in that the plurality of weight-balance fixation positions corresponds to different lengths of the first balance track , wherein the repositionable weight includes an electronic component , and wherein the first balance track is configured to change a length for changing the repositionable weight from a first one of the plurality of weight-balance fixation positions to a second one of the plurality of weight-balance fixation positions.
A feedback method, applied to a first transmission node, comprising: receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K (S101); obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB (S102); determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer more than or equal to 1 (S103); and sending, by the first transmission node, the determined feedback information to the second transmission node (S104); wherein the feedback information set at least comprises two kinds of incorrectness indication information, and the incorrectness indication information is determined according to a number of incorrect or correct CB sets in the P CB sets or according to incorrectness rate or correctness rate of the CB sets; wherein the feedback information set further comprises CB error patterns of incorrect CB sets, or a CB error pattern of the TB. receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K (S101); obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB (S102); determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer more than or equal to 1 (S103); and sending, by the first transmission node, the determined feedback information to the second transmission node (S104); wherein the feedback information set at least comprises two kinds of incorrectness indication information, and the incorrectness indication information is determined according to a number of incorrect or correct CB sets in the P CB sets or according to incorrectness rate or correctness rate of the CB sets; wherein the feedback information set further comprises CB error patterns of incorrect CB sets, or a CB error pattern of the TB.
A series hydraulic hybrid driveline for a vehicle, comprising: a hydraulic circuit comprising a first hydraulic displacement unit in fluid communication with a second hydraulic displacement unit , the first hydraulic displacement unit having a variable hydraulic displacement and the first hydraulic displacement unit being drivingly engaged with an internal combustion engine ; a hydraulic accumulator assembly selectively fluidly connected to the hydraulic circuit , the hydraulic accumulator assembly comprising a high pressure hydraulic accumulator and a low pressure hydraulic accumulator ; and a hydraulic actuator adapted to control the hydraulic displacement of the first hydraulic displacement unit , wherein the hydraulic actuator is in fluid communication with the hydraulic accumulator assembly and with the hydraulic circuit through a pilot pressure portion , the pilot pressure portion comprising shuttle valves (SV1, SV2, SV3) adapted to select a greatest hydraulic pressure between a greatest hydraulic pressure in the hydraulic circuit and a greatest hydraulic pressure in the hydraulic accumulator assembly. a hydraulic circuit comprising a first hydraulic displacement unit in fluid communication with a second hydraulic displacement unit , the first hydraulic displacement unit having a variable hydraulic displacement and the first hydraulic displacement unit being drivingly engaged with an internal combustion engine ; a hydraulic accumulator assembly selectively fluidly connected to the hydraulic circuit , the hydraulic accumulator assembly comprising a high pressure hydraulic accumulator and a low pressure hydraulic accumulator ; and a hydraulic actuator adapted to control the hydraulic displacement of the first hydraulic displacement unit , wherein the hydraulic actuator is in fluid communication with the hydraulic accumulator assembly and with the hydraulic circuit through a pilot pressure portion , the pilot pressure portion comprising shuttle valves (SV1, SV2, SV3) adapted to select a greatest hydraulic pressure between a greatest hydraulic pressure in the hydraulic circuit and a greatest hydraulic pressure in the hydraulic accumulator assembly.
A pretreatment solution which is to be used together with an aqueous inkjet ink that comprises at least a pigment, wherein the pretreatment solution comprises an inorganic metal salt and/or an organic metal salt, an organic solvent and a surfactant, the inorganic metal salt and/or organic metal salt exists in a dissolved state in the pretreatment solution, and the organic solvent contains a compound having one or more hydroxyl groups in each molecule, wherein the inorganic metal salt and/or organic metal salt is a polyvalent metal salt, and an amount of polyvalent metal ions derived from the polyvalent metal salt, based on a total weight of the pretreatment solution, is at least 2% by weight but not more than 8% by weight, the organic solvent includes an organic solvent having a surface tension at 25°C of from 20 to 32 mN/m and being present in an amount of from 50 to 100% by weight, relative to the total weight of organic solvent in the pretreatment solution, based on a total weight of the pretreatment solution, an amount of organic solvent having a boiling point of 180°C or higher is not more than 15% by weight, and an amount of the surfactant is at least 0.01% by weight but not more than 5.0% by weight, relative to the total weight of the pretreatment solution. the pretreatment solution comprises an inorganic metal salt and/or an organic metal salt, an organic solvent and a surfactant, the inorganic metal salt and/or organic metal salt exists in a dissolved state in the pretreatment solution, and the organic solvent contains a compound having one or more hydroxyl groups in each molecule, the inorganic metal salt and/or organic metal salt is a polyvalent metal salt, and an amount of polyvalent metal ions derived from the polyvalent metal salt, based on a total weight of the pretreatment solution, is at least 2% by weight but not more than 8% by weight, the organic solvent includes an organic solvent having a surface tension at 25°C of from 20 to 32 mN/m and being present in an amount of from 50 to 100% by weight, relative to the total weight of organic solvent in the pretreatment solution, based on a total weight of the pretreatment solution, an amount of organic solvent having a boiling point of 180°C or higher is not more than 15% by weight, and an amount of the surfactant is at least 0.01% by weight but not more than 5.0% by weight, relative to the total weight of the pretreatment solution.
An electrode for a secondary battery , comprising: a collector ; and an active material layer formed on the collector , wherein the active material layer includes an active material and carbon nanotubes , and at least a part of a surface of the carbon nanotube is coated with a material including an element with a lower electronegativity than that of carbon, characterized in that the content of the carbon nanotube in the active material layer is 0.1 mass% or more and 15 mass% or lower, the average length of the carbon nanotubes is 3 μm or more and 50 μm or less, wherein the average length of the carbon nanotubes is determined as the average values of the lengths of 30 or more carbon nanotubes , respectively, by taking the electron micrograph of the each carbon nanotube , and the coating ratio of the surface of the carbon nanotube with the material including an element with a lower electronegativity than that of carbon is 40% or more and 70% or lower, wherein the coverage rate of the carbon nanotube is determined: acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube , and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube ) ∗ 100. a collector ; and an active material layer formed on the collector , wherein the active material layer includes an active material and carbon nanotubes , and at least a part of a surface of the carbon nanotube is coated with a material including an element with a lower electronegativity than that of carbon, characterized in that the content of the carbon nanotube in the active material layer is 0.1 mass% or more and 15 mass% or lower, the average length of the carbon nanotubes is 3 μm or more and 50 μm or less, wherein the average length of the carbon nanotubes is determined as the average values of the lengths of 30 or more carbon nanotubes , respectively, by taking the electron micrograph of the each carbon nanotube , and the coating ratio of the surface of the carbon nanotube with the material including an element with a lower electronegativity than that of carbon is 40% or more and 70% or lower, wherein the coverage rate of the carbon nanotube is determined: acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube , and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube ) ∗ 100. acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube , and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube ) ∗ 100.
A method for controlling a test chamber , in particular a climate chamber, test material being disposed in a test space of the test chamber and being exposed to at least one physical test condition within the test space during a test period , a setting of the test condition being controlled using a control device , at least one camera acquiring image datasets of the test material during the test period, the image datasets being processed using an evaluating device , the evaluating device determining a change in the image datasets during the test period, characterized in that in case of a change in the image datasets, the evaluating device signals a change in state of the test material to the control device, the control device adjusting the test condition during the test period as a function of the change in state.
A pressure washer comprising: a hydrodynamic heater operable for heating a fluid, the hydrodynamic heater including an inlet port fluidly connectable to a fluid source; a high-pressure pump including an inlet port fluidly connected to an outlet port of the hydrodynamic heater and an outlet port fluidly connectable to a handheld wand selectively operable for discharging a stream of fluid; and characterised by further comprising a prime-mover operably connected to the hydrodynamic heater and the high-pressure pump , the prime-mover operable to generate a rotational torque for powering the hydrodynamic heater and the high-pressure pump . a hydrodynamic heater operable for heating a fluid, the hydrodynamic heater including an inlet port fluidly connectable to a fluid source; a high-pressure pump including an inlet port fluidly connected to an outlet port of the hydrodynamic heater and an outlet port fluidly connectable to a handheld wand selectively operable for discharging a stream of fluid; and characterised by further comprising a prime-mover operably connected to the hydrodynamic heater and the high-pressure pump , the prime-mover operable to generate a rotational torque for powering the hydrodynamic heater and the high-pressure pump .
A signal transmission method, comprising: sending (S301), by a core network device, a first QoS parameter and a second QoS parameter to a first access network device, wherein an air interface rate required by the first QoS parameter is less than an air interface rate required by the second QoS parameter; and receiving (S303), by the core network device, a first indication sent by the first access network device, wherein the first indication is used to indicate a QoS parameter selected by the first access network device from the first QoS parameter and the second QoS parameter. sending (S301), by a core network device, a first QoS parameter and a second QoS parameter to a first access network device, wherein an air interface rate required by the first QoS parameter is less than an air interface rate required by the second QoS parameter; and receiving (S303), by the core network device, a first indication sent by the first access network device, wherein the first indication is used to indicate a QoS parameter selected by the first access network device from the first QoS parameter and the second QoS parameter.
A device for guiding an element in an orifice in the wall of a combustion chamber of a turbomachine, the device comprising a floating ring and a flange which are substantially coaxial and mounted one inside the other, the ring being adapted to have an element passing axially through it and comprising an external rim guided transversely in an internal annular groove of the flange , which is adapted to be fixed to an edge of the orifice of the wall of the combustion chamber , the flange comprising a bushing provided with a fallen edge where the bushing is brazed or welded with a cup , so as to define said groove between them, the device having at least one preferred transverse direction (X1, X2) of movement of the ring, wherein : - parallel to said axis , between the welds or brazes and the trajectory of the rim of the ring when the ring is displaced with respect to the bushing in the preferred direction, an intermediate space is reserved, as an extension of said groove , - said welds or brazes protrude (at 780) into the intermediate space , so that the welds or brazes are located outside said ring rim trajectory, characterised in that said intermediate space extends around a portion of the cup transversely to said axis , between said portion of the cup and the fallen edge . - parallel to said axis , between the welds or brazes and the trajectory of the rim of the ring when the ring is displaced with respect to the bushing in the preferred direction, an intermediate space is reserved, as an extension of said groove , - said welds or brazes protrude (at 780) into the intermediate space , so that the welds or brazes are located outside said ring rim trajectory, characterised in that said intermediate space extends around a portion of the cup transversely to said axis , between said portion of the cup and the fallen edge .
Apparatus for actuating and/or monitoring a brushless DC motor by means of a converter circuit , comprising - a switching-off apparatus , - a driver circuit (1.1) acting on the converter circuit , and - a testable diagnosis unit for monitoring at least one parameter of the apparatus and/or of the converter circuit and/or of the brushless DC motor , wherein the switching-off apparatus acts on the driver circuit (1.1) and characterized in that the testable diagnosis unit is set up to respond to a test command, comprising the adjustment of a test value for at least one limit value corresponding to the monitored parameter, by ascertaining and outputting a fault state that describes a malfunction of the testable diagnosis unit . - a switching-off apparatus , - a driver circuit (1.1) acting on the converter circuit , and - a testable diagnosis unit for monitoring at least one parameter of the apparatus and/or of the converter circuit and/or of the brushless DC motor , wherein the switching-off apparatus acts on the driver circuit (1.1) and characterized in that the testable diagnosis unit is set up to respond to a test command, comprising the adjustment of a test value for at least one limit value corresponding to the monitored parameter, by ascertaining and outputting a fault state that describes a malfunction of the testable diagnosis unit .
Method for the manufacture of a plastic component, in particular a cushioning element for sports apparel, comprising: a. loading a mold with a first material which comprises particles of an expanded material; b. during loading the mold, pre-heating the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), and characterised in that the energy supplied by means of the at least one electromagnetic field is varied over time. a. loading a mold with a first material which comprises particles of an expanded material; b. during loading the mold, pre-heating the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), and characterised in that the energy supplied by means of the at least one electromagnetic field is varied over time.
A system for determining a reputation mechanism, comprising at least two reputation engines (RE 1 , RE 2 , ... RE n ) each operable to determine a reputation score (R) of a system entity according to a reputation mechanism, a selection entity for selecting one of the at least two reputation engines (RE 1 , RE 2 , ... RE n ), a condition entity for measuring a condition (SC 1 , ... SC m ) of the system according to at least one system condition parameter and for providing corresponding condition information, wherein the system condition parameter represents a number of entities (P 1 , P 2 , P 3 , P 4 , UE, RP) and/or users of the system, a number of providers (P 1 , P 2 , P 3 , P 4 ,) a user and/or entity participation, network resources and/or computer resources, a performance entity for measuring a performance (PM 1 , ... PM p ) of the system according to at least one system performance parameter, and for providing corresponding performance information, wherein the system performance parameter represents accuracy of a calculated reputation score by a reputation engine (RE 1 , RE 2 , ... RE n ), user satisfaction, adaptability, behaviour with malicious users and/or entities, and/or behaviour with malicious providers, wherein said selection entity is operable to select a reputation engine (RE 1 , RE 2 , ... RE n ) out of the at least two reputation engines (RE 1 , RE 2 , ... RE n ) based on a value representing a suitability of the reputation engines, said value being calculated based on actual provided condition information and/or actual provided performance information.