mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit breaker , comprising: a housing and an internal element disposed inside the housing , wherein the housing comprises a front panel and a rear panel that are disposed opposite to each other, the front panel is disposed with a power wiring port , and the rear panel is disposed with a power interface and a signal interface ; the power wiring port and the power interface are configured to be connected to a circuit of a power distribution system , to provide a main power circuit; the signal interface is internally and electrically connected to the internal element , and the signal interface is externally configured to be electrically connected to a control unit disposed outside the housing ; and a control signal of the control unit that is transmitted through the signal interface is used to implement working of the internal element ; wherein the front panel is disposed with a button and a status display unit , the signal interface is electrically connected to the button and the status display unit, and the control signal of the control unit is transmitted to the button and the status display unit through the signal interface; wherein the status display unit comprises a bicolor indicator; and when the circuit breaker is controlled to be powered off, the indicator is off; when the circuit breaker is faulty, the control signal received by the signal interface is a signal indicating that the indicator alternately flashes two colors; when the circuit breaker is in an opened state, the control signal received by the signal interface indicates that the indicator flashes a first color; when the circuit breaker is in a closed state, the control signal received by the signal interface indicates that the indicator flashes a second color; or when the circuit breaker is in a state of being configured, the control signal received by the signal interface indicates that the indicator is in a first color flashing state or a second color flashing state.
A method comprising: pairing a high definition video disc player with a video portal accessible using another device; providing access to content on a high definition video disc accessed by the high definition video disc player using the high definition video disc player and the video portal; and providing interactivity with the content on the high definition video disc player, wherein the pairing of the high definition video disc player and the video portal configures the video portal to receive disc information from the high definition video disc player and to provide access to content on the high definition video disc accessed by the high definition video disc player, and the providing access to the content by the high definition video disc player includes resuming play of the content for display at a position left off at regardless of whether the high definition video disc player or the other device is being used to access the content, the high definition video disc player resuming the play of the content from the high definition video disc or the other device resuming play of the content from the position left off, wherein the high definition video disc player and the video portal communicate a current position of the content which current position determines the position left off, and the video portal continuously or periodically monitors the position of the content and begins buffering the content when the user stops the content on the high definition video disk player and not before then. pairing a high definition video disc player with a video portal accessible using another device; providing access to content on a high definition video disc accessed by the high definition video disc player using the high definition video disc player and the video portal; and providing interactivity with the content on the high definition video disc player, wherein the pairing of the high definition video disc player and the video portal configures the video portal to receive disc information from the high definition video disc player and to provide access to content on the high definition video disc accessed by the high definition video disc player, and the providing access to the content by the high definition video disc player includes resuming play of the content for display at a position left off at regardless of whether the high definition video disc player or the other device is being used to access the content, the high definition video disc player resuming the play of the content from the high definition video disc or the other device resuming play of the content from the position left off, wherein the high definition video disc player and the video portal communicate a current position of the content which current position determines the position left off, and the video portal continuously or periodically monitors the position of the content and begins buffering the content when the user stops the content on the high definition video disk player and not before then.
Household refrigeration appliance with an interior , which is delimited by walls of an inner container , and with at least one container for receiving foodstuffs, which is arranged in the interior such that it can be displaced, and with a carrier , which is mounted in the interior such that it can be displaced, wherein the container is arranged on the carrier such that it can be released in a non-destructive manner and has a motion coupling with the carrier for displacement, and for the motion coupling the container has at least one coupling element and the carrier has at least one coupling element , characterised in that the coupling elements are arranged in an overlapping manner in the coupled state when viewed in the depth direction (z direction) of the household refrigeration appliance , that the carrier has a channel-like depression , in which the carrier-side coupling element is integrated, that a carrier-side coupling element opens at opposite ends of the depression extending in the width direction in each case, and the carrier-side coupling elements (16,1 7) are arranged at a distance from one another, and that the coupling elements are embodied such that the releasing of the coupled state due to the relative displacement movement between the container and the carrier is only able to be performed in the depth direction.
A method of determining a position dependent wave vector amplitude of vibrations on a surface of a structure , the method comprising - providing an array of microphones in a fluid medium outside the structure at a measurement position configured to receive sound from the surface of the structure; - generating vibrations in the structure, whereby the sound is generated outside the structure by leakage of sound waves from the surface of the structure; - using the array of microphones to obtain measured signals from the sound at the microphones; - obtaining a measurement of at least one parameter of an inverse wave field propagation model for sound propagation in the fluid medium between the surface of the structure and the array of microphones, wherein the measurement of the at least one parameter depends on the measurement position where the array of microphones is provided; - applying the inverse wave field propagation model to the measured signals to obtain a position dependent estimation of the sound amplitude and/or phase at the surface; - computing the wave vector amplitude of the vibration as a function of position on the surface from the position dependent estimation. - providing an array of microphones in a fluid medium outside the structure at a measurement position configured to receive sound from the surface of the structure; - generating vibrations in the structure, whereby the sound is generated outside the structure by leakage of sound waves from the surface of the structure; - using the array of microphones to obtain measured signals from the sound at the microphones; - obtaining a measurement of at least one parameter of an inverse wave field propagation model for sound propagation in the fluid medium between the surface of the structure and the array of microphones, wherein the measurement of the at least one parameter depends on the measurement position where the array of microphones is provided; - applying the inverse wave field propagation model to the measured signals to obtain a position dependent estimation of the sound amplitude and/or phase at the surface; - computing the wave vector amplitude of the vibration as a function of position on the surface from the position dependent estimation.
A heat pump apparatus including a refrigerant circuit, in which a compressor , a condenser , expansion means , and an evaporator are serially connected, comprising: condensation temperature detection means that detects the saturation temperature of said condenser ; compressor operation current detection means that detects an operation current of said compressor ; and a control section that estimates operation efficiency (COP) from a value obtained by dividing heating ability estimated by a detection value from said condensation temperature detection means by the detection value of said compressor operation current detection means or dissipation power estimated from said detection value, wherein said control section starts a defrosting operation when the estimated operation efficiency (COP) decreases to an estimated value of average operation efficiency (COP_CYCLE) from a start of normal operation to an end of said defrosting operation when said defrosting operation is performed at the present time, where the estimated value of said average operation efficiency (COP_CYCLE) is estimated based on an average value of the operation efficiency (COP_AVE) from a start of normal operation to the present time. condensation temperature detection means that detects the saturation temperature of said condenser ; compressor operation current detection means that detects an operation current of said compressor ; and a control section that estimates operation efficiency (COP) from a value obtained by dividing heating ability estimated by a detection value from said condensation temperature detection means by the detection value of said compressor operation current detection means or dissipation power estimated from said detection value, wherein said control section starts a defrosting operation when the estimated operation efficiency (COP) decreases to an estimated value of average operation efficiency (COP_CYCLE) from a start of normal operation to an end of said defrosting operation when said defrosting operation is performed at the present time, where the estimated value of said average operation efficiency (COP_CYCLE) is estimated based on an average value of the operation efficiency (COP_AVE) from a start of normal operation to the present time.
A printed circuit board comprising a cured product of the prepreg and a circuit board, wherein the prepreg comprises two or more fiber substrate layers and one or more resin composition layers, at least one of the one or more resin composition layers has a fiber substrate layer on each of both surfaces thereof, when a thickness of the resin composition layer having a fiber substrate layer on each of both surfaces thereof is defined as T A , and a thickness of a fiber substrate layer having a smaller thickness among the fiber substrate layers on both surfaces of the resin composition layer is defined as T B , a ratio [T A /T B ] of T A and T B is from 0.25 to 5, and the circuit board has a conductor circuit layer having a thickness of 60 μm or more, and the conductor circuit layer is in a state of being embedded by the cured product of the prepreg.
A method of estimating noise at a virtual microphone location for an engine order cancellation (EOC) system, the method comprising: receiving a plurality of estimated noise signals indicative of noise at a location of each of a plurality of error microphones, wherein each estimated noise signal is based at least in part on an error signal from each of the plurality of error microphones; filtering each estimated noise signal using a virtual path filter modeled according to a transfer function between each corresponding error microphone location and the virtual microphone location to generate a plurality of filtered estimated noise signals; characterized in that the method further comprises: adaptively weighting each filtered estimated noise signal using a weight that varies based on current vehicle conditions to generate a plurality of weighted filtered estimated noise signals; and generating an estimated virtual microphone noise signal indicative of noise at the virtual microphone location based on a superposition of at least the plurality of weighted filtered estimated noise signals. receiving a plurality of estimated noise signals indicative of noise at a location of each of a plurality of error microphones, wherein each estimated noise signal is based at least in part on an error signal from each of the plurality of error microphones; filtering each estimated noise signal using a virtual path filter modeled according to a transfer function between each corresponding error microphone location and the virtual microphone location to generate a plurality of filtered estimated noise signals; characterized in that the method further comprises: adaptively weighting each filtered estimated noise signal using a weight that varies based on current vehicle conditions to generate a plurality of weighted filtered estimated noise signals; and generating an estimated virtual microphone noise signal indicative of noise at the virtual microphone location based on a superposition of at least the plurality of weighted filtered estimated noise signals. adaptively weighting each filtered estimated noise signal using a weight that varies based on current vehicle conditions to generate a plurality of weighted filtered estimated noise signals; and generating an estimated virtual microphone noise signal indicative of noise at the virtual microphone location based on a superposition of at least the plurality of weighted filtered estimated noise signals.
A method of minimizing components of a heating, ventilation, and air conditioning (HVAC) system from malfunctioning, the method comprising: measuring, by an accelerometer associated with at least one component of the HVAC system, vibration of the at least one component; receiving, by a controller , actual vibration data reflective of the measured vibration; determining, using the controller, whether the actual vibration data is greater than pre-defined acceptable baseline vibration data by more than a pre-defined acceptable amount; responsive to a positive determination in the determining step, adding, by the controller, as a deadband frequency, an operational frequency of the at least one component corresponding to the actual vibration data; and responsive to a negative determination in the determining step: determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step. measuring, by an accelerometer associated with at least one component of the HVAC system, vibration of the at least one component; receiving, by a controller , actual vibration data reflective of the measured vibration; determining, using the controller, whether the actual vibration data is greater than pre-defined acceptable baseline vibration data by more than a pre-defined acceptable amount; responsive to a positive determination in the determining step, adding, by the controller, as a deadband frequency, an operational frequency of the at least one component corresponding to the actual vibration data; and responsive to a negative determination in the determining step: determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step. determining, using the controller, whether the at least one component of the HVAC system is operating at maximum speed; responsive to a determination that the HVAC system is not operating at maximum speed, incrementally increasing, by the controller, the speed of the at least one component of the HVAC system; and returning to the measuring step.
A process for producing an oral thin film comprising microparticles, comprising the steps of: a) producing a solution comprising a hydrophobic polymer, a hydrophobic pharmaceutically active ingredient and hydrophobic solvent, b1) providing a hydrophilic polymer and providing a hydrophilic solvent immiscible with the solvent from a), or b2) providing a solution comprising a hydrophilic polymer and a hydrophilic solvent immiscible with the solvent from a), c1) mixing the solution from a) with the hydrophilic polymer from b1) followed by the addition of the hydrophilic solvent from b1) immiscible with the solvent from a) to obtain an emulsion, or c2) mixing the solution from a) and the solution from b2) to obtain an emulsion, and d) spreading and drying the emulsion from c1) or c2) to obtain an oral thin film comprising microparticles. a) producing a solution comprising a hydrophobic polymer, a hydrophobic pharmaceutically active ingredient and hydrophobic solvent, b1) providing a hydrophilic polymer and providing a hydrophilic solvent immiscible with the solvent from a), or b2) providing a solution comprising a hydrophilic polymer and a hydrophilic solvent immiscible with the solvent from a), c1) mixing the solution from a) with the hydrophilic polymer from b1) followed by the addition of the hydrophilic solvent from b1) immiscible with the solvent from a) to obtain an emulsion, or c2) mixing the solution from a) and the solution from b2) to obtain an emulsion, and d) spreading and drying the emulsion from c1) or c2) to obtain an oral thin film comprising microparticles.
A method for condition monitoring an electrical equipment comprising: detecting partial discharge impulses generated in the electrical equipment for at least one power cycle; obtaining first data representing the detected partial discharge impulses for the at least one power cycle; obtaining second data by phase-resolving the first data; obtaining third data by regularizing the second data; characterised by : analyzing the third data into a first component and at least one second component; obtaining phase information of the first component; shifting the first component and the at least one second component in consideration of the obtained phase information; and generating a signal indicating a health state of the electrical equipment by comparing the shifted first and second components of the third data with their counterparts associated with an unhealthy electrical equipment . detecting partial discharge impulses generated in the electrical equipment for at least one power cycle; obtaining first data representing the detected partial discharge impulses for the at least one power cycle; obtaining second data by phase-resolving the first data; obtaining third data by regularizing the second data; characterised by : analyzing the third data into a first component and at least one second component; obtaining phase information of the first component; shifting the first component and the at least one second component in consideration of the obtained phase information; and generating a signal indicating a health state of the electrical equipment by comparing the shifted first and second components of the third data with their counterparts associated with an unhealthy electrical equipment . analyzing the third data into a first component and at least one second component; obtaining phase information of the first component; shifting the first component and the at least one second component in consideration of the obtained phase information; and generating a signal indicating a health state of the electrical equipment by comparing the shifted first and second components of the third data with their counterparts associated with an unhealthy electrical equipment .
Use of a component for production of a fuel cell system, wherein the component has at least one surface intended to come into contact with a hydrogen atmosphere, wherein at least this surface is formed from steel, wherein the steel has a microstructure comprising austenite and ferrite, wherein an austenitic microstructure component is present within a range from not less than 1% by weight to not more than 50% by weight, and wherein a ferritic microstructure component is present within a range from not less than 50% by weight to not more than 99% by weight, wherein the steel is configured as an alloy having the following constituents: - carbon within a range from not less than 0.3% by weight to not more than 2.0% by weight; - silicon within a range from not less than 0.5% by weight to not more than 5.0% by weight; - manganese within a range from not less than 0.25% by weight to not more than 4.0% by weight; - chromium within a range from not less than 0.2% by weight to not more than 4.0% by weight; - molybdenum within a range from not less than 0% by weight to not more than 3.0% by weight; and - vanadium within a range from not less than 0% by weight to not more than 0.8% by weight; wherein the balance is formed by iron and unavoidable impurities. - carbon within a range from not less than 0.3% by weight to not more than 2.0% by weight; - silicon within a range from not less than 0.5% by weight to not more than 5.0% by weight; - manganese within a range from not less than 0.25% by weight to not more than 4.0% by weight; - chromium within a range from not less than 0.2% by weight to not more than 4.0% by weight; - molybdenum within a range from not less than 0% by weight to not more than 3.0% by weight; and - vanadium within a range from not less than 0% by weight to not more than 0.8% by weight;