mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a wind turbine , the method comprising: during an unconstrained operation of the wind turbine: determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and during a constrained operation of the wind turbine: controlling, using the available power value, the wind turbine to produce a second power production level; wherein the one or more available power correction factors are updated during unconstrained operation of the wind turbine, and are not updated during constrained operation of the wind turbine. during an unconstrained operation of the wind turbine: determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and during a constrained operation of the wind turbine: controlling, using the available power value, the wind turbine to produce a second power production level; wherein the one or more available power correction factors are updated during unconstrained operation of the wind turbine, and are not updated during constrained operation of the wind turbine.
A method of making a vacuum insulating panel , the vacuum insulating panel comprising a first glass substrate, a second glass substrate, a plurality of spacers provided in a gap between at least the first and second glass substrates, and a seal provided at least partially between at least the first and second glass substrates, the seal comprising a first seal layer and a second seal layer; wherein the method comprises: firing and/or sintering second seal material to form the second seal layer; providing first seal material for the first seal layer in a location contacting the second seal layer; laser heating, using a laser beam from a continuous wave laser , the first seal material in order to form the first seal layer ; wherein said laser heating comprises causing the laser beam to move at a lateral speed of from about 5-70 mm/second relative to the substrates and the first seal material so that the laser beam at least partially passes through at least one of the glass substrates and impinges upon at least the second seal layer in order to heat the second seal layer and fire and/or sinter the first seal material thereby forming the first seal layer , in a manner so that at least one of (i) induced transient thermal stress in the first seal layer does not exceed about 25 MPa, and/or (ii) the first seal layer has a density of from about 2.8-4.0 g/cm 3 ; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure. firing and/or sintering second seal material to form the second seal layer; providing first seal material for the first seal layer in a location contacting the second seal layer; laser heating, using a laser beam from a continuous wave laser , the first seal material in order to form the first seal layer ; wherein said laser heating comprises causing the laser beam to move at a lateral speed of from about 5-70 mm/second relative to the substrates and the first seal material so that the laser beam at least partially passes through at least one of the glass substrates and impinges upon at least the second seal layer in order to heat the second seal layer and fire and/or sinter the first seal material thereby forming the first seal layer , in a manner so that at least one of (i) induced transient thermal stress in the first seal layer does not exceed about 25 MPa, and/or (ii) the first seal layer has a density of from about 2.8-4.0 g/cm 3 ; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure.
A spectacle lens configured to be positioned in front of a human eye at a given distance from the eye so as to apply to rays of optical radiation that are incident on the eye through the spectacle lens a refractive phase modulation profile φ(x) as a function of a position x across the lens about a central point x = 0, whereby the rays that are incident on the eye at the given distance from the lens pass through the lens at respective angles of incidence α(x), wherein the lens includes an optical device , the optical device comprising: an electro-optical layer , having an effective local index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; conductive electrodes disposed over opposing first and second side of the electro-optical layer; and control circuitry , which is configured to apply control voltage waveforms V(x) between the conductive electrodes so as to generate the refractive phase modulation profile in the electro-optical layer to cause the rays of optical radiation that are incident on the device to converge or diverge with a given focal power; characterized in that the control circuitry is configured to vary the respective amplitudes of the control voltage waveforms for the given focal power as a function of the position x over the active area of the electro-optical layer responsively to a mapping of the angles of incidence α(x) of the rays that impinge on the device at each position x over the active area of the electro-optical layer. an electro-optical layer , having an effective local index of refraction at any given location within an active area of the electro-optical layer that is determined by a voltage waveform applied across the electro-optical layer at the location; conductive electrodes disposed over opposing first and second side of the electro-optical layer; and control circuitry , which is configured to apply control voltage waveforms V(x) between the conductive electrodes so as to generate the refractive phase modulation profile in the electro-optical layer to cause the rays of optical radiation that are incident on the device to converge or diverge with a given focal power; characterized in that the control circuitry is configured to vary the respective amplitudes of the control voltage waveforms for the given focal power as a function of the position x over the active area of the electro-optical layer responsively to a mapping of the angles of incidence α(x) of the rays that impinge on the device at each position x over the active area of the electro-optical layer.
A laminated substrate with a piezoelectric thin film, comprising: a substrate ; an electrode film formed on the substrate; and a piezoelectric thin film formed on the electrode film, wherein the piezoelectric thin film is made of an alkali niobium oxide represented by a composition formula of (K 1-x Na x )NbO 3 with 0 < x < 1, having a perovskite structure, and oriented preferentially in plane direction, characterised in that the piezoelectric thin film contains Cu at a concentration of 0.2 at% or more and 0.6 at% or less. a substrate ; an electrode film formed on the substrate; and a piezoelectric thin film formed on the electrode film, wherein the piezoelectric thin film is made of an alkali niobium oxide represented by a composition formula of (K 1-x Na x )NbO 3 with 0 < x < 1, having a perovskite structure, and oriented preferentially in plane direction, characterised in that the piezoelectric thin film contains Cu at a concentration of 0.2 at% or more and 0.6 at% or less.
A resonator gyroscope comprising: a sensing system comprising a plurality of electrodes arranged about a sensitive axis and configured to electrostatically force a resonator into a substantially periodic motion based on a plurality of forcer signals (FRC) applied to the plurality of electrodes , and configured to provide an indication of rotation (ROT) about a sensitive axis of the resonator gyroscope ; and a controller configured to generate the plurality of forcer signals (FRC) to provide the substantially periodic motion of the resonator concurrently in each of a plurality of separate vibration pattern modes having different frequencies and to measure the rotation (ROT) of the resonator gyroscope about the sensitive axis in response to a plurality of pickoff signals (PO) associated with the substantially periodic motion in a first of the vibration pattern modes ; characterised in that the controller is further configured to concurrently calibrate the resonator gyroscope in a second of the vibration pattern modes. a sensing system comprising a plurality of electrodes arranged about a sensitive axis and configured to electrostatically force a resonator into a substantially periodic motion based on a plurality of forcer signals (FRC) applied to the plurality of electrodes , and configured to provide an indication of rotation (ROT) about a sensitive axis of the resonator gyroscope ; and a controller configured to generate the plurality of forcer signals (FRC) to provide the substantially periodic motion of the resonator concurrently in each of a plurality of separate vibration pattern modes having different frequencies and to measure the rotation (ROT) of the resonator gyroscope about the sensitive axis in response to a plurality of pickoff signals (PO) associated with the substantially periodic motion in a first of the vibration pattern modes ; characterised in that the controller is further configured to concurrently calibrate the resonator gyroscope in a second of the vibration pattern modes.
A system for utilizing local flavor content data in a mobile device , the system comprising: a detection device configured for detecting the presence of a mobile device at a designated area ; and a backend server configured for receiving a location identifier associated with the designated area and a mobile device user identifier associated with the mobile device , for utilizing the location identifier to obtain local flavor content data, for providing the local flavor content data to the mobile device using the mobile device user identifier, wherein the local flavor content data provides customized information specific to the designated area , and for applying the local flavor content data to a generic application in the mobile device to generate a local flavor application that is customized for use at the designated area , characterized in that the generic application includes a generic electronic payment card application that converts, upon applying the local flavor content data to the generic application , into a merchant specific payment card application that is customized for use at the designated area , wherein the mobile device user identifier is registered with the merchant entity and is used by the detection device to wirelessly detect the mobile device entering or activated within the designated area. a detection device configured for detecting the presence of a mobile device at a designated area ; and a backend server configured for receiving a location identifier associated with the designated area and a mobile device user identifier associated with the mobile device , for utilizing the location identifier to obtain local flavor content data, for providing the local flavor content data to the mobile device using the mobile device user identifier, wherein the local flavor content data provides customized information specific to the designated area , and for applying the local flavor content data to a generic application in the mobile device to generate a local flavor application that is customized for use at the designated area , characterized in that the generic application includes a generic electronic payment card application that converts, upon applying the local flavor content data to the generic application , into a merchant specific payment card application that is customized for use at the designated area , wherein the mobile device user identifier is registered with the merchant entity and is used by the detection device to wirelessly detect the mobile device entering or activated within the designated area.
A docking station for an ultrasonic system that can be easily operated by a patient, the docking station comprising: i. a cavity adapted to accept and position a smart device in the docking station ; ii. a socket at the bottom of the cavity ; iii. a connector located in the socket ; and iv. an ultrasonic array ; wherein, when the smart device is inserted into the cavity and mechanically connected to the docking station , the docking station and the smart device can be moved as a single unit by the patient to examine, measure, or monitor his/her internal organs; and the docking station characterized in that : A) the ultrasonic array is located on the bottom outer surface of the docking station and the socket is located at the bottom of the cavity inside the docking station ; and B) the cavity and the connector in the socket are configured to mechanically connect the smart device to the docking station and the connector is configured to electrically connect electronics of the ultrasonic array located inside the docking station to a data input port of the smart device . i. a cavity adapted to accept and position a smart device in the docking station ; ii. a socket at the bottom of the cavity ; iii. a connector located in the socket ; and iv. an ultrasonic array ; wherein, when the smart device is inserted into the cavity and mechanically connected to the docking station , the docking station and the smart device can be moved as a single unit by the patient to examine, measure, or monitor his/her internal organs; and the docking station characterized in that : A) the ultrasonic array is located on the bottom outer surface of the docking station and the socket is located at the bottom of the cavity inside the docking station ; and B) the cavity and the connector in the socket are configured to mechanically connect the smart device to the docking station and the connector is configured to electrically connect electronics of the ultrasonic array located inside the docking station to a data input port of the smart device . A) the ultrasonic array is located on the bottom outer surface of the docking station and the socket is located at the bottom of the cavity inside the docking station ; and B) the cavity and the connector in the socket are configured to mechanically connect the smart device to the docking station and the connector is configured to electrically connect electronics of the ultrasonic array located inside the docking station to a data input port of the smart device .
A multi-mode fiber that comprises a rare-earth-ion-doped core and that has a normalized frequency of not less than 2.40, the multi-mode fiber comprising: a remainder portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form; and a filter portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form, the multi-mode fiber having opposite ends, one of the opposite ends being arranged to receive incoming seed light and serving as an entrance end, the filter portion being positioned on an entrance-end side of the remainder portion , a largest diameter of the filter portion being smaller than a smallest diameter of the remainder portion , the smallest diameter of the filter portion being set so that only LP01, LP11, LP21, and LP02 modes propagate or only LP01 and LP11 modes propagate and a loss of a highest-order one of the modes that propagate is not more than 0.1 dB/m. the multi-mode fiber comprising: a remainder portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form; and a filter portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form, the multi-mode fiber having opposite ends, one of the opposite ends being arranged to receive incoming seed light and serving as an entrance end, the filter portion being positioned on an entrance-end side of the remainder portion , a largest diameter of the filter portion being smaller than a smallest diameter of the remainder portion , a remainder portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form; and a filter portion that is formed by bending a partial section of the multi-mode fiber in a loop form, a coil form, or an arc form, the multi-mode fiber having opposite ends, one of the opposite ends being arranged to receive incoming seed light and serving as an entrance end, the filter portion being positioned on an entrance-end side of the remainder portion , a largest diameter of the filter portion being smaller than a smallest diameter of the remainder portion , the smallest diameter of the filter portion being set so that only LP01, LP11, LP21, and LP02 modes propagate or only LP01 and LP11 modes propagate and a loss of a highest-order one of the modes that propagate is not more than 0.1 dB/m.
An apparatus, comprising: an adapter configured to be removably coupled to at least a portion of at least one of a medicament delivery device or a simulated medicament delivery device, the adapter defining a cavity within which the portion of the medicament delivery device or the simulated medicament delivery device is received; and an electronic circuit system coupled to the adapter, the electronic circuit system including a power source, a radio , and a sensor , the radio configured to electronically communicate with a computing device via a wireless protocol, the sensor configured to detect when the portion of the medicament delivery device or the simulated medicament delivery device is within the cavity of the adapter, the radio operating according to a first communication mode associated with a first power consumption when the portion of the medicament delivery device or the simulated medicament delivery device is within the adapter, characterised in that the radio operating according to a second communication mode associated with a second power consumption when the portion of the medicament delivery device or the simulated medicament delivery device is physically separated from the adapter, the second power consumption different from the first power consumption. an adapter configured to be removably coupled to at least a portion of at least one of a medicament delivery device or a simulated medicament delivery device, the adapter defining a cavity within which the portion of the medicament delivery device or the simulated medicament delivery device is received; and an electronic circuit system coupled to the adapter, the electronic circuit system including a power source, a radio , and a sensor , the radio configured to electronically communicate with a computing device via a wireless protocol, the sensor configured to detect when the portion of the medicament delivery device or the simulated medicament delivery device is within the cavity of the adapter, the radio operating according to a first communication mode associated with a first power consumption when the portion of the medicament delivery device or the simulated medicament delivery device is within the adapter, characterised in that the radio operating according to a second communication mode associated with a second power consumption when the portion of the medicament delivery device or the simulated medicament delivery device is physically separated from the adapter, the second power consumption different from the first power consumption.
A decorative body made of a copper-containing platinum alloy, characterized in that the platinum alloy consists of at least 58.0 wt.% platinum, at least 35.0 wt.% copper and at least 0.06 wt.% manganese. characterized in that the platinum alloy consists of at least 58.0 wt.% platinum, at least 35.0 wt.% copper and at least 0.06 wt.% manganese.
A body side unit configured to attach a wire harness wired between a vehicle body and a slide door to the vehicle body, the body side unit comprising: a body side attachment portion that is attached to the wire harness ; a body side fixing portion that supports the body side attachment portion rotatably and movably in an up-down direction orthogonal to an advancing direction and a width direction, and that is fixed to the vehicle body; and a biasing member (C) that is provided between the body side attachment portion and the body side fixing portion , and that biases the body side attachment portion such that the body side attachment portion faces downward in the up-down direction. a body side attachment portion that is attached to the wire harness ; a body side fixing portion that supports the body side attachment portion rotatably and movably in an up-down direction orthogonal to an advancing direction and a width direction, and that is fixed to the vehicle body; and a biasing member (C) that is provided between the body side attachment portion and the body side fixing portion , and that biases the body side attachment portion such that the body side attachment portion faces downward in the up-down direction.