mhurhangee/ep-ind-claims huggingface dataset:
An environmental control system for an aircraft having particulates in air therein, wherein the particulates are present at varying concentrations at different phases of aircraft operation, the ECS including a sensor, an air purification subsystem, and a controller in communication with the sensor and air purification subsystem, wherein: the sensor is configured to detect particulates in the air and to generate a particulate concentration signal; the ECS being characterized in that the controller is configured to compare the particulate concentration signal to (a) data of particulate concentration at different phases of aircraft operation and to (b) data of predicted particulate concentration threshold versus population percentiles; wherein the predicted particulate concentration is based on a best fit between a model concentration plot and an actual concentration plot; wherein the predicted particulate concentration threshold is based on one of a probability range of 0.3 to 0.8 of odor detection, a probability range of 0.6 to 0.8 of sensory irritancy detection, and a combination thereof; and when the particulate concentration signal reaches the predicted particulate concentration threshold at any one of the phases of aircraft operation, commands the air purification subsystem to alter a condition in the air containing the particulates. the sensor is configured to detect particulates in the air and to generate a particulate concentration signal; the ECS being characterized in that the controller is configured to compare the particulate concentration signal to (a) data of particulate concentration at different phases of aircraft operation and to (b) data of predicted particulate concentration threshold versus population percentiles; wherein the predicted particulate concentration is based on a best fit between a model concentration plot and an actual concentration plot; wherein the predicted particulate concentration threshold is based on one of a probability range of 0.3 to 0.8 of odor detection, a probability range of 0.6 to 0.8 of sensory irritancy detection, and a combination thereof; and when the particulate concentration signal reaches the predicted particulate concentration threshold at any one of the phases of aircraft operation, commands the air purification subsystem to alter a condition in the air containing the particulates.
A receiver configured to reduce distortion in a processed signal, the receiver comprising: a pair of quadrature receiver paths (402, 404) configured to process a received analog signal into a processed digital signal; a conjugate unit configured to identify a conjugate of the processed digital signal; an adaptation module including a filter bank, the adaptation module configured to identify a set of weighting factors for a plurality of narrower bands of frequencies of the conjugate of the processed digital signal based on a frequency dependent distortion identified using the filter bank, wherein the filter bank identifies the frequency dependent distortion for each of the plurality of narrower bands of frequencies; a weighting module configured to apply the set of weighting factors to the conjugate of the processed digital signal to form a weighted signal and subtract the weighted signal from the processed digital signal to reduce the distortion and form a balanced signal; and a decoder configured to decode the balanced signal, wherein the weighting module comprises a finite impulse response, FIR, filter including one or more taps, a number of taps being determined based on a bandwidth of the received analog signal, and wherein the adaptation module further configured to identify a complex correlation statistic from the balanced signal and adapt coefficients of the FIR filter using an adaptation algorithm based on the complex correlation statistic. a pair of quadrature receiver paths (402, 404) configured to process a received analog signal into a processed digital signal; a conjugate unit configured to identify a conjugate of the processed digital signal; an adaptation module including a filter bank, the adaptation module configured to identify a set of weighting factors for a plurality of narrower bands of frequencies of the conjugate of the processed digital signal based on a frequency dependent distortion identified using the filter bank, wherein the filter bank identifies the frequency dependent distortion for each of the plurality of narrower bands of frequencies; a weighting module configured to apply the set of weighting factors to the conjugate of the processed digital signal to form a weighted signal and subtract the weighted signal from the processed digital signal to reduce the distortion and form a balanced signal; and a decoder configured to decode the balanced signal, wherein the weighting module comprises a finite impulse response, FIR, filter including one or more taps, a number of taps being determined based on a bandwidth of the received analog signal, and wherein the adaptation module further configured to identify a complex correlation statistic from the balanced signal and adapt coefficients of the FIR filter using an adaptation algorithm based on the complex correlation statistic.
An accessory comprising: a power pin operable to provide a voltage to a host device; a data pin operable to receive an instruction from the host device; and characterized by power limiting circuitry operable to: alter an impedance of a power path between a power source and the host device in response to receiving an instruction from the host device; and reduce the voltage provided to the host device from the power source when a threshold amount of current is drawn through the power limiting circuitry. a power pin operable to provide a voltage to a host device; a data pin operable to receive an instruction from the host device; and characterized by power limiting circuitry operable to: alter an impedance of a power path between a power source and the host device in response to receiving an instruction from the host device; and reduce the voltage provided to the host device from the power source when a threshold amount of current is drawn through the power limiting circuitry. alter an impedance of a power path between a power source and the host device in response to receiving an instruction from the host device; and reduce the voltage provided to the host device from the power source when a threshold amount of current is drawn through the power limiting circuitry.
A dry building material mixture for producing an insulation plaster, characterised in that the dry building material mixture contains an aerogel in amounts of 5 to 35 wt.% with respect to the dry building material mixture, at least one lightweight aggregate, in particular perlite, in amounts of 40 to 75 wt.% with respect to the dry building material mixture, at least one lime-based binder, in particular hydraulic lime, in amounts of 8 to 40 wt.% with respect to the dry building material mixture, at least one cement-based binder, in particular white cement, in amounts of 1.5 to 10 wt.%, with respect to the dry building material mixture, and at least one additive in amounts of 0.1 to 5 wt.% with respect to the dry building material mixture, wherein the dry building material mixture contains the aerogel and the light aggregate in a weight-based ratio of aerogel to lightweight aggregate of 1:1 to 1:13, and wherein the dry building material mixture contains the lime-based binder and the cement-based binder in a weight-based ratio of lime-based binder to cement-based binder of from 1:1 to 15:1. an aerogel in amounts of 5 to 35 wt.% with respect to the dry building material mixture, at least one lightweight aggregate, in particular perlite, in amounts of 40 to 75 wt.% with respect to the dry building material mixture, at least one lime-based binder, in particular hydraulic lime, in amounts of 8 to 40 wt.% with respect to the dry building material mixture, at least one cement-based binder, in particular white cement, in amounts of 1.5 to 10 wt.%, with respect to the dry building material mixture, and at least one additive in amounts of 0.1 to 5 wt.% with respect to the dry building material mixture,
A method for controlling device transmission power by an electronic device, the method comprising: performing Wi-Fi communication at a first transmission power using a first communication module; performing cellular communication using a second communication module; determining whether a call is performed via cellular communication by a receiver of the electronic device; if it is determined that a call is not performed by the receiver, maintaining a transmission power of the first communication module at the first transmission power; and if it is determined that a call is performed by the receiver, determining, via at least one sensor, whether the electronic device is in contact with a user, and adjusting a transmission power of the first communication module from the first transmission power to a second transmission power when the electronic device is determined, by the at least one sensor, to contact the user. performing Wi-Fi communication at a first transmission power using a first communication module; performing cellular communication using a second communication module; determining whether a call is performed via cellular communication by a receiver of the electronic device; if it is determined that a call is not performed by the receiver, maintaining a transmission power of the first communication module at the first transmission power; and
Method for the preparation of capsules of aqueous substances, characterised in that it comprises the following steps: a) mixing a source of ions of an alkaline earth metal selected from calcium and magnesium with an aqueous substance to be encapsulated, wherein the aqueous substance to be encapsulated is a liquid food product selected from fruit juices and pastes, milk products, infusions, vinegars, spirit drinks, wines, alcoholic beverages, fermented juices (for example, of soya), or any water-based substance in liquid state or resulting from the extraction of any type of solid whose juice has a aqueous content; b) forming a drop or drops of the mixture of step (a) and introducing said drop or drops into an aqueous solution containing a non-calcium alginate, said aqueous solution of non-calcium alginate comprising an oily interface in the form of a buffering layer, wherein the buffering oily layer is totally dispersed in the alginate solution in order to form the capsules; c) incubating the capsules formed in step (b) in suspension for a time of between 2 seconds and 2 hours; d) washing, draining and packaging the capsules. a) mixing a source of ions of an alkaline earth metal selected from calcium and magnesium with an aqueous substance to be encapsulated, wherein the aqueous substance to be encapsulated is a liquid food product selected from fruit juices and pastes, milk products, infusions, vinegars, spirit drinks, wines, alcoholic beverages, fermented juices (for example, of soya), or any water-based substance in liquid state or resulting from the extraction of any type of solid whose juice has a aqueous content; b) forming a drop or drops of the mixture of step (a) and introducing said drop or drops into an aqueous solution containing a non-calcium alginate, said aqueous solution of non-calcium alginate comprising an oily interface in the form of a buffering layer, wherein the buffering oily layer is totally dispersed in the alginate solution in order to form the capsules; c) incubating the capsules formed in step (b) in suspension for a time of between 2 seconds and 2 hours; d) washing, draining and packaging the capsules.
A composition for use in treating pulmonary arterial hypertension, wherein the composition comprises an ActRIIA polypeptide comprising an amino acid sequence that is at least 80% identical to the amino acid sequence of SEQ ID NO: 32.
A method for rendering graphics in a three-dimensional virtual environment corresponding to a physical environment surrounding a vehicle, comprising: generating with at least one camera in an in-vehicle information system data corresponding to a plurality of photographs of the physical environment surrounding the vehicle taken in a plurality of directions extending outward from the vehicle; generating with at least one sensor in the in-vehicle information system sensor data corresponding to a shape, relative distance from the vehicle, and a direction from the vehicle of an object in the physical environment; generating with a processor in the in-vehicle information system a default three-dimensional projection surface centered around a virtual representation of the vehicle in a virtual environment; generating with the processor a first polygon model data corresponding to the shape of the object in the sensor data; deforming with the processor the three-dimensional projection surface with reference to the first polygon model data for the object at a location in the virtual environment corresponding to the relative distance and direction of the object in the sensor data; projecting with the processor the plurality of photographs onto the deformed three-dimensional projection surface; and displaying with a display device in the in-vehicle information system graphics corresponding to the deformed three-dimensional projection surface with the plurality of projected photographs. generating with at least one camera in an in-vehicle information system data corresponding to a plurality of photographs of the physical environment surrounding the vehicle taken in a plurality of directions extending outward from the vehicle; generating with at least one sensor in the in-vehicle information system sensor data corresponding to a shape, relative distance from the vehicle, and a direction from the vehicle of an object in the physical environment; generating with a processor in the in-vehicle information system a default three-dimensional projection surface centered around a virtual representation of the vehicle in a virtual environment; generating with the processor a first polygon model data corresponding to the shape of the object in the sensor data; deforming with the processor the three-dimensional projection surface with reference to the first polygon model data for the object at a location in the virtual environment corresponding to the relative distance and direction of the object in the sensor data; projecting with the processor the plurality of photographs onto the deformed three-dimensional projection surface; and displaying with a display device in the in-vehicle information system graphics corresponding to the deformed three-dimensional projection surface with the plurality of projected photographs.
A process for the preparation of the compound of formula I wherein P is phenyl, naphthyl, a 6-membered heteroaryl group containing one or two nitrogen atoms as ring members, or a 10-membered bicyclic heteroaryl group containing one or two nitrogen atoms as ring members, and wherein the phenyl, naphthyl and heteroaryl groups are optionally substituted; R 1 is chlorodifluoromethyl or trifluoromethyl; R 2 is optionally substituted aryl or optionally substituted heteroaryl; n is 0 or 1; comprising (a-i) reacting a compound of formula II wherein P, R 1 and R 2 are as defined for the compound of formula I; with nitromethane in the presence a chiral catalyst to give a compound of formula III wherein P, R 1 and R 2 are as defined for the compound of formula I; and (a-ii) reductively cyclising the compound of formula III to give the compound of formula I; wherein the chiral catalyst is a chiral cinchona alkaloid derivative. P is phenyl, naphthyl, a 6-membered heteroaryl group containing one or two nitrogen atoms as ring members, or a 10-membered bicyclic heteroaryl group containing one or two nitrogen atoms as ring members, and wherein the phenyl, naphthyl and heteroaryl groups are optionally substituted; R 1 is chlorodifluoromethyl or trifluoromethyl; R 2 is optionally substituted aryl or optionally substituted heteroaryl; n is 0 or 1; comprising (a-i) reacting a compound of formula II wherein P, R 1 and R 2 are as defined for the compound of formula I; with nitromethane in the presence a chiral catalyst to give a compound of formula III wherein P, R 1 and R 2 are as defined for the compound of formula I; and (a-ii) reductively cyclising the compound of formula III to give the compound of formula I; wherein the chiral catalyst is a chiral cinchona alkaloid derivative.
A system for automated operation of a host-vehicle, said system comprising: a controller configured to operate the host-vehicle during automated operation of the host-vehicle and do so in accordance with a parameter stored in the controller, determine when an operator of the host-vehicle uses a vehicle-control-input to override the controller and thereby manually operate the host-vehicle in a manner different from that which is in accordance with the parameter stored in the controller for use by the controller during future automated operation of the host-vehicle, wherein the parameter is modified based on the manner of the operator, characterized by a path-planner device used by the controller to select a host-travel-lane for the host-vehicle based on a lane-preference-parameter, and characterized in that the controller is configured to modify the lane-preference-parameter when the operator operates the host-vehicle to steer the host-vehicle into a different-lane. a controller configured to operate the host-vehicle during automated operation of the host-vehicle and do so in accordance with a parameter stored in the controller, determine when an operator of the host-vehicle uses a vehicle-control-input to override the controller and thereby manually operate the host-vehicle in a manner different from that which is in accordance with the parameter stored in the controller for use by the controller during future automated operation of the host-vehicle, wherein the parameter is modified based on the manner of the operator, characterized by a path-planner device used by the controller to select a host-travel-lane for the host-vehicle based on a lane-preference-parameter, and characterized in that the controller is configured to modify the lane-preference-parameter when the operator operates the host-vehicle to steer the host-vehicle into a different-lane.
A conversion circuit for supplying an output voltage after converting an input voltage, wherein the conversion circuit comprises a first and second input voltage terminals configured to receive the input voltage, and first and second output voltage terminals configured to supply the output voltage, with the second input voltage terminal connected to the second output voltage terminal, the conversion circuit further comprising: a full-bridge circuit comprising a first bridge arm and a second bridge arm connected in parallel and electrically connected between the first end and the second end of the output voltage; a first switch branch electrically connected between the first end of the input voltage and the first end of the output voltage, and comprising a first switch and a second switch connected in series to form a first connection node; a first resonant unit electrically connected between the first connection node and a midpoint of the first bridge arm; and a first transformer (Tr), comprising: a first primary winding connected in series with the first resonant unit; and a first secondary winding connected between the midpoint of the first bridge arm and a midpoint of the second bridge arm; a full-bridge circuit comprising a first bridge arm and a second bridge arm connected in parallel and electrically connected between the first end and the second end of the output voltage; a first switch branch electrically connected between the first end of the input voltage and the first end of the output voltage, and comprising a first switch and a second switch connected in series to form a first connection node; a first resonant unit electrically connected between the first connection node and a midpoint of the first bridge arm; and a first transformer (Tr), comprising: a first primary winding connected in series with the first resonant unit; and a first secondary winding connected between the midpoint of the first bridge arm and a midpoint of the second bridge arm; a first primary winding connected in series with the first resonant unit; and a first secondary winding connected between the midpoint of the first bridge arm and a midpoint of the second bridge arm;
A method of dyeing a lens made of a material that will turn yellow by heat for fixing a dye, comprising the steps of: (a) applying a dyeing ink containing a sublimable dye onto a base material to produce a dyeing base body having a dyeing area applied with no ink as compared with a dyeing area on a dyeing base body for substantially uniformly dyeing the entire lens surface; (b) placing the dyeing base body and the lens so that a dye-applied surface of the dyeing base body and a surface of the lens to be dyed face each other in noncontact relation, and heating the dyeing base body under substantially a vacuum condition to sublimate and deposit the applied dye of the dyeing area on the dyeing base body on the lens surface; and (c) heating the dye-deposited surface of the lens by irradiation of an infrared ray from one direction to fix the deposited dye on the lens, characterized by wherein the dye-deposited surface of the lens obtained in the depositing step (b) includes a dye-deposited area and a dye-non-deposited area, the fixing step (c) includes irradiating the infrared ray onto the dye-deposited area while restraining the irradiation of the infrared ray onto the dye-non-deposited area. (a) applying a dyeing ink containing a sublimable dye onto a base material to produce a dyeing base body having a dyeing area applied with no ink as compared with a dyeing area on a dyeing base body for substantially uniformly dyeing the entire lens surface; (b) placing the dyeing base body and the lens so that a dye-applied surface of the dyeing base body and a surface of the lens to be dyed face each other in noncontact relation, and heating the dyeing base body under substantially a vacuum condition to sublimate and deposit the applied dye of the dyeing area on the dyeing base body on the lens surface; and (c) heating the dye-deposited surface of the lens by irradiation of an infrared ray from one direction to fix the deposited dye on the lens,