mhurhangee/patent-ind-claim-en huggingface dataset:
A method of driving speaker arrays , comprising: receiving a first sound program content by a first audio source and a second sound program content by a second audio source , wherein the first sound program content is designated to be played in a first zone within a listening area and the second sound program content is designated to be played in a second zone within the listening area; determining parameters describing the first zone based on a first location of the first audio source ; determining parameters describing the second zone based on a second location of the second audio source ; determining parameters describing locations of a first speaker array having first transducers in a first cabinet and a second speaker array having second transducers in a second cabinet movable relative to the first cabinet; generating one or more sets of audio beam pattern attributes based on the determined parameters describing the first zone , the second zone , and the locations of the first speaker array and the second speaker array ; and driving the first speaker array and the second speaker array with the one or more sets of audio beam pattern attributes such that each speaker array directs respective audio beams corresponding to one or more channels of the first sound program content and the second sound program content to the first zone and the second zone in the listening area. receiving a first sound program content by a first audio source and a second sound program content by a second audio source , wherein the first sound program content is designated to be played in a first zone within a listening area and the second sound program content is designated to be played in a second zone within the listening area; determining parameters describing the first zone based on a first location of the first audio source ; determining parameters describing the second zone based on a second location of the second audio source ; determining parameters describing locations of a first speaker array having first transducers in a first cabinet and a second speaker array having second transducers in a second cabinet movable relative to the first cabinet; generating one or more sets of audio beam pattern attributes based on the determined parameters describing the first zone , the second zone , and the locations of the first speaker array and the second speaker array ; and driving the first speaker array and the second speaker array with the one or more sets of audio beam pattern attributes such that each speaker array directs respective audio beams corresponding to one or more channels of the first sound program content and the second sound program content to the first zone and the second zone in the listening area.
A grease composition for use in constant velocity joints comprising a) at least one base oil; b) at least one thickener; c) zinc sulfide in an amount between 0,05 wt-% ±10 % and 2,0 wt-% ±10 %, the wt-% referring to the total amount of the grease composition; d) at least one copper sulfide in an amount between 0,01 wt-% ±10 % and 1,5 wt-% ±10 %, the wt-% referring to the total amount of the grease composition; and e) molybdenum disulfide and/or tungsten disulfide in an amount between 0,5 wt-% ±10 % and 5,0 wt-% ±10 %, the wt-% referring to the total amount of the grease composition. a) at least one base oil; b) at least one thickener; c) zinc sulfide in an amount between 0,05 wt-% ±10 % and 2,0 wt-% ±10 %, the wt-% referring to the total amount of the grease composition; d) at least one copper sulfide in an amount between 0,01 wt-% ±10 % and 1,5 wt-% ±10 %, the wt-% referring to the total amount of the grease composition; and e) molybdenum disulfide and/or tungsten disulfide in an amount between 0,5 wt-% ±10 % and 5,0 wt-% ±10 %, the wt-% referring to the total amount of the grease composition.
A tool for machining a groove of a rotation-symmetric component, preferably a piston of an internal combustion engine, wherein the machining is carried out by a rotation of the tool around an axis of symmetry of the rotation-symmetric component to be machined, wherein • the tool comprises at least one arm which is disposed in such a way that a circumference of the rotation-symmetric component can at least be partially enclosed, • wherein a machining device for machining of the groove is provided on the at least one arm , wherein at least one first adjusting device is provided, with the help of which a contact force on the rotation-symmetric component of the at least one machining device can be selected, and wherein the tool comprises a second adjusting device, with which the tool can be adapted to different diameters of a rotation-symmetric component, characterized in that the first adjusting device comprises a first and a second half shell , whose distance to one another can be adjusted by a first control element and locked by a second control element . • the tool comprises at least one arm which is disposed in such a way that a circumference of the rotation-symmetric component can at least be partially enclosed, • wherein a machining device for machining of the groove is provided on the at least one arm ,
A system comprising an additive printing device for additively manufacturing a tower structure for a wind turbine , the system further comprising a foundation or a ground surface for the tower structure and the tower structure ; the additive printing device comprising: a vertical support structure extending from the foundation or ground surface and being positioned at least partially above the tower structure along a vertical direction (V); a support ring suspended from the vertical support structure ; a printer head movably coupled to the support ring , the printer head configured for moving around a perimeter of the support ring while selectively depositing cementitious material to form the tower structure ; a drive mechanism operably coupling the printer head to the support ring , the drive mechanism configured for moving the printer head around the perimeter of the support ring ; a nozzle coupled to the printer head , the nozzle being independently movable relative to the printer head; and an adjustment mechanism for adjusting the position of the nozzle on the printer head . a vertical support structure extending from the foundation or ground surface and being positioned at least partially above the tower structure along a vertical direction (V); a support ring suspended from the vertical support structure ; a printer head movably coupled to the support ring , the printer head configured for moving around a perimeter of the support ring while selectively depositing cementitious material to form the tower structure ; a drive mechanism operably coupling the printer head to the support ring , the drive mechanism configured for moving the printer head around the perimeter of the support ring ; a nozzle coupled to the printer head , the nozzle being independently movable relative to the printer head; and an adjustment mechanism for adjusting the position of the nozzle on the printer head .
A termination module for electrically connecting an electrical conductor of a power optical cable , comprising at least one electrical conductor and at least one buffered optical fiber , with a corresponding electrical conductor of a customer power cable , and optically connecting the buffered optical fiber with a corresponding optical fiber of a customer optical cable, said termination module comprising: - a first enclosure part comprising: an inlet opening for receiving said power optical cable , an electrical connector enabling electrically connecting the electrical conductors of the power optical cable with corresponding electrical conductors of the customer power cable , - a second enclosure part comprising: one or more optical connectors optically connecting the buffered optical fibers with one or more corresponding customer optical fibers of the customer optical cable, characterized by the fact that: - the first enclosure part is a fixed part comprising the inlet opening and an electric outlet opening for receiving said customer power cable , and - the second enclosure part is a movable part rotatably attached to the fixed part to move relative to the fixed part about a rotation axis (X-X) and comprising one or more optical outlet openings . - a first enclosure part comprising: an inlet opening for receiving said power optical cable , an electrical connector enabling electrically connecting the electrical conductors of the power optical cable with corresponding electrical conductors of the customer power cable , an inlet opening for receiving said power optical cable , an electrical connector enabling electrically connecting the electrical conductors of the power optical cable with corresponding electrical conductors of the customer power cable , - a second enclosure part comprising: one or more optical connectors optically connecting the buffered optical fibers with one or more corresponding customer optical fibers of the customer optical cable, - the first enclosure part is a fixed part comprising the inlet opening and an electric outlet opening for receiving said customer power cable , and - the second enclosure part is a movable part rotatably attached to the fixed part to move relative to the fixed part about a rotation axis (X-X) and comprising one or more optical outlet openings .
A method for detecting a motion state associated with a device, comprising: receiving information on WiFi connectivity of the device from periodic scans to detect WiFi access points, AP, within range of the device, the scans performed when the device is not connected to a WiFi AP; processing the information on WiFi connectivity of the device to set a probability that the device is in a first motion state based in part on whether common APs are found in consecutive scans when the device is not connected to a WiFi AP; receiving one or more sensor signals from one or more sensor devices, wherein characteristics of the one or more sensor signals reflect motion of the device; and processing by a motion classifier the one or more sensor signals aided by the probability that the device is in the first motion state to generate a final motion state for the device, wherein the probability is used to bias an outcome of the motion classifier. receiving information on WiFi connectivity of the device from periodic scans to detect WiFi access points, AP, within range of the device, the scans performed when the device is not connected to a WiFi AP; processing the information on WiFi connectivity of the device to set a probability that the device is in a first motion state based in part on whether common APs are found in consecutive scans when the device is not connected to a WiFi AP; receiving one or more sensor signals from one or more sensor devices, wherein characteristics of the one or more sensor signals reflect motion of the device; and processing by a motion classifier the one or more sensor signals aided by the probability that the device is in the first motion state to generate a final motion state for the device, wherein the probability is used to bias an outcome of the motion classifier.
An apparatus for detecting an analyte comprising, a monolithic crystal comprising a substrate portion and at least one oscillator ; a first electrode provided at a first location of the oscillator; a second electrode provided at a second location of the oscillator; a gap separating the oscillator from the substrate portion, exposing a side surface of the oscillator; and one or more tethers that extend across the gap so that the oscillator is supported by the substrate portion, characterized in that the apparatus is configured to enable the analyte to enter the gap, and wherein the side surface is functionalized to enable the analyte entering the gap to accumulate on the side surface of the oscillator. a monolithic crystal comprising a substrate portion and at least one oscillator ; a first electrode provided at a first location of the oscillator; a second electrode provided at a second location of the oscillator; a gap separating the oscillator from the substrate portion, exposing a side surface of the oscillator; and one or more tethers that extend across the gap so that the oscillator is supported by the substrate portion, characterized in that the apparatus is configured to enable the analyte to enter the gap, and wherein the side surface is functionalized to enable the analyte entering the gap to accumulate on the side surface of the oscillator.
A method of receiving media data performed by processing circuitry of an apparatus for receiving media data, the method comprising: receiving (S410) a media presentation description, MPD, file that includes an essential property descriptor indicating a session-based description, SBD, file, the essential property descriptor including an attribute that indicates a class for a uniform resource locator, URL request used for requesting a resource, the class identifying a type of the requested resource; generating (S420) the URL request based on the SBD file and the class indicated in the attribute included in the essential property descriptor; and sending (S430) the URL request to a server to request the resource of which the type is identified based on the class of the URL request, wherein the class of the URL request indicates that the URL request is one of a media segment request, an extensible markup language linking language, XLink, resolution request, an MPD request, a callback request that is triggered by a callback event, a chaining request for a chained-to MPD, or a fallback request for a fallback MPD. receiving (S410) a media presentation description, MPD, file that includes an essential property descriptor indicating a session-based description, SBD, file, the essential property descriptor including an attribute that indicates a class for a uniform resource locator, URL request used for requesting a resource, the class identifying a type of the requested resource; generating (S420) the URL request based on the SBD file and the class indicated in the attribute included in the essential property descriptor; and sending (S430) the URL request to a server to request the resource of which the type is identified based on the class of the URL request,
Method for carrying out an outside temperature-related control of a thermal property of at least a portion of a first building (H) by regulation of a supply temperature of a first heating or cooling system of the first building (H), wherein the control is carried out on the basis of the at least one thermal power indicative parameter, indicative of the heat consumption or of the cooling power of at least one second heating or cooling system of a second building (H', H", H′′′) being located at a distance from the first building, whereby the at least one thermal power indicative parameter is received via a data network , in particular, via the Internet characterized in that a first heating or cooling system of the first building (H) receives a leading signal indicative of a time derivative of the at least one thermal power indicative parameter from a data storage for regulating the at least one thermal power indicative parameter, wherein the distance (D', D", D′′′) of the at least one second building (H', H", H′′′) to the first building (H) is incorporated into the regulation of the at least one thermal power indicative parameter of the first heating or cooling system according to the leading signal.
A retrievable puncture anchor, comprising: a fixator with a cylindrical structure; a retrievable thread fixed to an end of the fixator ; and a push cable flexibly connected to a middle part of the fixator , wherein the fixator is axially provided with a concave plane configured for accommodating said push cable on said concave plane , characterised in that a threading protrusion is formed on a side of the concave plane of the fixator , the threading protrusion is axially provided with a through hole through which the push cable is passed, and the threading protrusion is integrally formed with the fixator . a fixator with a cylindrical structure; a retrievable thread fixed to an end of the fixator ; and a push cable flexibly connected to a middle part of the fixator , wherein the fixator is axially provided with a concave plane configured for accommodating said push cable on said concave plane , characterised in that a threading protrusion is formed on a side of the concave plane of the fixator , the threading protrusion is axially provided with a through hole through which the push cable is passed, and the threading protrusion is integrally formed with the fixator .
A process for selectively separating at least one first heavy metal having a first solubility of its sulfide from a liquid medium containing at least the first heavy metal in dissolved form, by: (a) contacting the liquid medium with a precipitate of a sulfide of at least one second heavy metal, said sulfide of the at least one second heavy metal having a second solubility, said second solubility being higher than said first solubility, in a first reactor, to produce a precipitate of a sulfide of the at least one first heavy metal and a solution containing the at least one second heavy metal; (b) separating the precipitate of the at least one first heavy metal sulfide from the solution containing the at least one second heavy metal; (c) contacting the solution of the at least one second heavy metal with a source of sulfide produced by biological conversion of a sulfur compound, in a second reactor, to produce a precipitate of a sulfide of the at least one second heavy metal and a treated solution, and (d) returning at least part of the precipitate of the sulfide of the at least one second heavy metal to step (a). (a) contacting the liquid medium with a precipitate of a sulfide of at least one second heavy metal, said sulfide of the at least one second heavy metal having a second solubility, said second solubility being higher than said first solubility, in a first reactor, to produce a precipitate of a sulfide of the at least one first heavy metal and a solution containing the at least one second heavy metal; (b) separating the precipitate of the at least one first heavy metal sulfide from the solution containing the at least one second heavy metal; (c) contacting the solution of the at least one second heavy metal with a source of sulfide produced by biological conversion of a sulfur compound, in a second reactor, to produce a precipitate of a sulfide of the at least one second heavy metal and a treated solution, and (d) returning at least part of the precipitate of the sulfide of the at least one second heavy metal to step (a).
A steel fiber adapted for the reinforcement of a cementitious matrix, said steel fiber being provided with a zinc aluminium alloy coating, the amount of aluminium in the coating ranging from 0.05 wt% to 0.5 wt%, the remainder of the coating being zinc and unavoidable impurities, wherein said steel fiber having a steel core, a zinc aluminium alloy coating and an intermetallic layer with Fe 2 Al 5 between said steel core and said zinc aluminium coating, said intermetallic layer having a thickness being smaller than 1 micrometer. said steel fiber being provided with a zinc aluminium alloy coating, the amount of aluminium in the coating ranging from 0.05 wt% to 0.5 wt%, the remainder of the coating being zinc and unavoidable impurities, wherein said steel fiber having a steel core, a zinc aluminium alloy coating and an intermetallic layer with Fe 2 Al 5 between said steel core and said zinc aluminium coating, said intermetallic layer having a thickness being smaller than 1 micrometer.
A method for predicting lifespan characteristics of a lithium secondary battery, the method characterized in comprising: a first step of subjecting a lithium secondary battery in a form of a blocking cell to an impedance spectroscopic analysis under application of multiple frequencies; a second step of deriving a relationship of capacitance (F/cm 2 ) for each frequency (Hz) from the impedance spectroscopic analysis result, and calculating the charge amount (F/cm 2 ) of the lithium secondary battery therefrom; a third step of repeatedly performing the first and second steps while repeatedly performing the electrochemical reaction for the lithium secondary battery for x cycles, to thereby collect charge amount (F/cm 2 ) data of the lithium secondary battery for each x cycle; and a fourth step of measuring the capacity y (mAh/g) for each x cycle for a lithium secondary battery in a form of a non-blocking cell, and allowing it to correspond to the charge amount (F/cm 2 ) data for each x cycle collected in the third step, to thereby derive a prediction expression of the capacity for each cycle of the lithium secondary battery. a first step of subjecting a lithium secondary battery in a form of a blocking cell to an impedance spectroscopic analysis under application of multiple frequencies; a second step of deriving a relationship of capacitance (F/cm 2 ) for each frequency (Hz) from the impedance spectroscopic analysis result, and calculating the charge amount (F/cm 2 ) of the lithium secondary battery therefrom; a third step of repeatedly performing the first and second steps while repeatedly performing the electrochemical reaction for the lithium secondary battery for x cycles, to thereby collect charge amount (F/cm 2 ) data of the lithium secondary battery for each x cycle; and a fourth step of measuring the capacity y (mAh/g) for each x cycle for a lithium secondary battery in a form of a non-blocking cell, and allowing it to correspond to the charge amount (F/cm 2 ) data for each x cycle collected in the third step, to thereby derive a prediction expression of the capacity for each cycle of the lithium secondary battery.