mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining by a computing system a plurality of locations where a first wireless communication module and a second wireless communication module have lost wireless connectivity with each other, wherein the computing system comprises at least one processor , wherein the second wireless communication module is provided at or with a video camera when the video camera is moved, wherein the first wireless communication module is provided at equipment associated with storage or transport of the video camera , and wherein the second wireless communication module having lost wireless connectivity with the first wireless communication module comprises the second wireless communication module and first wireless communication module having lost peer-to-peer wireless pairing with each other; outputting by the computing system a location-selection prompt specifying the determined plurality of locations as candidate capture-locations for a video captured by the video camera ; receiving by the computing system , in response to the location-selection prompt, data that represents a user selection of one of the specified locations; and recording by the computing system the selected location as capture-location metadata for the captured video. determining by a computing system a plurality of locations where a first wireless communication module and a second wireless communication module have lost wireless connectivity with each other, wherein the computing system comprises at least one processor , wherein the second wireless communication module is provided at or with a video camera when the video camera is moved, wherein the first wireless communication module is provided at equipment associated with storage or transport of the video camera , and wherein the second wireless communication module having lost wireless connectivity with the first wireless communication module comprises the second wireless communication module and first wireless communication module having lost peer-to-peer wireless pairing with each other; outputting by the computing system a location-selection prompt specifying the determined plurality of locations as candidate capture-locations for a video captured by the video camera ; receiving by the computing system , in response to the location-selection prompt, data that represents a user selection of one of the specified locations; and recording by the computing system the selected location as capture-location metadata for the captured video.
A method comprising: applying a periodic actuation field to a sample contained in a measurement chamber , the measurement chamber including a sensor with the sensor surface being passivated to prevent sample constituents of the sample from attaching to the surface of sensor , the sample comprising a target analyte , the applied field oscillating with a first frequency;. inducing a periodic variation of a property of target analyte attached to a magnetic bead within the sample through the periodic actuation field, wherein the periodic variation is related to the concentration of the target analyte, wherein the periodic actuation field comprises a magnetic field; measuring an electrical impedance of the sensor, the electrical impedance being indicative of a change of position of the target analyte in response to applying the periodic field, wherein measuring the electrical impedance comprises applying an electrical signal to the electrode pair on the sensor, the electrical signal oscillating with a second frequency distinct from the first frequency; determining a frequency component of the electrical impedance of the sensor at the first frequency; and determining a concentration of the target analyte in the sample according to the frequency component of the electrical impedance at the first frequency applying a periodic actuation field to a sample contained in a measurement chamber , the measurement chamber including a sensor with the sensor surface being passivated to prevent sample constituents of the sample from attaching to the surface of sensor , the sample comprising a target analyte , the applied field oscillating with a first frequency;. inducing a periodic variation of a property of target analyte attached to a magnetic bead within the sample through the periodic actuation field, wherein the periodic variation is related to the concentration of the target analyte, wherein the periodic actuation field comprises a magnetic field; measuring an electrical impedance of the sensor, the electrical impedance being indicative of a change of position of the target analyte in response to applying the periodic field, wherein measuring the electrical impedance comprises applying an electrical signal to the electrode pair on the sensor, the electrical signal oscillating with a second frequency distinct from the first frequency; determining a frequency component of the electrical impedance of the sensor at the first frequency; and determining a concentration of the target analyte in the sample according to the frequency component of the electrical impedance at the first frequency
A multi-group lens assembly , comprising: at least two group units; at least one first gap between at least two adjacent group units to compensate for a difference between the multi-group lens assembly and an optical design system, so that an optical system of the multi-group lens assembly conforms to the optical design system; and a plurality of adjusting elements , wherein the adjusting elements are located between the at least two group units, so as to form the at least one first gap ; wherein the multi-group lens assembly includes two group units, which are a first group unit and a second group unit , respectively, wherein the first group unit includes a first bearing component and at least one first group lens which is mounted in the first bearing component ; characterized in that the first bearing component includes a first main body and an extension platform , wherein the extension platform extends outwardly from the first main body ; wherein the adjusting elements are spaced apart from each other and located on the bottom of the extension platform , and each adjusting element extends downwardly from the extension platform in a direction of an optical axis, and the first gap is between the adjusting element and the second group unit . at least two group units; at least one first gap between at least two adjacent group units to compensate for a difference between the multi-group lens assembly and an optical design system, so that an optical system of the multi-group lens assembly conforms to the optical design system; and a plurality of adjusting elements , wherein the adjusting elements are located between the at least two group units, so as to form the at least one first gap ; wherein the multi-group lens assembly includes two group units, which are a first group unit and a second group unit , respectively, wherein the first group unit includes a first bearing component and at least one first group lens which is mounted in the first bearing component ; characterized in that the first bearing component includes a first main body and an extension platform , wherein the extension platform extends outwardly from the first main body ; wherein the adjusting elements are spaced apart from each other and located on the bottom of the extension platform , and each adjusting element extends downwardly from the extension platform in a direction of an optical axis, and the first gap is between the adjusting element and the second group unit .
Method for setting a gear in a gear mechanism of a power tool , in particular a power core drill, wherein the power tool includes an electric motor for generating and transmitting a torque to the gear mechanism and a control unit for setting the speed of the electric motor , and the gear mechanism includes an operating device for selecting a gear in the gear mechanism , a gearshift fork for engaging a gear in the gear mechanism and an actuator for transmitting a movement of the operating device to the gearshift fork , wherein the operating device includes at least one signal transmitter and at least one sensor for receiving at least one signal from the at least one signal transmitter , wherein the method comprises the following method steps: - adjusting the operating device from a first position to a second position for selecting a gear in the gear mechanism ; - detecting a signal using the at least one sensor in accordance with the second position of the operating device ; - sending the signal to the control unit ; characterized in that the actuator is a stepper motor ; and wherein the method comprises the following method steps: - adjusting the speed of the electric motor from a first value to a second value using the control unit ; - positioning the operating device from the second position to a third position; - adjusting the stepper motor from a first position to a second position in accordance with the third position of the operating device ; and - adjusting the gearshift fork from a first position to a second position for changing from a first gear to a second gear. - adjusting the operating device from a first position to a second position for selecting a gear in the gear mechanism ; - detecting a signal using the at least one sensor in accordance with the second position of the operating device ; - sending the signal to the control unit ; - adjusting the speed of the electric motor from a first value to a second value using the control unit ; - positioning the operating device from the second position to a third position; - adjusting the stepper motor from a first position to a second position in accordance with the third position of the operating device ; and - adjusting the gearshift fork from a first position to a second position for changing from a first gear to a second gear.
An online sample manager of a liquid chromatography system , comprising: a fluidic tee having a first inlet port , a second inlet port , and an outlet port ; a diluent pump configured to move a diluent from a diluent source to the first inlet port of the fluidic tee ; a process-selection valve having a plurality of fluidic intake ports (108-13-18) for coupling to different process sample sources for acquiring process samples therefrom, and further having an outlet port (108-19), the process-selection valve configurable to select any one of the fluidic intake ports (108-13-18); a pumping system configured to move the acquired process sample from the process-selection valve into the second inlet port of the fluidic tee while the diluent pump is moving diluent to the first inlet port of the fluidic tee , such that the process sample merges with the diluent arriving at the first inlet port to produce a diluted process sample that flows out from the outlet port of the fluidic tee ; and an injection valve having a first fluidic port (108-22) in fluidic communication with the outlet port of the fluidic tee to receive the diluted process sample therefrom, a second fluidic port (108-25) for receiving solvent from a solvent delivery system, a third fluidic port (108-20), a fourth fluidic port (108-23), and a sample loop connected between the third fluidic port (108-20) and fourth fluidic port (108-23). a fluidic tee having a first inlet port , a second inlet port , and an outlet port ; a diluent pump configured to move a diluent from a diluent source to the first inlet port of the fluidic tee ; a process-selection valve having a plurality of fluidic intake ports (108-13-18) for coupling to different process sample sources for acquiring process samples therefrom, and further having an outlet port (108-19), the process-selection valve configurable to select any one of the fluidic intake ports (108-13-18); a pumping system configured to move the acquired process sample from the process-selection valve into the second inlet port of the fluidic tee while the diluent pump is moving diluent to the first inlet port of the fluidic tee , such that the process sample merges with the diluent arriving at the first inlet port to produce a diluted process sample that flows out from the outlet port of the fluidic tee ; and an injection valve having a first fluidic port (108-22) in fluidic communication with the outlet port of the fluidic tee to receive the diluted process sample therefrom, a second fluidic port (108-25) for receiving solvent from a solvent delivery system, a third fluidic port (108-20), a fourth fluidic port (108-23), and a sample loop connected between the third fluidic port (108-20) and fourth fluidic port (108-23).
A laser radar apparatus comprising: a transmission and reception optical system for emitting a pulse into an atmosphere, and receiving reflected light of the pulse that is reflected from an observation object and returned back; a spectrum calculating unit for calculating a spectrum signal in range bins from the reflected light received by the transmission and reception optical system; a wind velocity calculating unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is equal to or greater than a first threshold, calculating a wind velocity in the range bin which is a velocity of the observation object from the spectrum signal; a wind velocity model selecting unit for selecting a wind velocity model corresponding to wind velocities in the range bins that are calculated by the wind velocity calculating unit from a plurality of wind velocity models each showing a relationship between range bins and wind velocities in the atmosphere; and a wind velocity searching unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is less than the first threshold, determining a search center of a search scope for a Doppler frequency corresponding to a wind velocity in the range bin by using the wind velocity model selected by the wind velocity model selecting unit, and searching for a wind velocity in the range bin from the spectrum signal within the search scope whose search center is determined. a transmission and reception optical system for emitting a pulse into an atmosphere, and receiving reflected light of the pulse that is reflected from an observation object and returned back; a spectrum calculating unit for calculating a spectrum signal in range bins from the reflected light received by the transmission and reception optical system; a wind velocity calculating unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is equal to or greater than a first threshold, calculating a wind velocity in the range bin which is a velocity of the observation object from the spectrum signal; a wind velocity model selecting unit for selecting a wind velocity model corresponding to wind velocities in the range bins that are calculated by the wind velocity calculating unit from a plurality of wind velocity models each showing a relationship between range bins and wind velocities in the atmosphere; and a wind velocity searching unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is less than the first threshold, determining a search center of a search scope for a Doppler frequency corresponding to a wind velocity in the range bin by using the wind velocity model selected by the wind velocity model selecting unit, and searching for a wind velocity in the range bin from the spectrum signal within the search scope whose search center is determined.
An outlet guide vane for a fan module of a turbomachine, the outlet guide vane extending along a radial axis, the radial axis extending along a direction perpendicular to a central axis of symmetry of the fan module and passing therethrough, the fan module comprising a hub including an upstream flange and a downstream flange , the outlet guide vane comprising: - a blade made of composite material comprising a fiber reinforcement densified by a matrix and extending along the radial axis, said blade having a radial inner end and a radial outer end , - a first metal fastener portion fastened to the radial inner end of the blade , - at least a first platform extending transversely with respect to the blade in the vicinity of its radial inner end , the outlet guide vane being characterized in that said first metal fastener portion is configured to be mounted on and fastened, on the one hand, to the upstream flange and, on the other hand, to the downstream flange of the hub , and in that the first platform is monolithic with the first metal fastener portion . - a blade made of composite material comprising a fiber reinforcement densified by a matrix and extending along the radial axis, said blade having a radial inner end and a radial outer end , - a first metal fastener portion fastened to the radial inner end of the blade , - at least a first platform extending transversely with respect to the blade in the vicinity of its radial inner end ,
Material composite having a relatively low softening point side and a relatively high softening point side, characterized in that the composite consists of at least one layer of relatively high softening point thermoplastic copolyester elastomer TPC and a hot melt material from the substance classes of the heat-activated thermoplastic polyurethane adhesives (TPU) having an at least 20°C lower softening range and was produced by film coextrusion processes, wherein the softening range of the TPU employed on the lower softening point side is between 130°C and 170°C on the Kofler bench and the softening point of the TPC employed on the higher softening point side is above 170°C on the Kofler bench and the softening ranges are determined according to the method in the description.
An electrochemical process to alkaliate an anode to produce an alkaliated anode characterized by bare substrate areas free of alkali metals comprising the steps of: a. Subjecting an anode to a non-aqueous electrolytic solution comprising an alkali metal salt, wherein said anode comprises a conductive substrate comprising at least one surface characterized by at least one area having an alkaliation coating thereon and at least one area that is free of an alkaliation coating; b. Applying a forward reducing current to alkaliate the anode for between 1 millisecond and 15 minutes, a time sufficient to at least partially alkaliate the anode in the areas having an alkaliation coating; and: c. Maintaining the anode produced by step (b) in the solution and applying a reversed oxidative current to remove any alkali metal deposits from the bare substrate areas; and d. repeating steps b and c at least three times. a. Subjecting an anode to a non-aqueous electrolytic solution comprising an alkali metal salt, wherein said anode comprises a conductive substrate comprising at least one surface characterized by at least one area having an alkaliation coating thereon and at least one area that is free of an alkaliation coating; b. Applying a forward reducing current to alkaliate the anode for between 1 millisecond and 15 minutes, a time sufficient to at least partially alkaliate the anode in the areas having an alkaliation coating; and: c. Maintaining the anode produced by step (b) in the solution and applying a reversed oxidative current to remove any alkali metal deposits from the bare substrate areas; and d. repeating steps b and c at least three times.
A method of contact sampling comprising capturing and stabilising volatile thiol malodour generated on the human skin, said method comprising steps of: i) contacting the human skin with a substrate, ii) absorbing thiol malodour into the substrate, and iii) reacting thiol malodour with a thiol-capture agent to stabilise said captured thiol malodour. i) contacting the human skin with a substrate, ii) absorbing thiol malodour into the substrate, and iii) reacting thiol malodour with a thiol-capture agent to stabilise said captured thiol malodour.
A composition for the control of parasites on animals, comprising - at least one active substance selected from the group of agonists of the nicotinergic acetylcholine receptors of insects preferably selected from neonicotinoids; - at least one active substance, selected from the group of pyrethroids; and - ≥ 8.0 wt.-%, based on the weight of the total composition, of carvacrol as a solvent; as well as - optionally at least one crystallization inhibitor; - optionally at least one further active substance from the group of development inhibitors; and/or - optionally further solvents and/or active substances and/or auxiliary substances. - at least one active substance selected from the group of agonists of the nicotinergic acetylcholine receptors of insects preferably selected from neonicotinoids; - at least one active substance, selected from the group of pyrethroids; and - ≥ 8.0 wt.-%, based on the weight of the total composition, of carvacrol as a solvent; as well as - optionally at least one crystallization inhibitor; - optionally at least one further active substance from the group of development inhibitors; and/or - optionally further solvents and/or active substances and/or auxiliary substances.