mhurhangee/patent-ind-claim-en huggingface dataset:
A drainage conduit (1; 2), comprising: an elongate tubular body (110; 210; 410; 510; 810; 960) defining a first lumen (112; 212; 412; 512; 712; 812; 962), the elongate tubular body (110; 210; 410; 510; 810; 960) comprising: a proximal retention structure (114; 214; 314; 614; 714; 964), a distal retention structure (116; 616; 716; 966), and a cylindrical saddle region (118; 218; 318; 718; 968) extending therebetween; and a funnel member (120; 720; 920) attached to a distal end (115; 815) of the elongate tubular body (110; 210; 410; 510; 810; 960), wherein the funnel member (120; 720; 920) is configured to move between a first, deployed configuration and a second, delivery configuration, and wherein, when in the first, deployed configuration, the funnel member (120; 720; 920) and elongate tubular body (110; 210; 410; 510; 810; 960) define an open central lumen to provide a flow path therethrough, said drainage conduit being characterized in that the funnel member (120; 720; 920) folds back along an outer surface of the elongate tubular body (110; 210; 410; 510; 810; 960) when in the second, delivery configuration. an elongate tubular body (110; 210; 410; 510; 810; 960) defining a first lumen (112; 212; 412; 512; 712; 812; 962), the elongate tubular body (110; 210; 410; 510; 810; 960) comprising: a proximal retention structure (114; 214; 314; 614; 714; 964), a distal retention structure (116; 616; 716; 966), and a cylindrical saddle region (118; 218; 318; 718; 968) extending therebetween; and a proximal retention structure (114; 214; 314; 614; 714; 964), a distal retention structure (116; 616; 716; 966), and a cylindrical saddle region (118; 218; 318; 718; 968) extending therebetween; and a funnel member (120; 720; 920) attached to a distal end (115; 815) of the elongate tubular body (110; 210; 410; 510; 810; 960), wherein the funnel member (120; 720; 920) is configured to move between a first, deployed configuration and a second, delivery configuration, and wherein, when in the first, deployed configuration, the funnel member (120; 720; 920) and elongate tubular body (110; 210; 410; 510; 810; 960) define an open central lumen to provide a flow path therethrough, said drainage conduit being characterized in that the funnel member (120; 720; 920) folds back along an outer surface of the elongate tubular body (110; 210; 410; 510; 810; 960) when in the second, delivery configuration.
A method for manufacturing a composite assembly with a continuous skin for a rear end of an aircraft, the method comprising: obtaining a trumpet-shaped upper part of the rear end by composite tooling, the trumpet-shaped upper part comprises: a multi-spar vertical tail plane; wherein the spars of the vertical tail plane comprise widening roots that form an upper shell of the rear end; and an upper skin ; obtaining a lower part of the rear end by composite tooling, the lower part comprises: a lower shell of the rear end including semi-complete frames and stringers; and a lower skin ; obtaining a second and third trumpet-shaped parts by composite tooling comprising each: a horizontal tale plane of the rear end of the aircraft having spars ; and an intermediate skin ; integrating the trumpet-shaped upper part , the second and third trumpet-shaped parts and the lower part with a joining procedure; and joining the upper skin , the intermediate skin and the lower skin to obtain the composite assembly with the continuous skin. obtaining a trumpet-shaped upper part of the rear end by composite tooling, the trumpet-shaped upper part comprises: a multi-spar vertical tail plane; wherein the spars of the vertical tail plane comprise widening roots that form an upper shell of the rear end; and an upper skin ; a multi-spar vertical tail plane; wherein the spars of the vertical tail plane comprise widening roots that form an upper shell of the rear end; and an upper skin ; obtaining a lower part of the rear end by composite tooling, the lower part comprises: a lower shell of the rear end including semi-complete frames and stringers; and a lower skin ; a lower shell of the rear end including semi-complete frames and stringers; and a lower skin ; obtaining a second and third trumpet-shaped parts by composite tooling comprising each: a horizontal tale plane of the rear end of the aircraft having spars ; and an intermediate skin ; a horizontal tale plane of the rear end of the aircraft having spars ; and an intermediate skin ;
A method for fastening aircraft components together, comprising: forming a fit between a fastener and a hole, the fastener comprising: a head ; a cylindrical shank that extends from the head and is dimensioned to engage in a fit with a corresponding hole; and a discontinuously speckled coating , wherein, the coating exhibits a higher lubricity than a surface of the shank , and wherein the coating exhibits a higher dielectric withstand voltage than the surface of the shank , driving the shank of the fastener into the hole, building up electrical energy between the shank and the hole, traversing the electrical energy around the coating ; and dissipating the electrical energy at irregular portions of the shank that are not covered by the coating , along the entire circumference of the shank , wherein the discontinuously speckled coating is obtained by applying a speckled coating to the fastener in such a way as to leave irregular portions of a surface of the shank exposed and uncovered by the coating. a head ; a cylindrical shank that extends from the head and is dimensioned to engage in a fit with a corresponding hole; and a discontinuously speckled coating , wherein, the coating exhibits a higher lubricity than a surface of the shank , and wherein the coating exhibits a higher dielectric withstand voltage than the surface of the shank , driving the shank of the fastener into the hole, building up electrical energy between the shank and the hole, traversing the electrical energy around the coating ; and dissipating the electrical energy at irregular portions of the shank that are not covered by the coating , along the entire circumference of the shank , wherein the discontinuously speckled coating is obtained by applying a speckled coating to the fastener in such a way as to leave irregular portions of a surface of the shank exposed and uncovered by the coating.
A device, comprising: an interface configured to receive a test heart-beat signal and one or more acceleration signals, wherein the heartbeat signal is an ECG signal, and signal processing circuitry configured to: detect a beat in the test heartbeat signal; associate with the detected beat a heart rate and an energy of acceleration measured as a norm of said one or more acceleration signals corresponding to said detected beat; selectively include the detected beat in a set of test beats based on the heart rate and energy of acceleration associated with the detected beat; and detect anomalous beats in the set of test beats using a dictionary of a sparse approximation model. an interface configured to receive a test heart-beat signal and one or more acceleration signals, wherein the heartbeat signal is an ECG signal, and signal processing circuitry configured to: detect a beat in the test heartbeat signal; associate with the detected beat a heart rate and an energy of acceleration measured as a norm of said one or more acceleration signals corresponding to said detected beat; selectively include the detected beat in a set of test beats based on the heart rate and energy of acceleration associated with the detected beat; and detect anomalous beats in the set of test beats using a dictionary of a sparse approximation model. detect a beat in the test heartbeat signal; associate with the detected beat a heart rate and an energy of acceleration measured as a norm of said one or more acceleration signals corresponding to said detected beat; selectively include the detected beat in a set of test beats based on the heart rate and energy of acceleration associated with the detected beat; and detect anomalous beats in the set of test beats using a dictionary of a sparse approximation model.
A fuel tank inerting system for an aircraft, the system comprising: a fuel tank ; a first reactant source fluidly connected to the fuel tank , the first source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first source and a second reactant from the second source to generate an inert gas that is supplied to the fuel tank to fill a ullage space of the fuel tank ; a heat exchanger arranged between the catalytic reactor and the fuel tank and downstream of the catalytic reactor , the heat exchanger arranged to at least one of cool and condense an output from the catalytic reactor to separate out an inert gas and a byproduct; and a cool air source arranged to supply cool air to the heat exchanger and then the catalytic reactor to provide thermal control of the catalytic reactor ; characterised by a sparging device located within the first reactant source. a fuel tank ; a first reactant source fluidly connected to the fuel tank , the first source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first source and a second reactant from the second source to generate an inert gas that is supplied to the fuel tank to fill a ullage space of the fuel tank ; a heat exchanger arranged between the catalytic reactor and the fuel tank and downstream of the catalytic reactor , the heat exchanger arranged to at least one of cool and condense an output from the catalytic reactor to separate out an inert gas and a byproduct; and a cool air source arranged to supply cool air to the heat exchanger and then the catalytic reactor to provide thermal control of the catalytic reactor ; characterised by a sparging device located within the first reactant source.
A computer-implemented method for processing seismic data recorded by receivers while exploring an underground formation, the method comprising: selecting a spatio-temporal block of data from the seismic data; said method being characterized in that it further comprises: estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise. selecting a spatio-temporal block of data from the seismic data; said method being characterized in that it further comprises: estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise. estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise.
Industrial robot with parallel kinematics with a robot base , with a carrier element for holding a gripper, a tool or a machine element, with at least two moveable actuating units that are connected at one end to actuating unit drives arranged on the robot base and that are moveably connected at the other end to the carrier element , with a telescope that is moveably arranged between the robot base and the carrier element and takes the form of a telescopic axis and/or the form of a hollow body, whereby the hollow body receives supply lines for a gripper, tool or machine element arranged on the robot base and leads these supply lines from the robot base to the carrier element , with a first joint having multiple degrees of freedom by means of which the telescope is moveably received in the robot base , with a second joint having multiple degrees of freedom by means of which the telescope is moveably received in the carrier element , characterised in that the first joint is displaceably arranged in respect of its position relative to the robot base .
A computer-implemented method for temporarily formatting and charting data, comprising: receiving a selection of data; determining values within the selected data; determining a chart type to display the selection of data; automatically creating and causing temporary display of a chart representing the values from the selected data upon receiving the selection of data, wherein data that is not selected is hidden from view while the chart is temporarily displayed, and wherein the selected data is displayed while the chart is temporarily displayed; the method being characterized in further comprising: receiving a user interaction with the chart, wherein interacting comprises adding a reference line to the display of the chart; formatting first values that fall below the reference line differently from second values that are above the reference line; receiving a selection of a point on the displayed chart; and when the point is selected, causing display of information, wherein the displayed information includes a value for the selected point and a difference between the value for the selected point and the reference line. receiving a selection of data; determining values within the selected data; determining a chart type to display the selection of data; automatically creating and causing temporary display of a chart representing the values from the selected data upon receiving the selection of data, wherein data that is not selected is hidden from view while the chart is temporarily displayed, and wherein the selected data is displayed while the chart is temporarily displayed; the method being characterized in further comprising: receiving a user interaction with the chart, wherein interacting comprises adding a reference line to the display of the chart; formatting first values that fall below the reference line differently from second values that are above the reference line; receiving a selection of a point on the displayed chart; and when the point is selected, causing display of information, wherein the displayed information includes a value for the selected point and a difference between the value for the selected point and the reference line. receiving a user interaction with the chart, wherein interacting comprises adding a reference line to the display of the chart; formatting first values that fall below the reference line differently from second values that are above the reference line; receiving a selection of a point on the displayed chart; and when the point is selected, causing display of information, wherein the displayed information includes a value for the selected point and a difference between the value for the selected point and the reference line.
A method of managing power distribution in a portion of an electrical power grid, wherein the power grid comprises at least one power storage , the method comprising: receiving at least one power consumption rule from at least one consumer of the power grid , wherein the at least one power consumption rule to be enforced to alter the power consumption when a predefined condition occurs; analyzing power consumption data from at least one power consumption meter connected to the power grid , wherein the received power consumption data corresponds to consumption of the at least one consumer ; receiving forecasted power consumption data selected from the group consisting of forecasted power consumption, forecasted power production, and forecasted energy prices; applying the at least one power consumption rule on the analyzed power consumption data, wherein the applying the at least one power consumption rule is also based on forecasted power consumption data; and managing power consumption for the at least one consumer , based on the result of the applying the at least one power consumption rule , and also based on a power capacity status of the at least one power storage , analyzing influence of the managing power consumption for the at least one consumer on power distribution of the power grid ; and updating the at least one power consumption rule to maintain power distribution of the power grid below a first predefined threshold of total power consumption. receiving at least one power consumption rule from at least one consumer of the power grid , wherein the at least one power consumption rule to be enforced to alter the power consumption when a predefined condition occurs; analyzing power consumption data from at least one power consumption meter connected to the power grid , wherein the received power consumption data corresponds to consumption of the at least one consumer ; receiving forecasted power consumption data selected from the group consisting of forecasted power consumption, forecasted power production, and forecasted energy prices; applying the at least one power consumption rule on the analyzed power consumption data, wherein the applying the at least one power consumption rule is also based on forecasted power consumption data; and managing power consumption for the at least one consumer , based on the result of the applying the at least one power consumption rule , and also based on a power capacity status of the at least one power storage , analyzing influence of the managing power consumption for the at least one consumer on power distribution of the power grid ; and updating the at least one power consumption rule to maintain power distribution of the power grid below a first predefined threshold of total power consumption.
An RFID reader , comprising: an antenna adapted to read RFID tags attached to items on an object ; a barcode reader integrated with the RFID reader , the barcode reader being adapted to project a light to read barcodes mounted at known locations on the object ; characterized in that : the RFID reader is adapted to: retrieve the known locations of the barcodes on the object from a memory; estimate a scan path for the object based on the known locations of the barcodes on the object, the scan path being a suggested travel path of the RFID reader to collect information about the items on the object and including points on the scan path where the barcode reader reads the barcodes and the antenna reads RFID tags attached to the items; prompt, via a user interface, a user to scan barcodes in a particular order forcing the handheld device to scan in the scan path, wherein the scan path assumes the RFID reader is being conveyed in a substantially straight line between barcodes ; record the time at which the barcode was scanned and the data of the barcode label. an antenna adapted to read RFID tags attached to items on an object ; a barcode reader integrated with the RFID reader , the barcode reader being adapted to project a light to read barcodes mounted at known locations on the object ; characterized in that : the RFID reader is adapted to: retrieve the known locations of the barcodes on the object from a memory; estimate a scan path for the object based on the known locations of the barcodes on the object, the scan path being a suggested travel path of the RFID reader to collect information about the items on the object and including points on the scan path where the barcode reader reads the barcodes and the antenna reads RFID tags attached to the items; prompt, via a user interface, a user to scan barcodes in a particular order forcing the handheld device to scan in the scan path, wherein the scan path assumes the RFID reader is being conveyed in a substantially straight line between barcodes ; record the time at which the barcode was scanned and the data of the barcode label. retrieve the known locations of the barcodes on the object from a memory; estimate a scan path for the object based on the known locations of the barcodes on the object, the scan path being a suggested travel path of the RFID reader to collect information about the items on the object and including points on the scan path where the barcode reader reads the barcodes and the antenna reads RFID tags attached to the items; prompt, via a user interface, a user to scan barcodes in a particular order forcing the handheld device to scan in the scan path, wherein the scan path assumes the RFID reader is being conveyed in a substantially straight line between barcodes ;
A stack of fluidics layers of a microfluidic cartridge for sequencing nucleic acid molecules, the stack of fluidics layers comprising: (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer , the sequencing chamber bottom layer has an opening configured to hold an image sensor with the image sensor having an active area disposed under the sequencing chamber area, wherein the sequencing chamber area spans all of the active area of the image sensor; (c) a flexible printed circuit board (PCB) layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board (PCB) layer, wherein the fluidics channels layer comprises fluidics channels that are configured to deliver reactants to the sequencing chamber area, wherein the fluidics channels do not overlap with the active area of the image sensor. (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer , the sequencing chamber bottom layer has an opening configured to hold an image sensor with the image sensor having an active area disposed under the sequencing chamber area, wherein the sequencing chamber area spans all of the active area of the image sensor; (c) a flexible printed circuit board (PCB) layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board (PCB) layer, wherein the fluidics channels layer comprises fluidics channels that are configured to deliver reactants to the sequencing chamber area, wherein the fluidics channels do not overlap with the active area of the image sensor.