mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: at a first device having a first display and a first processor, executing a first application via the first processor; determining a first state of the first application; generating a first scenegraph corresponding to the first state of the first application; and presenting, to a second device having a second display and a second processor, the first scenegraph, the second device remote to the first device ; at the second device , executing a second application via the second processor; generating a second scenegraph corresponding to a first state of the second application; and presenting the second scenegraph to the first device , wherein: the second device is configured to, in response to receiving the first scenegraph, render to the second display a first view corresponding to the first scenegraph, rendering the first view to the second display does not comprise executing the first application via the second processor, the first device is configured to, in response to receiving the second scenegraph, render to the first display, the second scenegraph, and rendering the second scenegraph to the first display does not comprise executing the second application via the first processor. at a first device having a first display and a first processor, executing a first application via the first processor; determining a first state of the first application; generating a first scenegraph corresponding to the first state of the first application; and presenting, to a second device having a second display and a second processor, the first scenegraph, the second device remote to the first device ; at the second device , executing a second application via the second processor; generating a second scenegraph corresponding to a first state of the second application; and presenting the second scenegraph to the first device , the second device is configured to, in response to receiving the first scenegraph, render to the second display a first view corresponding to the first scenegraph, rendering the first view to the second display does not comprise executing the first application via the second processor, the first device is configured to, in response to receiving the second scenegraph, render to the first display, the second scenegraph, and rendering the second scenegraph to the first display does not comprise executing the second application via the first processor.
An electronic device assembly comprising: an electronic device having a mount that includes a mounting opening , the mounting opening being configured to receive mounting hardware therein for mounting the electronic device to a structure ; and an isolator coupled to the mount , the isolator comprising an elastomeric bushing configured to attenuate at least one of shock or vibration exerted on the electronic device , wherein the isolator is incorporated within the mount such that the elastomeric bushing is received into the mounting opening of the mount , wherein the isolator further comprises a bobbin that includes a first bobbin member and a second bobbin member that is discrete from the first bobbin member , the elastomeric bushing extending around the bobbin , characterised in that the first and second bobbin members have a first and second shaft segment which are coupled together using at least one of a press-fit, a bonding agent, or threads. an electronic device having a mount that includes a mounting opening , the mounting opening being configured to receive mounting hardware therein for mounting the electronic device to a structure ; and an isolator coupled to the mount , the isolator comprising an elastomeric bushing configured to attenuate at least one of shock or vibration exerted on the electronic device , wherein the isolator is incorporated within the mount such that the elastomeric bushing is received into the mounting opening of the mount , wherein the isolator further comprises a bobbin that includes a first bobbin member and a second bobbin member that is discrete from the first bobbin member , the elastomeric bushing extending around the bobbin , characterised in that the first and second bobbin members have a first and second shaft segment which are coupled together using at least one of a press-fit, a bonding agent, or threads.
A fuel tank arrangement for a marine vessel for storing liquid hydrogen, the fuel tank arrangement comprising a) a liquid hydrogen fuel tank having a gas space , b) a tank connection space , which is arranged in communication with the liquid hydrogen fuel tank , c) the tank connection space being provided with • connections for filling the fuel tank with liquid hydrogen, • connections for taking liquid hydrogen from the fuel tank , • evaporator for evaporating the liquid hydrogen, • connections for feeding the evaporated hydrogen as a fuel to a hydrogen consuming power unit, • a ventilation inlet line , • a vent mast having a lower end and an upper end , and an interior, the interior of the vent mast forming a ventilation outlet line for discharging gas from the tank connection space , • an emergency pressure relief valve coupled via a safety valve line between the gas space of the fuel tank and the vent mast , • a connection (74, 76; 80, 82) to an inert gas source (72; 78) for inerting the tank connection space , wherein the fuel tank arrangement further comprises a first hydrogen outlet line provided in the vent mast separate from the ventilation outlet line , the first hydrogen outlet line extending from the lower end of the vent mast to the upper end thereof and being arranged in flow communication with the emergency pressure relief valve . a) a liquid hydrogen fuel tank having a gas space , b) a tank connection space , which is arranged in communication with the liquid hydrogen fuel tank , c) the tank connection space being provided with • connections for filling the fuel tank with liquid hydrogen, • connections for taking liquid hydrogen from the fuel tank , • evaporator for evaporating the liquid hydrogen, • connections for feeding the evaporated hydrogen as a fuel to a hydrogen consuming power unit, • a ventilation inlet line , • a vent mast having a lower end and an upper end , and an interior, the interior of the vent mast forming a ventilation outlet line for discharging gas from the tank connection space , • an emergency pressure relief valve coupled via a safety valve line between the gas space of the fuel tank and the vent mast , • a connection (74, 76; 80, 82) to an inert gas source (72; 78) for inerting the tank connection space , • connections for filling the fuel tank with liquid hydrogen, • connections for taking liquid hydrogen from the fuel tank , • evaporator for evaporating the liquid hydrogen, • connections for feeding the evaporated hydrogen as a fuel to a hydrogen consuming power unit, • a ventilation inlet line , • a vent mast having a lower end and an upper end , and an interior, the interior of the vent mast forming a ventilation outlet line for discharging gas from the tank connection space , • an emergency pressure relief valve coupled via a safety valve line between the gas space of the fuel tank and the vent mast , • a connection (74, 76; 80, 82) to an inert gas source (72; 78) for inerting the tank connection space ,
A bicycle cassette comprising: a. a large sprocket sub-assembly comprising a clamp screw , a clamping mechanism for attaching the large sprocket sub-assembly to a rear bicycle hub , wherein once the large sprocket sub-assembly is completely engaged on the rear bicycle hub , the large sprocket sub-assembly clamps to a right-end radial surface of the rear bicycle hub by tightening the clamp screw thereby closing a clamp clearance slot thereby creating pressure between a clamping surface and the right-end radial surface ; and b. a small sprocket sub-assembly , wherein the small sprocket sub-assembly rotatably couples with and locks to the large sprocket sub-assembly after the large sprocket sub-assembly is clamped to the rear bicycle hub to form the bicycle cassette . a. a large sprocket sub-assembly comprising a clamp screw , a clamping mechanism for attaching the large sprocket sub-assembly to a rear bicycle hub , wherein once the large sprocket sub-assembly is completely engaged on the rear bicycle hub , the large sprocket sub-assembly clamps to a right-end radial surface of the rear bicycle hub by tightening the clamp screw thereby closing a clamp clearance slot thereby creating pressure between a clamping surface and the right-end radial surface ; and b. a small sprocket sub-assembly , wherein the small sprocket sub-assembly rotatably couples with and locks to the large sprocket sub-assembly after the large sprocket sub-assembly is clamped to the rear bicycle hub to form the bicycle cassette .
A tool for transferring a composite patch to a rework area of a structure , comprising: a caul plate having an upper surface , a lower surface and at least one suction hole ; a vacuum port fluidly coupled to the suction hole for drawing the composite patch against the caul plate under vacuum; at least one passageway fluidly connecting the vacuum port to the suction hole ; and an alignment template disposed on the caul plate for aligning the composite patch with the rework area . a caul plate having an upper surface , a lower surface and at least one suction hole ; a vacuum port fluidly coupled to the suction hole for drawing the composite patch against the caul plate under vacuum; at least one passageway fluidly connecting the vacuum port to the suction hole ; and an alignment template disposed on the caul plate for aligning the composite patch with the rework area .
Extraction clamp for extracting containers from a shaping mould , the clamp comprising two jaws which are arranged on either side of a central axis (X20) of the clamp and each include a support and an insert which is mounted in a floating manner on the support while being movable in translation relative to the support in a direction (F20) radial to the central axis (X20), characterised in that , for each jaw : - the insert is equipped with at least one throat for receiving and clamping a lining and - a compressible lining is engaged in each throat in order to constitute an interface for gripping the neck of a container. - the insert is equipped with at least one throat for receiving and clamping a lining and - a compressible lining is engaged in each throat in order to constitute an interface for gripping the neck of a container.
An apparatus comprising: a wireless data concentrator configured to operate within a data network of an aircraft , the wireless data concentrator including: a Printed Circuit Board , hereinafter PCB, having a top surface and a bottom surface; a controller electrically coupled to the top surface of the PCB and proximate to a centerline of the PCB; four Radio Frequency, hereinafter RF, transceivers (310-313) electrically coupled to the top surface of the PCB that are disposed orthogonally to each other around the controller, each configured to communicate with at least one wireless sensor that measures an environment of the aircraft; and four inverted-F PCB trace antennas (320-323) fabricated along the top surface of the PCB, each electrically coupled to one of the RF transceivers and disposed orthogonally to each other around the controller and wherein a region between each of the inverted-F PCB trace antennas is devoid of PCB traces; the controller configured to receive sensor data about the environment of the aircraft from the at least one wireless sensor, and to provide the sensor data to an application server of the data network of the aircraft. a Printed Circuit Board , hereinafter PCB, having a top surface and a bottom surface; a controller electrically coupled to the top surface of the PCB and proximate to a centerline of the PCB; four Radio Frequency, hereinafter RF, transceivers (310-313) electrically coupled to the top surface of the PCB that are disposed orthogonally to each other around the controller, each configured to communicate with at least one wireless sensor that measures an environment of the aircraft; and four inverted-F PCB trace antennas (320-323) fabricated along the top surface of the PCB, each electrically coupled to one of the RF transceivers and disposed orthogonally to each other around the controller and wherein a region between each of the inverted-F PCB trace antennas is devoid of PCB traces; the controller configured to receive sensor data about the environment of the aircraft from the at least one wireless sensor, and to provide the sensor data to an application server of the data network of the aircraft.
A biosensor component for use in analyzing a biological sample, said biosensor component comprising: a substrate; a conductive layer coated on said substrate, and a biological reactant for electrochemically reacting with said biological sample, wherein said conductive layer comprises nickel, chromium and iron, wherein a combined weight percent of the nickel and chromium in the conductive layer is in the range of 80 to less than 95 weight percent, wherein the weight percent of iron in the conductive layer is greater than 5 weight percent and less than 12 weight percent; wherein the biosensor is a blood glucose sensor, wherein said substrate has a thickness between 25 and 800 μm and said conductive layer has a thickness between 1 and 1000 nm. a substrate; a conductive layer coated on said substrate, and a biological reactant for electrochemically reacting with said biological sample, wherein said conductive layer comprises nickel, chromium and iron, wherein a combined weight percent of the nickel and chromium in the conductive layer is in the range of 80 to less than 95 weight percent, wherein the weight percent of iron in the conductive layer is greater than 5 weight percent and less than 12 weight percent; wherein the biosensor is a blood glucose sensor, wherein said substrate has a thickness between 25 and 800 μm and said conductive layer has a thickness between 1 and 1000 nm.
A differential pressure based flow measurement system , comprising: a differential pressure sensor having a pressure sensor output which is related to flow of process fluid; an elongated probe coupled to the pressure sensor configured to be inserted into a conduit which carries a flow of process fluid having a cross section arranged in a "T" shape, the elongated probe having an upstream portion at a top side of the "T"-shape and generally perpendicular to the flow and a base portion which extends in a direction generally parallel with the flow; an upstream plenum in the upstream portion of the elongated probe having at least one upstream opening coupled to the pressure sensor to thereby apply an upstream pressure to the pressure sensor ; a downstream plenum in the downstream portion of the elongated probe having at least one downstream opening coupled to the pressure sensor to thereby apply a downstream pressure to the pressure sensor ; and a downstream element forming an elongate rib of the "T"-shape of the probe , characterized in that it has a vortex shedding stabilizer comprising at least one opening which extends through the base of the "T" shape, the vortex shedding stabilizer configured to stabilize vortex shedding proximate the elongated probe . a differential pressure sensor having a pressure sensor output which is related to flow of process fluid; an elongated probe coupled to the pressure sensor configured to be inserted into a conduit which carries a flow of process fluid having a cross section arranged in a "T" shape, the elongated probe having an upstream portion at a top side of the "T"-shape and generally perpendicular to the flow and a base portion which extends in a direction generally parallel with the flow; an upstream plenum in the upstream portion of the elongated probe having at least one upstream opening coupled to the pressure sensor to thereby apply an upstream pressure to the pressure sensor ; a downstream plenum in the downstream portion of the elongated probe having at least one downstream opening coupled to the pressure sensor to thereby apply a downstream pressure to the pressure sensor ; and a downstream element forming an elongate rib of the "T"-shape of the probe , characterized in that it has a vortex shedding stabilizer comprising at least one opening which extends through the base of the "T" shape, the vortex shedding stabilizer configured to stabilize vortex shedding proximate the elongated probe .
A liquid crystal composition that has a nematic phase, and contains at least one compound selected from the group of compounds represented by formula as a first component, and at least one compound selected from the group of compounds represented by formula as a second component: wherein, in formula and formula , R 1 is alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons; R 2 is alkyl having 1 to 3 carbons, or alkyl having 1 to 12 carbons in which at least one of hydrogen is replaced by halogen; R 3 is hydrogen or alkyl having 1 to 5 carbons; ring A and ring B are independently 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 2,3-difluoro-1,4-phenylene, 2,6-difluoro-1,4-phenylene, pyrimidine-2,5-diyl, 1,3-dioxane-2, 5-diyl or tetrahydropyran-2, 5-diyl; Z 1 and Z 2 are independently a single bond, ethylene, vinylene, methyleneoxy, carbonyloxy or difluoromethyleneoxy; X 1 is hydrogen or fluorine; Y 1 is fluorine, chlorine, alkyl having 1 to 12 carbons in which at least one of hydrogen is replaced by halogen, or alkenyloxy having 2 to 12 carbons in which at least one of hydrogen is replaced by halogen; j and k are independently 0, 1, 2, or 3; and a sum of j and k is 4 or less.
A system configured to assess lung function of a subject, the system comprising: means for receiving expiratory airflow from the airway of the subject during an expiration by the subject; means for measuring, from the received expiratory airflow, expiratory volume during the expiration by the subject; means for creating a plot representing expiratory volume during the expiration, wherein the plot has a shape; characterized in that the system further comprises means for determining, based on the expiratory volume during the expiration, a reliability of the measured expiratory volume during the expiration in assessing lung function characteristics of the subject; and in that the system further comprises means for assessing, based on the shape of the plot, the lung function characteristics of the subject, responsive to a determination that the measured expiratory volume is suitably reliable by the means for determining the reliability of the measured expiratory volume during the expiration, wherein the means for assessing the lung function characteristics of the subject is configured to compare the shape of the plot against a set of shape templates including a shape template for each of a variety of characteristic lung diseases. means for receiving expiratory airflow from the airway of the subject during an expiration by the subject; means for measuring, from the received expiratory airflow, expiratory volume during the expiration by the subject; means for creating a plot representing expiratory volume during the expiration, wherein the plot has a shape; characterized in that the system further comprises means for determining, based on the expiratory volume during the expiration, a reliability of the measured expiratory volume during the expiration in assessing lung function characteristics of the subject; and in that the system further comprises means for assessing, based on the shape of the plot, the lung function characteristics of the subject, responsive to a determination that the measured expiratory volume is suitably reliable by the means for determining the reliability of the measured expiratory volume during the expiration, wherein the means for assessing the lung function characteristics of the subject is configured to compare the shape of the plot against a set of shape templates including a shape template for each of a variety of characteristic lung diseases.
A stable liquid eutectic system consisting of : - an active ingredient chosen from catechins, anthocyanins, and procyanidins, - a choline salt, - a polar protic solvent or aprotic polar solvent which is pharmaceutically, dermo-cosmetically or nutraceutically acceptable, wherein the molar ratio between the active ingredient, the choline salt, and the solvent is 0.25-1.5:1:5-50, wherein the concentration of the active ingredient is at least 100 mg/mL. - an active ingredient chosen from catechins, anthocyanins, and procyanidins, - a choline salt, - a polar protic solvent or aprotic polar solvent which is pharmaceutically, dermo-cosmetically or nutraceutically acceptable,
A nanopore measurement circuit, comprising: a circuit configured to detect a first voltage corresponding to an electrical measurement of a nanopore; and a component configured to compare the first voltage to a second voltage; wherein based at least in part on the comparison, a one bit indicator is determined, the one bit indicator indicates whether the first voltage indicates a change in a state of the nanopore, and in the event it is determined that the first voltage indicates a the change in the state of the nanopore, a multiple bit indicator is provided for output, wherein the one bit indicator is concatenated with a plurality of other one bit indicators corresponding to a plurality of other nanopores into the multiple bit indicator to form a bit array, and wherein detecting the first voltage includes detecting a voltage of a capacitor electrically coupled to the nanopore. a circuit configured to detect a first voltage corresponding to an electrical measurement of a nanopore; and a component configured to compare the first voltage to a second voltage; wherein based at least in part on the comparison, a one bit indicator is determined, the one bit indicator indicates whether the first voltage indicates a change in a state of the nanopore, and in the event it is determined that the first voltage indicates a the change in the state of the nanopore, a multiple bit indicator is provided for output, wherein the one bit indicator is concatenated with a plurality of other one bit indicators corresponding to a plurality of other nanopores into the multiple bit indicator to form a bit array, and wherein detecting the first voltage includes detecting a voltage of a capacitor electrically coupled to the nanopore.
A tensioning system , comprising: an adjustable tensioning cable ; and a knitted component that comprises at least one knit anchor having a channel for receiving the tensioning cable, wherein the tensioning cable extends through the channel, and wherein the channel of the at least one anchor extends along an arc, wherein the upper further comprises at least one inlaid strand inlaid within the knitted component, the inlaid strand extending around an outer perimeter of the channel, and wherein the inlaid strand is formed of a substantially inelastic material. an adjustable tensioning cable ; and a knitted component that comprises at least one knit anchor having a channel for receiving the tensioning cable, wherein the tensioning cable extends through the channel, and wherein the channel of the at least one anchor extends along an arc, wherein the upper further comprises at least one inlaid strand inlaid within the knitted component, the inlaid strand extending around an outer perimeter of the channel, and wherein the inlaid strand is formed of a substantially inelastic material.