mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft monument for use in a cabin of an aircraft , the aircraft monument comprising: a monument assembly having a frame , the frame having a plurality of walls defining a compartment , the plurality of walls including a first end wall having a forward section at a forward plane of the frame , the compartment being defined rearward of the forward section ; and a seat assembly forward of the frame , the seat assembly further comprising a passenger seat , the seat assembly having a shell configured to at least partially surround the passenger seat , the shell having a rear rearward of the forward plane of the frame ; and wherein: the shell comprises a first end wall , defining the rear ; the first end wall of the shell mirrors the first end wall of the frame ; the first end wall of the shell comprises a forward section and a rear section ; the passenger seat comprises a seat and a backrest ; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell . a monument assembly having a frame , the frame having a plurality of walls defining a compartment , the plurality of walls including a first end wall having a forward section at a forward plane of the frame , the compartment being defined rearward of the forward section ; and a seat assembly forward of the frame , the seat assembly further comprising a passenger seat , the seat assembly having a shell configured to at least partially surround the passenger seat , the shell having a rear rearward of the forward plane of the frame ; and wherein: the shell comprises a first end wall , defining the rear ; the first end wall of the shell mirrors the first end wall of the frame ; the first end wall of the shell comprises a forward section and a rear section ; the passenger seat comprises a seat and a backrest ; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell . the shell comprises a first end wall , defining the rear ; the first end wall of the shell mirrors the first end wall of the frame ; the first end wall of the shell comprises a forward section and a rear section ; the passenger seat comprises a seat and a backrest ; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell .
A time switch device comprising: a casing ; a first electronic module having a first processing unit configured to manage a programming of the time switch device ; and a second electronic module , distinct from the first electronic module and housed in the casing together with the first electronic module , having: a second processing unit , communicatively coupled to the first processing unit ; a switching unit , comprising at least one switch element, coupled to the second processing unit and to a switching output of said time switch device ; and a driving unit , coupled to the second processing unit and to a driving output of the time switch device , comprising analogue circuits designed to provide a number of driving signals (S 1 , S 2 ), wherein said first processing unit is designed to generate, based on said programming, a control signal (S c ) for said second processing unit , and said second processing unit is designed to manage the selective activation of said at least one switch element and the generation of said driving signals (S 1 , S 2 ) based on said control signal (S c ), said control signal (S c ) being a digital signal encoding control information for the selective activation of said at least one switch element and the generation of said driving signals (S 1 , S 2 ). a casing ; a first electronic module having a first processing unit configured to manage a programming of the time switch device ; and a second electronic module , distinct from the first electronic module and housed in the casing together with the first electronic module , having: a second processing unit , communicatively coupled to the first processing unit ; a switching unit , comprising at least one switch element, coupled to the second processing unit and to a switching output of said time switch device ; and a driving unit , coupled to the second processing unit and to a driving output of the time switch device , comprising analogue circuits designed to provide a number of driving signals (S 1 , S 2 ), wherein said first processing unit is designed to generate, based on said programming, a control signal (S c ) for said second processing unit , and said second processing unit is designed to manage the selective activation of said at least one switch element and the generation of said driving signals (S 1 , S 2 ) based on said control signal (S c ), said control signal (S c ) being a digital signal encoding control information for the selective activation of said at least one switch element and the generation of said driving signals (S 1 , S 2 ).
A method for producing an acrylonitrile-based fiber, the method comprising: preparing a polymer solution comprising an acrylonitrile-based copolymer containing a carboxylic acid group; mixing 100 parts by weight of the polymer solution with 1 to 6 parts by weight of a hydrophilization solution comprising an organic solvent and ammonia water in a weight ratio of 95:5 to 60:40 to prepare a spinning stock solution; and spinning the spinning stock solution. preparing a polymer solution comprising an acrylonitrile-based copolymer containing a carboxylic acid group; mixing 100 parts by weight of the polymer solution with 1 to 6 parts by weight of a hydrophilization solution comprising an organic solvent and ammonia water in a weight ratio of 95:5 to 60:40 to prepare a spinning stock solution; and spinning the spinning stock solution.
A method for optimized route mobility management, the method comprising: determining that a mobile node moves from a first network to a second network; in response to determining the movement of the mobile node, receiving , at an access/gateway router of the second network, a prefix delegation message from a router of the first network, the prefix delegation message configured for movement of an IP prefix associated with a communication session of the mobile node from the first network to the second network, the prefix delegation message comprising the IP prefix previously allocated to the first network; updating a routing table to reflect the moved IP prefix; deprecating the IP prefix; initializing a deprecation timer with a predetermined deprecation time period for the deprecated IP prefix; re-initializing the deprecation timer with the predetermined deprecation time period if the IP prefix is used in the first network; and expiring the deprecated IP prefix when the deprecation timer expires. determining that a mobile node moves from a first network to a second network; in response to determining the movement of the mobile node, receiving , at an access/gateway router of the second network, a prefix delegation message from a router of the first network, the prefix delegation message configured for movement of an IP prefix associated with a communication session of the mobile node from the first network to the second network, the prefix delegation message comprising the IP prefix previously allocated to the first network; updating a routing table to reflect the moved IP prefix; deprecating the IP prefix; initializing a deprecation timer with a predetermined deprecation time period for the deprecated IP prefix; re-initializing the deprecation timer with the predetermined deprecation time period if the IP prefix is used in the first network; and expiring the deprecated IP prefix when the deprecation timer expires.
A reverse-osmosis system comprising: a reverse-osmosis stage having a semi-permeable membrane, a feed inlet , a permeate outlet and a concentrate outlet , wherein the feed inlet is configured to receive feed water having a feed-water flow rate; a concentrate valve configured to control the pressure of the concentrate outlet; a sensor array having: a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a controller configured to receive information from the sensor array and determine the permeate flow, the permeate salinity and the energy use, wherein the controller is configured to enable control of the feed-water flow rate and the position of the concentrate valve based on the received information to meet predetermined permeate flow and permeate salinity criteria and to reduce energy consumption. a reverse-osmosis stage having a semi-permeable membrane, a feed inlet , a permeate outlet and a concentrate outlet , wherein the feed inlet is configured to receive feed water having a feed-water flow rate; a concentrate valve configured to control the pressure of the concentrate outlet; a sensor array having: a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a feed pressure sensor; at least one of: a feed salinity and a conductivity sensor; a feed temperature sensor; at least two flow sensors configured to measure at least two of: feed flow, permeate flow, and concentrate flow; at least one of: a permeate salinity and a conductivity sensor; a differential pressure sensor configured to measure the difference between the feed pressure and the concentrate pressure; and a permeate pressure sensor; and a controller configured to receive information from the sensor array and determine the permeate flow, the permeate salinity and the energy use, wherein the controller is configured to enable control of the feed-water flow rate and the position of the concentrate valve based on the received information to meet predetermined permeate flow and permeate salinity criteria and to reduce energy consumption.
A flow control device comprising: a housing having a flow passage including an inlet flow passage and an outlet flow passage ; a tube in the housing and defining a tube passage included in the flow passage; a valve seat in the flow passage and facing an inlet to the tube; a liner within the housing and fixed with respect to the housing, separated from the flow passage, and including at least one slot ; and a drain check shuttle assembly in the housing and configured to move relative to the housing and the tube, wherein the drain check shuttle assembly has: a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and the drain check shuttle assembly includes a cylindrical carrier including an opening through which extends the tube, characterized in that the cylindrical carrier extends into the liner and is in sliding contact with the liner. a housing having a flow passage including an inlet flow passage and an outlet flow passage ; a tube in the housing and defining a tube passage included in the flow passage; a valve seat in the flow passage and facing an inlet to the tube; a liner within the housing and fixed with respect to the housing, separated from the flow passage, and including at least one slot ; and a drain check shuttle assembly in the housing and configured to move relative to the housing and the tube, wherein the drain check shuttle assembly has: a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and the drain check shuttle assembly includes a cylindrical carrier including an opening through which extends the tube, characterized in that the cylindrical carrier extends into the liner and is in sliding contact with the liner.
A vehicle notification device comprising: a plurality of vibrators (EX1, EX2, EX3, EX4) independently disposed in a seat ; a storage unit configured to store a plurality of pieces of signal data that are different in a combination of an initial frequency and a target frequency; and a signal generator configured to randomly extract one of the pieces of signal data stored in the storage unit by the number of the vibrators (EX1, EX2, EX3, EX4) and to generate a plurality of sweep signals corresponding to the number of the vibrators (EX1, EX2, EX3, EX4), each of the sweep signals being generated by changing a frequency from the initial frequency to the target frequency of the extracted piece of signal data in cycles, wherein a plurality of notification vibrations whose frequencies change in different frequency ranges are outputted from a plurality of positions of the seat by outputting the sweep signals generated by the signal generator , individually from the vibrators (EX1, EX2, EX3, EX4). a plurality of vibrators (EX1, EX2, EX3, EX4) independently disposed in a seat ; a storage unit configured to store a plurality of pieces of signal data that are different in a combination of an initial frequency and a target frequency; and a signal generator configured to randomly extract one of the pieces of signal data stored in the storage unit by the number of the vibrators (EX1, EX2, EX3, EX4) and to generate a plurality of sweep signals corresponding to the number of the vibrators (EX1, EX2, EX3, EX4), each of the sweep signals being generated by changing a frequency from the initial frequency to the target frequency of the extracted piece of signal data in cycles, wherein a plurality of notification vibrations whose frequencies change in different frequency ranges are outputted from a plurality of positions of the seat by outputting the sweep signals generated by the signal generator , individually from the vibrators (EX1, EX2, EX3, EX4).
A heat exchanger core , comprising: a plurality of flat tubes spaced apart from and parallel with one another along a thickness direction thereof, each flat tube having a length direction oriented along a vertical direction; and a plurality of fins , wherein each fin is disposed between adjacent flat tubes and comprises a plurality of fin units arranged along the length direction of the flat tube and sequentially connected into a corrugated shape, each fin unit has a windward end portion and a leeward end portion opposite to each other in a width direction of the flat tube , and at least one of the windward end portion and the leeward end portion of each fin unit extends beyond the plurality of flat tubes along the width direction of the flat tube and is provided with a drain hole , characterised in that the at least one of the windward end portion and the leeward end portion of each fin unit is further provided with a protrusion , wherein the protrusion of each fin unit comprises a first protrusion segment and a second protrusion segment , and the drain hole is located between the first protrusion segment and the second protrusion segment in the thickness direction of the flat tube . a plurality of flat tubes spaced apart from and parallel with one another along a thickness direction thereof, each flat tube having a length direction oriented along a vertical direction; and a plurality of fins , wherein each fin is disposed between adjacent flat tubes and comprises a plurality of fin units arranged along the length direction of the flat tube and sequentially connected into a corrugated shape, each fin unit has a windward end portion and a leeward end portion opposite to each other in a width direction of the flat tube , and at least one of the windward end portion and the leeward end portion of each fin unit extends beyond the plurality of flat tubes along the width direction of the flat tube and is provided with a drain hole , characterised in that the at least one of the windward end portion and the leeward end portion of each fin unit is further provided with a protrusion , wherein the protrusion of each fin unit comprises a first protrusion segment and a second protrusion segment , and the drain hole is located between the first protrusion segment and the second protrusion segment in the thickness direction of the flat tube .
A backlight for a display, comprising: light source circuit units which are arranged side-by-side; and a circuit substrate that has a light-reflective wiring pattern on a surface thereof; wherein each light source circuit unit comprises: a pedestal having a circular form and formed of a water-repellent agent and having a sealing lens thereon, wherein the pedestal is provided on the circuit substrate and has a shape that determines the shape and position of the sealing lens without a wiring function; ; and a reflective sheet provided in common with the plurality of the light source circuit units and having one or more openings corresponding to each of the one or more light-emitting device chips over the circuit substrate , characterised in that each light source circuit unit comprises a chip mounting layer not being the pedestal; and that one or two or more light-emitting device chips are mounted on the chip mounting layer not being the pedestal of each light source unit by die bonding, and driven by a current that flows through the wiring pattern, wherein the chip mounting layer is formed using the same material as the wiring pattern. light source circuit units which are arranged side-by-side; and a circuit substrate that has a light-reflective wiring pattern on a surface thereof; wherein each light source circuit unit comprises: a pedestal having a circular form and formed of a water-repellent agent and having a sealing lens thereon, wherein the pedestal is provided on the circuit substrate and has a shape that determines the shape and position of the sealing lens without a wiring function; ; and a reflective sheet provided in common with the plurality of the light source circuit units and having one or more openings corresponding to each of the one or more light-emitting device chips over the circuit substrate , a pedestal having a circular form and formed of a water-repellent agent and having a sealing lens thereon, wherein the pedestal is provided on the circuit substrate and has a shape that determines the shape and position of the sealing lens without a wiring function; ; and a reflective sheet provided in common with the plurality of the light source circuit units and having one or more openings corresponding to each of the one or more light-emitting device chips over the circuit substrate , characterised in that each light source circuit unit comprises a chip mounting layer not being the pedestal; and that one or two or more light-emitting device chips are mounted on the chip mounting layer not being the pedestal of each light source unit by die bonding, and driven by a current that flows through the wiring pattern, wherein the chip mounting layer is formed using the same material as the wiring pattern.
An endoscope shape display device that displays a shape of an endoscope , the endoscope shape display device comprising: an estimation unit configured to estimate the shape of the endoscope ; a reliability calculation unit configured to calculate reliability of the shape of the endoscope estimated by the estimation unit; and a display unit configured to display an image indicating the shape of the endoscope estimated by the estimation unit , characterized in that the display unit is configured to display, in a fade-out mode, at least a part of the image indicating the shape of the endoscope according to the reliability calculated by the reliability calculation unit , wherein at least said part of the image gradually disappears in the fade-out mode. an estimation unit configured to estimate the shape of the endoscope ; a reliability calculation unit configured to calculate reliability of the shape of the endoscope estimated by the estimation unit; and a display unit configured to display an image indicating the shape of the endoscope estimated by the estimation unit , characterized in that the display unit is configured to display, in a fade-out mode, at least a part of the image indicating the shape of the endoscope according to the reliability calculated by the reliability calculation unit , wherein at least said part of the image gradually disappears in the fade-out mode.
A method of estimating an effectiveness of an ablation lesion in a tissue, the method comprising: receiving lesion effectiveness parameters ; and estimating an effectiveness of the lesion in the tissue; wherein the estimating is based on use by computer circuitry of an estimator constructed based on observed associations between previously analyzed lesion effectiveness parameters, and observed lesion effectiveness, the estimator being applied to the received lesion effectiveness parameters ; and characterised in that the lesion effectiveness parameters comprise parameters of the pre-lesioning condition of the tissue . receiving lesion effectiveness parameters ; and estimating an effectiveness of the lesion in the tissue; wherein the estimating is based on use by computer circuitry of an estimator constructed based on observed associations between previously analyzed lesion effectiveness parameters, and observed lesion effectiveness, the estimator being applied to the received lesion effectiveness parameters ; and characterised in that the lesion effectiveness parameters comprise parameters of the pre-lesioning condition of the tissue .
Use of a ball screw drive for activating a self-closing, linearly activated fitting , wherein a nut of the ball screw drive for opening the fitting is driven by an electric motor so as to thereby move in a translatory manner a spindle of the ball screw drive in the opening direction of the fitting and to open the fitting , and wherein for closing the fitting a linear restoring movement, in particular a relaxing movement, is transmitted to the spindle , characterized in that the spindle at the end of the restoring movement continues to run and is axially released from a connection to the fitting , wherein a restoring force that has been introduced into the spindle by the restoring movement, in the direction of force, is at least partially dissipated behind the ball screw drive , specifically by a centrifugal brake of an actuating drive connected to the ball screw drive .