mhurhangee/patent-ind-claim-en huggingface dataset:
Tank device for storing a gaseous medium, in particular hydrogen, having a valve device and a tank , wherein the valve device has a valve housing with a longitudinal axis , in which valve housing is formed an inner chamber , in which inner chamber a main valve element movable along the longitudinal axis is arranged, which main valve element interacts with a first valve seat and thus forms a main valve , wherein a pilot valve element movable along the longitudinal axis is arranged coaxially with the main valve element , which pilot valve element interacts with a second valve seat in order to open and close an inlet opening and thus forms a pilot valve , wherein the valve device comprises a magnet coil , characterized in that the inlet opening is arranged in the valve housing coaxially with an outlet opening , whereby the gaseous medium can flow toward the valve device or away therefrom axially with respect to the longitudinal axis , and the magnet coil is arranged in the valve housing and surrounds the main valve element and the pilot valve element .
A process for preparing a bonding sheet for composing circuit substrate, comprising the steps of preparing a pre-treating varnish having a dielectric constant (DK) equal to DK ± 5% of glass fabric being used, the dielectric constant is measured by SPDR method under a frequency of 10 GHz; pre-glue-dipping the glass fabric in the pre-treating varnish, and oven-drying solvent to obtain a pre-treated glass fabric; and main-glue-dipping the pre-treated glass fabric, and oven-drying solvent to obtain a bonding sheet; wherein the pre-treated glass fabric has a resin content of from 25 wt.% to 50 wt.% and has a mass per unit area of less than 30 g/m 2 ; or alternatively, the pre-treated glass fabric has a resin content of from 20 wt.% to 45 wt.% and has a mass per unit area of from 30 g/m 2 to 100 g/m 2 ; or alternatively, the pre-treated glass fabric has a resin content of from 20 wt.% to 40 wt.% and has a mass per unit area of from 100 g/m 2 to 175 g/m 2 . preparing a pre-treating varnish having a dielectric constant (DK) equal to DK ± 5% of glass fabric being used, the dielectric constant is measured by SPDR method under a frequency of 10 GHz; pre-glue-dipping the glass fabric in the pre-treating varnish, and oven-drying solvent to obtain a pre-treated glass fabric; and main-glue-dipping the pre-treated glass fabric, and oven-drying solvent to obtain a bonding sheet;
A tidal current information display device for a movable body, for displaying tidal current information on a display screen , comprising: a tidal current information receiving terminal configured to receive tidal current information including a position of a tidal current on a chart of a region including the movable body, and a plurality of predicted tidal current directions of the tidal current at said position at a corresponding plurality of time instants; and a tidal current display data generation terminal configured to: generate an indicator including a time scale determined according to the plurality of time instants; determine a position of each predicted tidal current direction on the time scale at each respective time instant; characterized in that the tidal current display data generation terminal is further configured to: generate a plurality of symbols for respective positions on the time scale, each symbol indicating the respective predicted tidal current direction at the respective time instant; and output the indicator including the plurality of symbols to the display screen. a tidal current information receiving terminal configured to receive tidal current information including a position of a tidal current on a chart of a region including the movable body, and a plurality of predicted tidal current directions of the tidal current at said position at a corresponding plurality of time instants; and a tidal current display data generation terminal configured to: generate an indicator including a time scale determined according to the plurality of time instants; determine a position of each predicted tidal current direction on the time scale at each respective time instant; characterized in that the tidal current display data generation terminal is further configured to: generate a plurality of symbols for respective positions on the time scale, each symbol indicating the respective predicted tidal current direction at the respective time instant; and output the indicator including the plurality of symbols to the display screen. generate an indicator including a time scale determined according to the plurality of time instants; determine a position of each predicted tidal current direction on the time scale at each respective time instant; characterized in that the tidal current display data generation terminal is further configured to: generate a plurality of symbols for respective positions on the time scale, each symbol indicating the respective predicted tidal current direction at the respective time instant; and output the indicator including the plurality of symbols to the display screen. generate a plurality of symbols for respective positions on the time scale, each symbol indicating the respective predicted tidal current direction at the respective time instant; and output the indicator including the plurality of symbols to the display screen.
A computing device , comprising: a policy agent configured to receive activity information, apply at least one display policy to the activity information, and determine at least one command based on results of the at least one display policy being applied to the activity information; and a multi-colored indicator unit , located on a non-display screen area of the computing device , configured to display at least one of a plurality of colors based on the at least one command, wherein the activity information includes Internet activity, and the at least one display policy includes an Internet usage control policy relating to control of the Internet activity, wherein the policy agent is configured to apply the Internet usage control policy to the Internet activity and determine the at least one command based on results of the Internet usage control policy being applied to the Internet activity, whereby the policy agent is configured to operate in conjunction with existing network filtering mechanisms already associated with an operating system and/or web browsers or search engines such that the policy agent is notified when the existing network filtering mechanism is activated causing the policy agent to apply the Internet usage control policy to a type of Internet activity classified by the existing network filtering mechanism. a policy agent configured to receive activity information, apply at least one display policy to the activity information, and determine at least one command based on results of the at least one display policy being applied to the activity information; and a multi-colored indicator unit , located on a non-display screen area of the computing device , configured to display at least one of a plurality of colors based on the at least one command, wherein the activity information includes Internet activity, and the at least one display policy includes an Internet usage control policy relating to control of the Internet activity, wherein the policy agent is configured to apply the Internet usage control policy to the Internet activity and determine the at least one command based on results of the Internet usage control policy being applied to the Internet activity, whereby the policy agent is configured to operate in conjunction with existing network filtering mechanisms already associated with an operating system and/or web browsers or search engines such that the policy agent is notified when the existing network filtering mechanism is activated causing the policy agent to apply the Internet usage control policy to a type of Internet activity classified by the existing network filtering mechanism.
A patient monitoring system comprising: a signal processing unit configured to process a reflection signal, representing a detected wave reflected from at least a portion of a patient to cut off a portion of said reflection signal corresponding to detected wave reflected from a patient covering object covering at least a portion of a surface of said patient to get a processed reflection signal corresponding to detected wave reflected from said surface of said patient , characterized in that it further comprises: a threshold determining unit configured to determine a cut-off threshold value based on a signal representing a reflection response of a skin of said patient and a signal representing a reflection response of said patient covering object , wherein said signal processing unit is configured to process said reflection signal based on said cut off threshold value to cut off said portion of said reflection signal corresponding to said detected wave reflected from said patient covering object to get said processed reflection signal.
A distributed temperature sensor, comprising: an optical fiber disposed in an area where temperature is to be measured; a primary light source configured to inject light into the optical fiber ; a secondary light source configured to inject light into the optical fiber ; a photodetector configured to detect backscatter light energy from the optical fiber , the backscatter light energy including Stokes Raman scatter or anti-Stokes Raman scatter and primary Rayleigh scatter resulting from the primary light source and secondary Rayleigh scatter resulting from the secondary light source ; and a processor configured to calculate the temperature; characterised in that either: the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs , where S is the Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAs is the secondary Rayleigh backscatter; or the secondary light source operates at a wavelength of the anti-Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: AS RAp RAas , where AS is the anti-Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAas is the secondary Rayleigh backscatter. an optical fiber disposed in an area where temperature is to be measured; a primary light source configured to inject light into the optical fiber ; a secondary light source configured to inject light into the optical fiber ; a photodetector configured to detect backscatter light energy from the optical fiber , the backscatter light energy including Stokes Raman scatter or anti-Stokes Raman scatter and primary Rayleigh scatter resulting from the primary light source and secondary Rayleigh scatter resulting from the secondary light source ; and a processor configured to calculate the temperature; characterised in that either: the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs , the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs , where S is the Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAs is the secondary Rayleigh backscatter; or the secondary light source operates at a wavelength of the anti-Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: AS RAp RAas , where AS is the anti-Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAas is the secondary Rayleigh backscatter.
Induction cable with a plurality of cable cores , each of which having a conductor strand surrounded by an insulation , said conductor strand comprising a plurality of conductor sections , which are spaced apart in the longitudinal direction of the cable at resonance separation points (R) in each case by an insulating intermediate region with at least one insulating intermediate piece , characterized in that a coupling device is formed and a plurality of the conductor strands each have a coupling end at a coupling position (K) and are connected to one another at the coupling position (K) by means of the coupling device , the coupling device being arranged at the resonance separation point (R) and having a coupling module , wherein - at the coupling position , the coupling module has receptacles for the coupling ends of the plurality of conductor strands , the coupling module having a plurality of first receptacles for a first type of connection, and at least one intermediate piece being inserted in each of the first receptacles and/or - the induction cable is divided at the coupling position (K) to form two cable ends , and the coupling device has two coupling parts for bringing the cable ends together, the coupling module having both first receptacles with the integrated intermediate pieces and second receptacles for a second type of connection, two coupling ends being electrically conductively connected to one another in each of the second receptacles . - at the coupling position , the coupling module has receptacles for the coupling ends of the plurality of conductor strands , the coupling module having a plurality of first receptacles for a first type of connection, and at least one intermediate piece being inserted in each of the first receptacles and/or - the induction cable is divided at the coupling position (K) to form two cable ends , and the coupling device has two coupling parts for bringing the cable ends together, the coupling module having both first receptacles with the integrated intermediate pieces and second receptacles for a second type of connection, two coupling ends being electrically conductively connected to one another in each of the second receptacles .
A control system configured to control priming of a catheter assembly , the control system comprising one or more hardware processors , the control system configured to: generate a first user interface including a visual indication of a first instruction corresponding to priming of the catheter assembly to remove gas from the catheter assembly prior to a treatment procedure; monitor one or more sensors of a fluid handling system , the fluid handling system configured to prime the catheter assembly to remove the gas; determine a system condition based in part on the monitoring of the one or more sensors ; and control an operation of a component of the fluid handling system based on the determined system condition, wherein the controlling of the operation comprises controlling, based on the determined system condition, directing of fluid distally through the catheter assembly to remove the gas. generate a first user interface including a visual indication of a first instruction corresponding to priming of the catheter assembly to remove gas from the catheter assembly prior to a treatment procedure; monitor one or more sensors of a fluid handling system , the fluid handling system configured to prime the catheter assembly to remove the gas; determine a system condition based in part on the monitoring of the one or more sensors ; and control an operation of a component of the fluid handling system based on the determined system condition, wherein the controlling of the operation comprises controlling, based on the determined system condition, directing of fluid distally through the catheter assembly to remove the gas.
A method for starting a steam turbine in a combined cycle power plant comprising the steps of: • generating an outlet gas, with a gas turbine outlet temperature, from a gas turbine , • generating a steam from the gas exiting the gas turbine , • pre-warming the steam turbine with the steam, while maintaining a plant output, wherein the method further includes the step of isolating an exhaust of the steam turbine during pre-warming at the exhaust of the steam turbine , • running-up the steam turbine to a minimum load, • loading the steam turbine to a first steam turbine load while maintaining the power plant output essentially constant, and • loading the power plant output to increase the power plant output by loading of either or both the gas turbine and the steam turbine , wherein at least 65% of energy used to pre-warm the steam turbine is derived from a latent heat energy of the steam, and wherein said at least 65% percentage of the energy used is calculated by dividing sensible heat of a superheated portion of the steam by latent heat at a given steam pressure. • generating an outlet gas, with a gas turbine outlet temperature, from a gas turbine , • generating a steam from the gas exiting the gas turbine , • pre-warming the steam turbine with the steam, while maintaining a plant output, wherein the method further includes the step of isolating an exhaust of the steam turbine during pre-warming at the exhaust of the steam turbine , • running-up the steam turbine to a minimum load, • loading the steam turbine to a first steam turbine load while maintaining the power plant output essentially constant, and • loading the power plant output to increase the power plant output by loading of either or both the gas turbine and the steam turbine , wherein at least 65% of energy used to pre-warm the steam turbine is derived from a latent heat energy of the steam, and wherein said at least 65% percentage of the energy used is calculated by dividing sensible heat of a superheated portion of the steam by latent heat at a given steam pressure.
An active multicompartment pressure redistribution system, comprising: a plurality of containment vessels filled with a fluid substance arranged in a matrix, each containment vessel comprising multiple fluid flow channels by means of which each containment vessel is interconnected to all surrounding containment vessels ; a plurality of flow regulators , each flow regulator located in each fluid flow channel; a plurality of pressure sensors , at least one pressure sensor located on each containment vessel ; and a microcontroller in the matrix connected for communication with the plurality of pressure sensors and plurality of flow regulators ; whereby the microcontroller activates the flow regulators in response to data received from the pressure sensors. a plurality of containment vessels filled with a fluid substance arranged in a matrix, each containment vessel comprising multiple fluid flow channels by means of which each containment vessel is interconnected to all surrounding containment vessels ; a plurality of flow regulators , each flow regulator located in each fluid flow channel; a plurality of pressure sensors , at least one pressure sensor located on each containment vessel ; and a microcontroller in the matrix connected for communication with the plurality of pressure sensors and plurality of flow regulators ; whereby the microcontroller activates the flow regulators in response to data received from the pressure sensors.
A device for generating shock waves, the device comprising: an elongated tube ; a balloon wrapped circumferentially around a portion of the elongated tube , the balloon comprising: a distal end sealed to the elongated tube ; a leg segment (N) proximal to the distal end of the balloon ; a cone segment (M) proximal to the leg segment (N) of the balloon ; a straight segment (L) proximal to the cone segment (M) of the balloon ; wherein, when the balloon is inflated: the leg segment (N) is substantially cylindrical or is of a tapered shape with an average diameter, the cone segment (M) is of a tapered shape with an average diameter greater than the average diameter of the leg segment (N), and the straight segment (L) is of a substantially cylindrical shape with a diameter greater than the average diameter of the cone segment (M); at least one distal emitter (E1) configured to generate shock waves, wherein the at least one distal emitter (E1) is positioned in the leg segment (N) or the cone segment (M) of the balloon ; and wherein the leg segment (N) is less than approximately 3.5 mm long, and wherein the cone segment (M) is approximately 4.5 mm to approximately 5.5 mm long. an elongated tube ; a balloon wrapped circumferentially around a portion of the elongated tube , the balloon comprising: a distal end sealed to the elongated tube ; a leg segment (N) proximal to the distal end of the balloon ; a cone segment (M) proximal to the leg segment (N) of the balloon ; a straight segment (L) proximal to the cone segment (M) of the balloon ; wherein, when the balloon is inflated: the leg segment (N) is substantially cylindrical or is of a tapered shape with an average diameter, the cone segment (M) is of a tapered shape with an average diameter greater than the average diameter of the leg segment (N), and the straight segment (L) is of a substantially cylindrical shape with a diameter greater than the average diameter of the cone segment (M); a distal end sealed to the elongated tube ; a leg segment (N) proximal to the distal end of the balloon ; a cone segment (M) proximal to the leg segment (N) of the balloon ; a straight segment (L) proximal to the cone segment (M) of the balloon ; wherein, when the balloon is inflated: the leg segment (N) is substantially cylindrical or is of a tapered shape with an average diameter, the cone segment (M) is of a tapered shape with an average diameter greater than the average diameter of the leg segment (N), and the straight segment (L) is of a substantially cylindrical shape with a diameter greater than the average diameter of the cone segment (M); at least one distal emitter (E1) configured to generate shock waves, wherein the at least one distal emitter (E1) is positioned in the leg segment (N) or the cone segment (M) of the balloon ; and wherein the leg segment (N) is less than approximately 3.5 mm long, and wherein the cone segment (M) is approximately 4.5 mm to approximately 5.5 mm long.
A method for producing induced pluripotent stem cells generated from somatic cells of aged donors (A-iPSCs), the method comprising: supplementing somatic cells of aged donors, simultaneously with or following reprogramming of somatic cells into induced pluripotent stem cells, with an effective amount of at least one of: (i) pluripotency factor ZSCAN10; (ii) pluripotent stem cell-specific glucose transporter 3 (GLUT3); and (iii) an exosome subunit, thereby producing A-iPSCs with one or more of increased DNA damage response, increased apoptosis response, increased glucose metabolism, and increased genomic stability as compared to A-iPSCs not supplemented with at least one of (i), (ii), and (iii).