mhurhangee/patent-ind-claim-en huggingface dataset:
A method for recycling CO 2 from CO 2 containing inputs to produce hydrocarbon products, the method including the steps of: (i) capturing CO 2 from at least one CO 2 containing input; (ii) producing a CO 2 feed stream from the captured CO 2 ; (iii) reacting the CO 2 feed stream with a H 2 feed stream to produce a methane containing output; (iv) separating the methane containing output so as to at least provide methane and a first waste output; (v) processing methane from the methane containing output to produce acetylene containing output; and, (vi) separating the acetylene containing output so as to at least provide acetylene and a second waste output; wherein the first waste output is incinerated or gasified to provide one of the at least one CO 2 containing inputs for step (i). (i) capturing CO 2 from at least one CO 2 containing input; (ii) producing a CO 2 feed stream from the captured CO 2 ; (iii) reacting the CO 2 feed stream with a H 2 feed stream to produce a methane containing output; (iv) separating the methane containing output so as to at least provide methane and a first waste output; (v) processing methane from the methane containing output to produce acetylene containing output; and, (vi) separating the acetylene containing output so as to at least provide acetylene and a second waste output;
A method for limiting frequency overshoot in a timing recovery comprising a proportional-integral, PI, control system and a voltage controlled oscillator, VCO, , the method comprising: using the proportional-integral, PI, control system to discipline a frequency of an output signal of the voltage controlled oscillator, VCO, in accordance with a time reference signal; detecting a control signal output of the PI control system which will cause an excess deviation of the frequency which exceeds a predetermined limit; wherein the method is characterized by , in response to the detecting, freezing an output of an integral error term generator of the PI control system at a constant value. using the proportional-integral, PI, control system to discipline a frequency of an output signal of the voltage controlled oscillator, VCO, in accordance with a time reference signal; detecting a control signal output of the PI control system which will cause an excess deviation of the frequency which exceeds a predetermined limit; wherein the method is characterized by , in response to the detecting, freezing an output of an integral error term generator of the PI control system at a constant value.
An aspiration cover of a converter dust cap , wherein the cover is adapted to be mounted on a frame of the converter dust cap and comprises a body , a rotating shutter and movable doors , the body being provided with a gas flue , wherein the rotating shutter has a rotating shutter drive and characterized in that the rotating shutter is rotatable at an angle of up to 25°, and the movable doors comprise a vertical part and an inclined part pivotally connected at an angle of 120-130° to each other and having a movable doors drive .
A method for beam failure recovery, applied to a scenario where a common beam operation is carried out, comprising: when a terminal device in the common beam operation mode detects beam failure in a cell, sending, by the terminal device, a beam failure recovery request message to a network device , wherein the beam failure recovery request message comprises indication of a selected candidate beam; and after the beam failure recovery request message is received by the network device and before the terminal device receives indication of a transmission configuration indicator, TCI, state for common beam operation from the network device, performing, by the terminal device, physical downlink control channel, PDCCH, reception and physical downlink shared channel, PDSCH, reception on the cell by using same antenna port quasi co-location, QCL, parameters as the ones associated with the selected candidate beam ; wherein the TCI state in the common beam operation mode is indicated to provide QCL assumption for all PDCCH and PDSCH reception and spatial setting for the transmission of all the PUSCH, PUCCH and SRS. when a terminal device in the common beam operation mode detects beam failure in a cell, sending, by the terminal device, a beam failure recovery request message to a network device , wherein the beam failure recovery request message comprises indication of a selected candidate beam; and after the beam failure recovery request message is received by the network device and before the terminal device receives indication of a transmission configuration indicator, TCI, state for common beam operation from the network device, performing, by the terminal device, physical downlink control channel, PDCCH, reception and physical downlink shared channel, PDSCH, reception on the cell by using same antenna port quasi co-location, QCL, parameters as the ones associated with the selected candidate beam ; wherein the TCI state in the common beam operation mode is indicated to provide QCL assumption for all PDCCH and PDSCH reception and spatial setting for the transmission of all the PUSCH, PUCCH and SRS.
A polyurethane composition, comprising: a first part, comprising: a first polytetramethylene oxide; a second polytetramethylene oxide, wherein the second polytetramethylene oxide has a higher viscosity than the first polytetramethylene oxide; and a castor oil based polyol; and a second part of methylene diphenyl diisocyanate prepolymer. a first part, comprising: a first polytetramethylene oxide; a second polytetramethylene oxide, wherein the second polytetramethylene oxide has a higher viscosity than the first polytetramethylene oxide; and a castor oil based polyol; and a first polytetramethylene oxide; a second polytetramethylene oxide, wherein the second polytetramethylene oxide has a higher viscosity than the first polytetramethylene oxide; and a castor oil based polyol; and a second part of methylene diphenyl diisocyanate prepolymer.
A commodity introduction counter comprising: a counter for placing commodities; a display disposed on the counter ; a memorizer for storing video files introducing the commodities; an input device for inputting a signal indicating a specific commodity in the commodities; a moving device disposed between the display and the counter , wherein the display can be moved through the moving device to a position corresponding to the specific commodity, wherein the moving device comprises a guiding rail disposed on the counter and a moving member disposed on the display and matched with the guiding rail , the moving member being configured to move along the guiding rail ; and a control device for receiving the signal, obtaining the specific video file corresponding to the specific commodity from the video files stored in the memorizer , and controlling the display to display the specific video file, wherein the counter has an identity marker corresponding to the specific commodity, and the input device is a reading device disposed on the display to read the identity marker to form the signal. a counter for placing commodities; a display disposed on the counter ; a memorizer for storing video files introducing the commodities; an input device for inputting a signal indicating a specific commodity in the commodities; a moving device disposed between the display and the counter , wherein the display can be moved through the moving device to a position corresponding to the specific commodity, wherein the moving device comprises a guiding rail disposed on the counter and a moving member disposed on the display and matched with the guiding rail , the moving member being configured to move along the guiding rail ; and a control device for receiving the signal, obtaining the specific video file corresponding to the specific commodity from the video files stored in the memorizer , and controlling the display to display the specific video file, wherein the counter has an identity marker corresponding to the specific commodity, and the input device is a reading device disposed on the display to read the identity marker to form the signal.
A scroll device comprising: a fixed scroll comprising a first involute and a first cooling chamber; an orbiting scroll comprising a second involute and a second cooling chamber, the orbiting scroll mounted to the fixed scroll via a mechanical coupling, the orbiting scroll configured to orbit relative to the fixed scroll around an orbital axis ; the orbital axis extending longitudinally from one end to another end of the scroll device and a flexible conduit in fluid communication with the first cooling chamber and the second cooling chamber, characterized in that the flexible conduit extends around the orbital axis from a first side of the scroll device to a second side of the scroll device , wherein the flexible conduit curves around the orbital axis and crosses from one side of the orbital axis to an opposite side thereof. a fixed scroll comprising a first involute and a first cooling chamber; an orbiting scroll comprising a second involute and a second cooling chamber, the orbiting scroll mounted to the fixed scroll via a mechanical coupling, the orbiting scroll configured to orbit relative to the fixed scroll around an orbital axis ; the orbital axis extending longitudinally from one end to another end of the scroll device and a flexible conduit in fluid communication with the first cooling chamber and the second cooling chamber,
An end effector for use by a surgeon to staple an anatomical structure of a patient during a surgical procedure, the anatomical structure having a first side and a second side, the end effector comprising: an anvil that includes a first end, a second end, and a face that is positionable on the first side of the anatomical structure ; and a cartridge that is configured to house a plurality of staples and that includes a first end, a second end, and a face that is positionable on the second side of the anatomical structure, the anvil being movable relative to the cartridge to define a first gap between the faces at the first ends that is less than a second gap between the faces at the second ends characterized in that the end effector further comprises a flexible member that movably couples the first end of the anvil to the first end of the cartridge , and that movably couples the second end of the anvil to the second end of the cartridge, wherein the cartridge slidably receives the flexible member when the end effector is clamped on to the anatomical structure, wherein the flexible member is anchored to the anvil at a position adjacent each of the first end and the second end of the anvil, wherein the end effector further comprises a tensioning device operable by the surgeon for selectively tensioning the flexible member to provide a substantially symmetrical closing force on tissue situated between the anvil and the cartridge . an anvil that includes a first end, a second end, and a face that is positionable on the first side of the anatomical structure ; and a cartridge that is configured to house a plurality of staples and that includes a first end, a second end, and a face that is positionable on the second side of the anatomical structure, the anvil being movable relative to the cartridge to define a first gap between the faces at the first ends that is less than a second gap between the faces at the second ends characterized in that the end effector further comprises a flexible member that movably couples the first end of the anvil to the first end of the cartridge , and that movably couples the second end of the anvil to the second end of the cartridge, wherein the cartridge slidably receives the flexible member when the end effector is clamped on to the anatomical structure, wherein the flexible member is anchored to the anvil at a position adjacent each of the first end and the second end of the anvil,
Underwater drilling apparatus for creating a cased borehole under water, comprising - a lowerable platform configured for setting down on a waterbody bottom , - at least one support tube axially displaceable and rotatably mounted on the platform , - at least one tubular drive arranged on the platform and configured for rotationally driving the support tube , in order to rotationally introduce the support tube into the waterbody bottom , - at least one in-hole drilling rig arranged in the support tube , wherein the in-hole drilling rig comprises: -- a rig base body , -- at least one clamping device for bracing and securing the in-hole drilling rig in the support tube , -- a drill drive on the rig base body , and -- a drill head which is axially displaceable and rotatably mounted on the rig base body and can be rotationally driven by means of the drill drive , - wherein when rotationally driving the support tube , the in-hole drilling rig is arranged in the support tube and is axially clamped thereto, so that the in-hole drilling device rotates with the rotating support tube , characterized in that the underwater drilling device is configured in such a way that when the support tube is driven in rotation, the drill head can be driven simultaneously in the same or the opposite direction of rotation to the support tube relative to the rig base body . - a lowerable platform configured for setting down on a waterbody bottom , - at least one support tube axially displaceable and rotatably mounted on the platform , - at least one tubular drive arranged on the platform and configured for rotationally driving the support tube , in order to rotationally introduce the support tube into the waterbody bottom , - at least one in-hole drilling rig arranged in the support tube , wherein the in-hole drilling rig comprises: -- a rig base body , -- at least one clamping device for bracing and securing the in-hole drilling rig in the support tube , -- a drill drive on the rig base body , and -- a drill head which is axially displaceable and rotatably mounted on the rig base body and can be rotationally driven by means of the drill drive , -- a rig base body , -- at least one clamping device for bracing and securing the in-hole drilling rig in the support tube , -- a drill drive on the rig base body , and -- a drill head which is axially displaceable and rotatably mounted on the rig base body and can be rotationally driven by means of the drill drive , - wherein when rotationally driving the support tube , the in-hole drilling rig is arranged in the support tube and is axially clamped thereto, so that the in-hole drilling device rotates with the rotating support tube ,
An apparatus for forming an energy storage device electrode film mixture, comprising: a first source comprising a polymer dispersion, wherein the polymer dispersion comprises a polymer binder and a critical or supercritical fluid, and wherein the polymer binder is a first component of an energy storage device electrode film mixture; a second source comprising a second component of the energy storage device electrode film mixture, wherein the second component comprises an electrode active material; a mixer configured to receive the polymer dispersion and the second component, and to form a slurry comprising the polymer dispersion and the second component; and a decompressor configured to receive and decompress the slurry, and further configured to vaporize the critical or supercritical fluid and deposit dry polymer binder onto the second component. a first source comprising a polymer dispersion, wherein the polymer dispersion comprises a polymer binder and a critical or supercritical fluid, and wherein the polymer binder is a first component of an energy storage device electrode film mixture; a second source comprising a second component of the energy storage device electrode film mixture, wherein the second component comprises an electrode active material; a mixer configured to receive the polymer dispersion and the second component, and to form a slurry comprising the polymer dispersion and the second component; and a decompressor configured to receive and decompress the slurry, and further configured to vaporize the critical or supercritical fluid and deposit dry polymer binder onto the second component.
A printing apparatus that performs printing on a medium (M) unwound from a roll body (RA) having the medium (M) wound into a cylindrical shape, the printing apparatus comprising: an unwinding unit that rotatably holds the roll body (RA) and unwinds the medium (M) by rotating the roll body (RA); a transport unit that transports the medium (M) unwound from the unwinding unit ; and a printing unit that performs printing on the medium (M) transported by the transport unit , wherein the unwinding unit includes a first rotary body that is integrally rotatable with the roll body (RA) by engaging with a first end of the roll body (RA), a second rotary body that is integrally rotatable with the roll body (RA) by engaging with a second end of the roll body (RA), and characterized in that : the unwinding unit further includes a first drive unit that rotatably drives the first rotary body , and a second drive unit that rotatably drives the second rotary body . an unwinding unit that rotatably holds the roll body (RA) and unwinds the medium (M) by rotating the roll body (RA); a transport unit that transports the medium (M) unwound from the unwinding unit ; and a printing unit that performs printing on the medium (M) transported by the transport unit , wherein the unwinding unit includes a first rotary body that is integrally rotatable with the roll body (RA) by engaging with a first end of the roll body (RA), a second rotary body that is integrally rotatable with the roll body (RA) by engaging with a second end of the roll body (RA), and characterized in that : the unwinding unit further includes a first drive unit that rotatably drives the first rotary body , and a second drive unit that rotatably drives the second rotary body .
A method of calculating and outputting pressure information about the status of an actual pressure of a gas bottle of an aircraft door damper at 20 0 C, performed on a smart device, said method comprising, on the smart device: receiving, from a non-compensated pressure gauge, a pressure input indicating an actual pressure of said gas bottle of said aircraft door damper at ambient temperature , receiving a temperature input indicating an actual temperature of said gas bottle of said aircraft door damper , and using said inputs to calculate and convert said actual pressure of said gas bottle of said aircraft door damper at ambient temperature to a pressure at a temperature of 20°C , and further comprising outputting pressure information about the status of the gas bottle of said aircraft door damper based on said converted pressure at 20°C . said method comprising, on the smart device: receiving, from a non-compensated pressure gauge, a pressure input indicating an actual pressure of said gas bottle of said aircraft door damper at ambient temperature , receiving a temperature input indicating an actual temperature of said gas bottle of said aircraft door damper , and using said inputs to calculate and convert said actual pressure of said gas bottle of said aircraft door damper at ambient temperature to a pressure at a temperature of 20°C , and further comprising outputting pressure information about the status of the gas bottle of said aircraft door damper based on said converted pressure at 20°C .
A method for measuring properties of a flowing multiphase mixture comprising the following steps of: rapidly and repeatedly measuring an electrical property of the multiphase mixture over a period of time; processing the rapid and repeated measurements to determine a succession of values of permittivity and/or a conductivity of a liquid phase of the multiphase mixture within the said period of time; further processing the succession of values of a permittivity and/or a conductivity of the liquid phase to determine at least one of a water-in-liquid-ratio and a liquid holdup of the multiphase mixture from the permittivity and/or a conductivity; and detecting peak values in the succession of values of permittivity and/or conductivity and processing the peak values to determine at least a water-in-liquid-ratio of the multiphase mixture , characterized in that the multiphase mixture comprises three phases, and the step of rapidly and repeatedly measuring an electrical property of the multiphase mixture over a period of time is carried out using at least two sensing electrodes positioned around the same cross section through the flowing mixture , wherein conditional time averaging is used to allow the identification of liquid slugs and liquid properties in the three phase mixture. rapidly and repeatedly measuring an electrical property of the multiphase mixture over a period of time; processing the rapid and repeated measurements to determine a succession of values of permittivity and/or a conductivity of a liquid phase of the multiphase mixture within the said period of time; further processing the succession of values of a permittivity and/or a conductivity of the liquid phase to determine at least one of a water-in-liquid-ratio and a liquid holdup of the multiphase mixture from the permittivity and/or a conductivity; and detecting peak values in the succession of values of permittivity and/or conductivity and processing the peak values to determine at least a water-in-liquid-ratio of the multiphase mixture , characterized in that the multiphase mixture comprises three phases, and the step of rapidly and repeatedly measuring an electrical property of the multiphase mixture over a period of time is carried out using at least two sensing electrodes positioned around the same cross section through the flowing mixture , wherein conditional time averaging is used to allow the identification of liquid slugs and liquid properties in the three phase mixture.
An inductor assembly comprising: a coil including a spirally wound metal foil ; a terminal bus bar electrically connected to the metal foil and including a terminal (T1, T2); characterized in that an electrically insulating polymeric tube surrounds a portion of the terminal bus bar. a coil including a spirally wound metal foil ; a terminal bus bar electrically connected to the metal foil and including a terminal (T1, T2); characterized in that an electrically insulating polymeric tube surrounds a portion of the terminal bus bar.
A method of producing a cascade array for thrust reversers for aircraft propulsion systems, comprising: forming a plurality of strongbacks from a first thermoplastic material; and forming a plurality of comb subassemblies , each said comb subassembly including one of the plurality of strongbacks and a plurality of vanes comprising a second thermoplastic material extending outwardly from the respective one of the plurality strongbacks characterized by : subsequent to forming the plurality of comb subassemblies , attaching the plurality of comb subassemblies into a unitary structure to produce the cascade array , wherein each comb subassembly is formed by overmolding the respective one of the plurality of strongbacks with the second thermoplastic material to form the plurality of vanes . forming a plurality of strongbacks from a first thermoplastic material; and forming a plurality of comb subassemblies , each said comb subassembly including one of the plurality of strongbacks and a plurality of vanes comprising a second thermoplastic material extending outwardly from the respective one of the plurality strongbacks characterized by : subsequent to forming the plurality of comb subassemblies , attaching the plurality of comb subassemblies into a unitary structure to produce the cascade array , wherein each comb subassembly is formed by overmolding the respective one of the plurality of strongbacks with the second thermoplastic material to form the plurality of vanes .