mhurhangee/patent-ind-claim-en huggingface dataset:
Method for retrofitting a gas turbine that was designed for operation with natural gas or oil, the gas turbine comprising at least a compressor , a first combustion area where fuel is combusted with air fed by the compressor generating a first hot gas, a second combustion area where fuel is combusted with oxygen contained in the first hot gas generating a second hot gas, a turbine where the second hot gas is expanded to collect mechanical power, the method comprising - providing a supply of fuel being hydrogen or mixture containing hydrogen for the first combustion area , - providing a supply of fuel being hydrogen or mixture containing hydrogen for the second combustion area , - providing a supply of water for the first combustion area if not present, - providing a controller arranged for receiving at least a control parameter indicative of the reactivity of the mix of hydrogen or mixture containing hydrogen and first hot gas at the second combustion area and regulating the amount of water supplied to the first combustion area based on the at least a control parameter; characterized in that the controller is provided with a software configured to calculate an auto ignition time of the mix of hydrogen or mixture containing hydrogen and first hot gas. the method comprising - providing a supply of fuel being hydrogen or mixture containing hydrogen for the first combustion area , - providing a supply of fuel being hydrogen or mixture containing hydrogen for the second combustion area , - providing a supply of water for the first combustion area if not present, - providing a controller arranged for receiving at least a control parameter indicative of the reactivity of the mix of hydrogen or mixture containing hydrogen and first hot gas at the second combustion area and regulating the amount of water supplied to the first combustion area based on the at least a control parameter; - providing a supply of fuel being hydrogen or mixture containing hydrogen for the first combustion area , - providing a supply of fuel being hydrogen or mixture containing hydrogen for the second combustion area , - providing a supply of water for the first combustion area if not present, - providing a controller arranged for receiving at least a control parameter indicative of the reactivity of the mix of hydrogen or mixture containing hydrogen and first hot gas at the second combustion area and regulating the amount of water supplied to the first combustion area based on the at least a control parameter; characterized in that the controller is provided with a software configured to calculate an auto ignition time of the mix of hydrogen or mixture containing hydrogen and first hot gas.
A video recording method, comprising the following steps: recording a video in response to receipt of a record instruction, and pausing the recording in response to receipt of a pause instruction, so as to generate a first video file; after the recording is paused, continuing to display a dynamic image which is being captured by an image sensor in real time, and displaying a last frame image of the first video file subjected to transparency processing on the dynamic image in a superimposition manner; continuing to record the video in response to receipt of a continue-to-record instruction, and stopping the recording in response to receipt of a stop instruction, so as to generate a second video file; wherein start time of the continue-to-record instruction for continued recording is determined by comparing the dynamic image with the last frame image of the first video; and splicing the first video file and the second video file into a target video file. recording a video in response to receipt of a record instruction, and pausing the recording in response to receipt of a pause instruction, so as to generate a first video file; after the recording is paused, continuing to display a dynamic image which is being captured by an image sensor in real time, and displaying a last frame image of the first video file subjected to transparency processing on the dynamic image in a superimposition manner; continuing to record the video in response to receipt of a continue-to-record instruction, and stopping the recording in response to receipt of a stop instruction, so as to generate a second video file; wherein start time of the continue-to-record instruction for continued recording is determined by comparing the dynamic image with the last frame image of the first video; and splicing the first video file and the second video file into a target video file.
A display device comprising: a display panel including a flexible substrate; a base film disposed on the display panel ; wherein the base film comprises a first and a second film layer having each a multilayered structure; the base film further comprises a metal layer that is disposed between the first and the second film layers and the first film layer or the second film layer include a first layer and a second layer ; the first layer is disposed between the second layer and the metal layer and has an interface with the metal layer ; characterized in that the first and second film layers are polymer layers and in that an interfacial adhesion between the material of the first layer and the metal layer is stronger than an interfacial adhesion between the material of the second layer and the metal layer . a display panel including a flexible substrate; a base film disposed on the display panel ; wherein the base film comprises a first and a second film layer having each a multilayered structure; the base film further comprises a metal layer that is disposed between the first and the second film layers and the first film layer or the second film layer include a first layer and a second layer ; the first layer is disposed between the second layer and the metal layer and has an interface with the metal layer ; characterized in that the first and second film layers are polymer layers and in that an interfacial adhesion between the material of the first layer and the metal layer is stronger than an interfacial adhesion between the material of the second layer and the metal layer .
A negative electrode active material for a lithium secondary battery, comprising: a carbon-based material being spherical graphite; and a silicon-containing amorphous coating layer disposed on the carbon-based material and represented by SiC X where 0.07<x<0.7, wherein the silicon-containing amorphous coating layer comprises silicon particles having a diameter of 5 nm or less. a carbon-based material being spherical graphite; and a silicon-containing amorphous coating layer disposed on the carbon-based material and represented by SiC X where 0.07<x<0.7, wherein the silicon-containing amorphous coating layer comprises silicon particles having a diameter of 5 nm or less.
A device for measuring a level (L) of a fluid (F) in a container, based on an acoustic measurement principle, comprising - an acoustically active component for transmitting a sound pulse into the fluid (F) and for receiving an echo of the sound pulse, - an electronic circuit arrangement for controlling the transmission of the sound pulse by providing a control signal to the acoustically active component and for processing a reception signal provided by the acoustically active component due to the receipt of the echo, wherein the acoustically active component and the electronic circuit arrangement are combined in a packaged module provided with a plurality of electrical contact elements protruding from an enclosure of the packaged module , wherein the device further comprises a housing provided with electrical conductors embedded in or attached to the housing , wherein the electrical contact elements of the packaged module are electrically connected to the electrical conductors of the housing , characterized in that the acoustically active component is acoustically coupled to the housing so that the sound pulse is only transmitted through the housing to the fluid (F) beyond the housing and the echo is received through the housing . - an acoustically active component for transmitting a sound pulse into the fluid (F) and for receiving an echo of the sound pulse, - an electronic circuit arrangement for controlling the transmission of the sound pulse by providing a control signal to the acoustically active component and for processing a reception signal provided by the acoustically active component due to the receipt of the echo, wherein the acoustically active component and the electronic circuit arrangement are combined in a packaged module provided with a plurality of electrical contact elements protruding from an enclosure of the packaged module ,
An information processing device comprising: a sensor data acquisition unit configured to acquire sensor data provided by a sensor worn by a user or mounted on a piece of equipment used by the user; a sensor data analysis unit configured to detect a turn of the user on the basis of the sensor data, wherein detecting the turn includes detecting a rotation in an action of the user, detecting a non-turning rotation as noise with respect to the turn to be detected included in the sensor data, determining whether a non-turning rotation has been detected, wherein if a non-turning rotation is detected as the noise, detect the turn from the rotation from which the noise has been removed, and if no non-turning rotation has been detected, detecting the turn of the user based on the rotation; and an information generation unit configured to generate information regarding the turn; wherein the sensor includes a sensor mounted on a head on the user or a piece of equipment mounted on the head of the user, wherein the non-turning rotation includes a rotation occurring through a head shake of the user, and wherein the sensor data analysis unit is configured to detect the head shake of the user when clockwise and counterclockwise rotations are consecutively performed at a time interval that is smaller than or equal to a threshold value. a sensor data acquisition unit configured to acquire sensor data provided by a sensor worn by a user or mounted on a piece of equipment used by the user; a sensor data analysis unit configured to detect a turn of the user on the basis of the sensor data, wherein detecting the turn includes detecting a rotation in an action of the user, detecting a non-turning rotation as noise with respect to the turn to be detected included in the sensor data, determining whether a non-turning rotation has been detected, wherein if a non-turning rotation is detected as the noise, detect the turn from the rotation from which the noise has been removed, and if no non-turning rotation has been detected, detecting the turn of the user based on the rotation; and an information generation unit configured to generate information regarding the turn; wherein the sensor includes a sensor mounted on a head on the user or a piece of equipment mounted on the head of the user, wherein the non-turning rotation includes a rotation occurring through a head shake of the user, and wherein the sensor data analysis unit is configured to detect the head shake of the user when clockwise and counterclockwise rotations are consecutively performed at a time interval that is smaller than or equal to a threshold value.
A gas burner assembly for a gas cooking appliance, in particular for a gas cooking hob, wherein: - the gas burner assembly comprises an upper burner part , a lower burner part and a gas injector , - the upper burner part is arranged above the lower burner part , - the upper burner part includes a central portion and a number of peripheral portions, - the peripheral portions extends radially and horizontally from the central portion, - a Venturi tube extends between the central portion and each peripheral portion, and - a plurality of flame ports is arranged at the circumference of the peripheral portions, characterised in that an impingement cone is formed at a bottom side of the central portion of the upper burner part , wherein the gas injector is arranged below the impingement cone and directed to said impingement cone , so that a gas jet from the gas injector impinges on the impingement cone and said gas jet with dragged atmospheric air is directed to the peripheral portions, and wherein a mixture of gas and air is accelerated by the Venturi tube to the peripheral portions. - the gas burner assembly comprises an upper burner part , a lower burner part and a gas injector , - the upper burner part is arranged above the lower burner part , - the upper burner part includes a central portion and a number of peripheral portions, - the peripheral portions extends radially and horizontally from the central portion, - a Venturi tube extends between the central portion and each peripheral portion, and - a plurality of flame ports is arranged at the circumference of the peripheral portions,
A method of controlling a vibration of a vibratory element of a vibratory sensor based on a phase error, the method comprising: vibrating the vibratory element with a drive signal; receiving a vibration signal from the vibratory element ; measuring a phase difference between the drive signal and the vibration signal; determining a phase error between a target phase difference and the measured phase difference; and characterized by : calculating one or more vibration control terms in a control loop with the determined phase error; generating a command frequency based on the determined phase error; and providing the command frequency to a signal generator that is configured to generate the drive signal that vibrates the vibratory element at the command frequency, wherein the command frequency has a linear relationship with the determined phase error. vibrating the vibratory element with a drive signal; receiving a vibration signal from the vibratory element ; measuring a phase difference between the drive signal and the vibration signal; determining a phase error between a target phase difference and the measured phase difference; and characterized by : calculating one or more vibration control terms in a control loop with the determined phase error; generating a command frequency based on the determined phase error; and providing the command frequency to a signal generator that is configured to generate the drive signal that vibrates the vibratory element at the command frequency, wherein the command frequency has a linear relationship with the determined phase error. calculating one or more vibration control terms in a control loop with the determined phase error; generating a command frequency based on the determined phase error; and providing the command frequency to a signal generator that is configured to generate the drive signal that vibrates the vibratory element at the command frequency, wherein the command frequency has a linear relationship with the determined phase error.
A method comprising: capturing data associated with a first nozzle segment and a second nozzle segment of a gas turbine; creating, based on the data, a virtual representation of the first nozzle segment and the second nozzle segment; determining that a misalignment exists in a removable seal connection between the virtual representation of the first nozzle segment and the virtual representation of the second nozzle segment ; identifying, based on the determination that the misalignment exists, a third nozzle segment ; determining that a removable seal connection between a third nozzle segment and the first nozzle segment includes a smaller misalignment; and assembling the first nozzle segment and the third nozzle segment to form an assembly, such that the assembly includes the removable seal connection between the first nozzle segment and the third nozzle segment . capturing data associated with a first nozzle segment and a second nozzle segment of a gas turbine; creating, based on the data, a virtual representation of the first nozzle segment and the second nozzle segment; determining that a misalignment exists in a removable seal connection between the virtual representation of the first nozzle segment and the virtual representation of the second nozzle segment ; identifying, based on the determination that the misalignment exists, a third nozzle segment ; determining that a removable seal connection between a third nozzle segment and the first nozzle segment includes a smaller misalignment; and assembling the first nozzle segment and the third nozzle segment to form an assembly, such that the assembly includes the removable seal connection between the first nozzle segment and the third nozzle segment .
A remote center manipulator for a surgical instrument having a shaft , the manipulator comprising: an instrument holder releasably holding the surgical instrument ; a linkage base ; a first linkage assembly pivotally supported by the linkage base , the first linkage assembly having a first outer housing; and a second linkage assembly comprising a proximal pivotal joint coupling the second linkage assembly to the first linkage assembly and a distal pivotal joint coupling the second linkage assembly to the instrument holder , the second linkage assembly having a second outer housing, the first and second linkage assemblies constraining lateral motion of the shaft to pivotal motion about a center of rotation disposed along the shaft ; characterized in that the second outer housing has a recess to provide clearance for the first outer housing to protrude into the recess and across a second linkage axis provided between the proximal and distal pivotal joints when the proximal end of the shaft pivots towards the linkage base . an instrument holder releasably holding the surgical instrument ; a linkage base ; a first linkage assembly pivotally supported by the linkage base , the first linkage assembly having a first outer housing; and a second linkage assembly comprising a proximal pivotal joint coupling the second linkage assembly to the first linkage assembly and a distal pivotal joint coupling the second linkage assembly to the instrument holder , the second linkage assembly having a second outer housing, the first and second linkage assemblies constraining lateral motion of the shaft to pivotal motion about a center of rotation disposed along the shaft ; characterized in that the second outer housing has a recess to provide clearance for the first outer housing to protrude into the recess and across a second linkage axis provided between the proximal and distal pivotal joints when the proximal end of the shaft pivots towards the linkage base .
Vehicle door handle assembly comprising a handle grip which is movable between a flushing position, in which it is flush with an exterior door panel surface, and a ready position in which it is protruding and graspable by a user, wherein the vehicle door handle assembly comprises a back-up mechanism for a vehicle door handle assembly that enables a user to easily interact with said handle in case of an electric motor or car battery failure, said back-up mechanism comprising a flap covering at least partially a cavity arranged inside the handle grip , the flap being movable between a closed position in which it covers the cavity inside the handle grip and an open position in which it permits access to the inside of said cavity, hence allowing a user to insert his fingers or an object inside the cavity and to pull on the handle grip in order to move the handle grip from the flushing position to the ready position, characterized in that the flap is movable around a pivot axis (P) located on an edge of the cavity arranged inside the handle grip .
A material comprising a transparent substrate on at least one surface of which is deposited a stack of layers comprising n silver-based metal functional layers and n+1 dielectric sets of layers, n being equal to or higher than 3 and each silver-based metal functional layer being placed between two dielectric sets of layers, said material being characterized in that the dielectric set of layers located below the first silver-based metal functional layer starting from the substrate and the dielectric set of layers located above the last silver-based metal functional layer starting from the substrate - each comprise a high-refractive-index layer, the value of said index being equal to or higher than 2.15 at the wavelength of 550 nm; - the value of the refractive index of at least one of said high-index layers is equal to or higher than 2.40 at the wavelength 550 nm; and - the value of the ratio of the optical thickness of each of said high-refractive-index layers to the optical thickness of the dielectric set of layers in which it is comprised is comprised between 0.25 and 0.55; - that the optical thickness of the dielectric set of layers located above the last silver-based metal functional layer starting from the substrate is smaller than or equal to the optical thickness of the dielectric set of layers located below the first silver-based metal functional layer starting from the substrate; - the optical thickness of the dielectric set of layers located above the last silver-based metal functional layer starting from the substrate is comprised between 20 and 50 nm, preferably between 30 and 40 nm, and the optical thickness of the dielectric set of layers located below the first silver-based metal functional layer starting from the substrate is comprised between 50 and 100 nm, preferably between 55 and 75 nm. - each comprise a high-refractive-index layer, the value of said index being equal to or higher than 2.15 at the wavelength of 550 nm; - the value of the refractive index of at least one of said high-index layers is equal to or higher than 2.40 at the wavelength 550 nm; and - the value of the ratio of the optical thickness of each of said high-refractive-index layers to the optical thickness of the dielectric set of layers in which it is comprised is comprised between 0.25 and 0.55; - that the optical thickness of the dielectric set of layers located above the last silver-based metal functional layer starting from the substrate is smaller than or equal to the optical thickness of the dielectric set of layers located below the first silver-based metal functional layer starting from the substrate; - the optical thickness of the dielectric set of layers located above the last silver-based metal functional layer starting from the substrate is comprised between 20 and 50 nm, preferably between 30 and 40 nm, and the optical thickness of the dielectric set of layers located below the first silver-based metal functional layer starting from the substrate is comprised between 50 and 100 nm, preferably between 55 and 75 nm.