mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus comprising: an isolator assembly configured to provide isolation between two antennas in multiple non-overlapping frequency bands, the isolator assembly including AC-grounded resonating conductive isolation elements and including a selection network configured to select one of the multiple non-overlapping frequency bands for an isolation operation, wherein the isolator assembly comprises a first isolator element configured to provide isolation in a first frequency band and a second isolator element configured to provide isolation in a second frequency band, the first and second isolator elements being AC-grounded resonating conductive isolation elements and being separated from each other, and wherein the selection network comprises a first selection circuit for the first isolator element and a second selection circuit for the second isolator element , wherein the first and second selection circuits are configured to prevent coupling between the first and second isolation elements of the isolation assembly , the first selection circuit being configured to deselect the first isolator element responsive to receipt of surface current oscillating in the second frequency band and the second selection circuit being configured to deselect the second isolator element responsive to receipt of surface current oscillating in the first frequency band. an isolator assembly configured to provide isolation between two antennas in multiple non-overlapping frequency bands, the isolator assembly including AC-grounded resonating conductive isolation elements and including a selection network configured to select one of the multiple non-overlapping frequency bands for an isolation operation, wherein the isolator assembly comprises a first isolator element configured to provide isolation in a first frequency band and a second isolator element configured to provide isolation in a second frequency band, the first and second isolator elements being AC-grounded resonating conductive isolation elements and being separated from each other, and wherein the selection network comprises a first selection circuit for the first isolator element and a second selection circuit for the second isolator element , wherein the first and second selection circuits are configured to prevent coupling between the first and second isolation elements of the isolation assembly , the first selection circuit being configured to deselect the first isolator element responsive to receipt of surface current oscillating in the second frequency band and the second selection circuit being configured to deselect the second isolator element responsive to receipt of surface current oscillating in the first frequency band.
A boiler facility comprising: a boiler having a combustion chamber in which a burner is installed; a fuel pipe for supplying fuel to the burner; an air duct for supplying air sucked by a blower to the boiler; an oxygen supplier including an oxygen pipe connected to the air duct and a flow rate controller provided in the oxygen pipe, to increase an oxygen ratio in the air supplied to the boiler; and a control unit for setting an air amount that is smaller than a reference air amount for burning the fuel and an oxygen amount to be added to the air, and for controlling the blower and the flow rate controller according to the set air amount and the set oxygen amount, wherein the set oxygen amount is any one of the amount of oxygen to be supplied to the boiler in which a total amount of exhaust gas discharged from the combustion chamber becomes equal to the amount of reference exhaust gas that is discharged when the reference air amount is supplied, and the amount of oxygen to be supplied to the boiler in which an output of the boiler becomes equal to an output that is generated when the reference air amount is supplied, wherein a heat exchanger is installed in an exhaust gas duct at the rear of the combustion chamber , the air duct is connected to the boiler via the heat exchanger , and the heat exchanger is configured to recover waste heat from the exhaust gas and heat the air in the air duct , and wherein the oxygen pipe is connected to the front of the heat exchanger in the air duct . a boiler having a combustion chamber in which a burner is installed; a fuel pipe for supplying fuel to the burner; an air duct for supplying air sucked by a blower to the boiler; an oxygen supplier including an oxygen pipe connected to the air duct and a flow rate controller provided in the oxygen pipe, to increase an oxygen ratio in the air supplied to the boiler; and a control unit for setting an air amount that is smaller than a reference air amount for burning the fuel and an oxygen amount to be added to the air, and for controlling the blower and the flow rate controller according to the set air amount and the set oxygen amount, wherein the set oxygen amount is any one of the amount of oxygen to be supplied to the boiler in which a total amount of exhaust gas discharged from the combustion chamber becomes equal to the amount of reference exhaust gas that is discharged when the reference air amount is supplied, and the amount of oxygen to be supplied to the boiler in which an output of the boiler becomes equal to an output that is generated when the reference air amount is supplied, wherein a heat exchanger is installed in an exhaust gas duct at the rear of the combustion chamber , the air duct is connected to the boiler via the heat exchanger , and the heat exchanger is configured to recover waste heat from the exhaust gas and heat the air in the air duct , and wherein the oxygen pipe is connected to the front of the heat exchanger in the air duct .
A channel identification system for a multiple-input, multiple output, MIMO, telecommunication system wirelessly communicating with terminal devices, comprising: an interface device configured to receive downlink signals on channels corresponding to a first port and a second port of a base station; and a processing device comprising at least a field-programmable gate array, wherein the processing device is configured to: synchronously capture samples of the downlink signals received from the base station; extract a first cell-specific reference signal from the samples of one or more of the downlink signals; generate a second cell-specific reference signal based on known parameters used to transmit at least one of the downlink signals; and determine a channel identification corresponding to at least one channel of the channels by correlating the first cell-specific reference signal and the second cell-specific reference signal. an interface device configured to receive downlink signals on channels corresponding to a first port and a second port of a base station; and a processing device comprising at least a field-programmable gate array, wherein the processing device is configured to: synchronously capture samples of the downlink signals received from the base station; extract a first cell-specific reference signal from the samples of one or more of the downlink signals; generate a second cell-specific reference signal based on known parameters used to transmit at least one of the downlink signals; and determine a channel identification corresponding to at least one channel of the channels by correlating the first cell-specific reference signal and the second cell-specific reference signal. synchronously capture samples of the downlink signals received from the base station; extract a first cell-specific reference signal from the samples of one or more of the downlink signals; generate a second cell-specific reference signal based on known parameters used to transmit at least one of the downlink signals; and determine a channel identification corresponding to at least one channel of the channels by correlating the first cell-specific reference signal and the second cell-specific reference signal.
A method comprising: initiating in a terminal a first request for logging into an application program to a server, the first request including a first session identifier, the first session identifier being generated from a login account and an original password of the application program, and the original password being a login password corresponding to the login account prior to password modification; performing validity verification on a user of the terminal and sending a verification result that is obtained to the server to allow the server to perform a check on the verification result in response to the first session identifier being determined to be invalid; and receiving a second session identifier from the server and storing the second session identifier into the terminal if the verification result is verified and approved by the server, the second session identifier being different from the first session identifier, wherein the second session identifier is generated from the login account and a new password, the new password being different from the original password and the new password being a login password corresponding to the login account after the password modification. initiating in a terminal a first request for logging into an application program to a server, the first request including a first session identifier, the first session identifier being generated from a login account and an original password of the application program, and the original password being a login password corresponding to the login account prior to password modification; performing validity verification on a user of the terminal and sending a verification result that is obtained to the server to allow the server to perform a check on the verification result in response to the first session identifier being determined to be invalid; and receiving a second session identifier from the server and storing the second session identifier into the terminal if the verification result is verified and approved by the server, the second session identifier being different from the first session identifier, wherein the second session identifier is generated from the login account and a new password, the new password being different from the original password and the new password being a login password corresponding to the login account after the password modification.
A catadioptric optical system comprising: a solid body of optical material, said solid body comprising an annular entry surface ; an annular first intermediary surface located opposite to said entry surface ; a second intermediary surface being substantially continuous with the inner ring of said annular entry surface ; and an exit surface located opposite to said second intermediary surface ; wherein the system comprises a primary reflective surface and a secondary reflective surface ; wherein said primary reflective surface and said secondary reflective surface being arranged so that a light ray entering the system through said entry surface is folded at least two times before exiting through said exit surface ; and wherein said exit surface is connected to said first intermediary surface by an inner wall extending towards said second intermediary surface , thereby defining a void inside said solid body , wherein, wherein the primary reflective surface and the secondary reflective surface are separated from the solid body and arranged as floating elements, and at least one portion of a) the primary reflective surface , b) the secondary reflective surface and c) an additional optical lens arranged within said void are configured to be moved relative to an optical axis of the system. a solid body of optical material, said solid body comprising an annular entry surface ; an annular first intermediary surface located opposite to said entry surface ; a second intermediary surface being substantially continuous with the inner ring of said annular entry surface ; and an exit surface located opposite to said second intermediary surface ; wherein the system comprises a primary reflective surface and a secondary reflective surface ; wherein said primary reflective surface and said secondary reflective surface being arranged so that a light ray entering the system through said entry surface is folded at least two times before exiting through said exit surface ; and wherein said exit surface is connected to said first intermediary surface by an inner wall extending towards said second intermediary surface , thereby defining a void inside said solid body , wherein, wherein the primary reflective surface and the secondary reflective surface are separated from the solid body and arranged as floating elements, and at least one portion of a) the primary reflective surface , b) the secondary reflective surface and c) an additional optical lens arranged within said void are configured to be moved relative to an optical axis of the system.
A printing apparatus comprising: a housing ; a platen disposed in the housing at a position where a medium (M) is supported and recording is performed; an output port provided in the housing so that the medium is outputted through the output port; and a guiding section provided between the platen and the output port to guide the medium, wherein the guiding section includes a first guiding section facing one surface of the medium transported and a second guiding section facing the other surface of the medium, the first guiding section and the second guiding section each include a bent portion , the first guiding section and the second guiding section each include a first bent portion and a second bent portion , and the first bent portion and the second bent portion are different in a bending direction, the first guiding section is disposed under the second guiding section, for each one of the first and second guiding sections, the first bent portion of the one guiding section is located at a position closer to the output port than the second bent portion of the one guiding section, and characterized in that a radius (R1) of the first bent portion of the first guiding section is larger than a radius (R1') of the first bent portion of the second guiding section . a housing ; a platen disposed in the housing at a position where a medium (M) is supported and recording is performed; an output port provided in the housing so that the medium is outputted through the output port; and a guiding section provided between the platen and the output port to guide the medium, wherein the guiding section includes a first guiding section facing one surface of the medium transported and a second guiding section facing the other surface of the medium, the first guiding section and the second guiding section each include a bent portion , the first guiding section and the second guiding section each include a first bent portion and a second bent portion , and the first bent portion and the second bent portion are different in a bending direction, the first guiding section is disposed under the second guiding section, for each one of the first and second guiding sections, the first bent portion of the one guiding section is located at a position closer to the output port than the second bent portion of the one guiding section, and characterized in that a radius (R1) of the first bent portion of the first guiding section is larger than a radius (R1') of the first bent portion of the second guiding section .
Method for enriching at least one polymer from a polymer-containing waste, which comprises the following steps: a) mixing the polymer-containing waste with an organic solvent comprising at least one thermostabiliser for polymers, wherein the at least one polymer is dissolved in the organic solvent and an insoluble part of the waste is left behind, wherein the at least one polymer is dissolved at a temperature of 70° to 200°C; b) at least partial separation of the solution comprising at least one polymer and at least one thermostabiliser from the insoluble part of the waste; c) at least partial separation of the organic solvent from the at least one polymer, wherein the thermostabiliser is selected from the group consisting of sterically hindered phenols and organic phosphites and phosphonites. a) mixing the polymer-containing waste with an organic solvent comprising at least one thermostabiliser for polymers, wherein the at least one polymer is dissolved in the organic solvent and an insoluble part of the waste is left behind, wherein the at least one polymer is dissolved at a temperature of 70° to 200°C; b) at least partial separation of the solution comprising at least one polymer and at least one thermostabiliser from the insoluble part of the waste; c) at least partial separation of the organic solvent from the at least one polymer,
Method for detecting errors of a sensor , in particular of a piezoelectric sensor for vehicles, wherein by means of the sensor measurements are taken and corresponding measurement signals are transmitted to a computing unit , wherein discharge time data with a first discharge time constant ( τ 1 ) of the sensor is read out from a data storage unit of the sensor and is transmitted to the computing unit , wherein a signal processing , a signal evaluation and a data evaluation take place in the computing unit and wherein parameter values of a time-dependent discharge function (b - ) in relation to the sensor are determined in the computing unit , a second discharge time constant ( τ 2 ) is determined from the discharge function (b - ) and by means of a comparison of the first discharge time constant ( τ 1 ) and the second discharge time constant ( τ 2 ) errors, faults or damage of the sensor are detected, characterised in that filtered signals are formed by means of filtering of the measurement signals in the computing unit , wherein the parameter values of the time-dependent discharge function (b - ), comprising a time matrix (X) with a first time (t 1 ), a second time (t 2 ) up to an N time (t N ), are determined by means of a logarithmic function of the filtered signals .
A throttle body in the shape of a valve cage or a throttle piston for reducing the fluid pressure with a plurality of channels extending from an upstream channel inlet to a downstream channel outlet , wherein the throttle body is manufactured by means of generative manufacturing methods, such as laser sintering, 3D printing, or the like, or by means of injection methods, characterized in that a course being at least section-wisely curved of at least one of the plurality of channels deviates from a two-dimensional extension between the channel inlet and the channel outlet and in that the course being at least section-wisely curved of the at least one channel is continuous free of inner contour springs and/or steps and/or kinks.
A method for optical analysis of a component of an aerosol generating article, the method comprising: - providing a component of an aerosol generating article defining a first end and a second end , the component comprising: - an aerosol forming substrate ; - a susceptor in thermal contact with the aerosol forming substrate ; - providing a first polarized camera including a sensor to detect polarization information of electromagnetic radiation; - illuminating the component by electromagnetic radiation; - detecting transmitted, reflected or refracted electromagnetic radiation from the component by the first polarized camera ; - generating a first image of the first end of the component by the first polarized camera , the first image being formed by a plurality of pixels, each pixel of the plurality of pixels containing polarization information about the detected electromagnetic radiation; and - detecting in the first image a position of the susceptor . - providing a component of an aerosol generating article defining a first end and a second end , the component comprising: - an aerosol forming substrate ; - a susceptor in thermal contact with the aerosol forming substrate ; - providing a first polarized camera including a sensor to detect polarization information of electromagnetic radiation; - illuminating the component by electromagnetic radiation; - detecting transmitted, reflected or refracted electromagnetic radiation from the component by the first polarized camera ; - generating a first image of the first end of the component by the first polarized camera , the first image being formed by a plurality of pixels, each pixel of the plurality of pixels containing polarization information about the detected electromagnetic radiation; and - detecting in the first image a position of the susceptor .
A wind turbine control system comprising: at least one control module (30a-d) configured to output a control signal for a control mechanism of a wind turbine , a gain calculator for calculating a gain parameter associated with the control module (30a-d), and a computerised real-time blade model using a determined wind turbine operating point as an input, the computerised real-time blade model comprising: a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; wherein the gain parameter is calculated based on the aerodynamic sensitivity value. at least one control module (30a-d) configured to output a control signal for a control mechanism of a wind turbine , a gain calculator for calculating a gain parameter associated with the control module (30a-d), and a computerised real-time blade model using a determined wind turbine operating point as an input, the computerised real-time blade model comprising: a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; wherein the gain parameter is calculated based on the aerodynamic sensitivity value.
An isothermal container substantially parallelepipedic, comprising a lower wall , an upper wall , two side walls , a rear wall and a front wall , said front wall being adapted to support a refrigeration generator connected to a refrigerated air intake port and an air suction port , said ports and being formed in said front surface ; said isothermal container further comprises at least one refrigerating diffusion device adapted to be fastened on the underside of said upper wall comprising a converging nozzle , a first guide profile and a second guide profile , the first guide profile and the second guide profile being parallel to one another and disposed at a distance from each other, the first guide profile and the second guide profile being positioned in the extension of said converging nozzle , to guide the flow of refrigerated air along the longitudinal axis of said isothermal container , the container being characterized by the distance between the first guide profile and the second guide profile enabling cold air to emerge from the refrigerating diffusion device over a continuous area.