mhurhangee/patent-ind-claim-en huggingface dataset:
A drive mechanism for driving at least one nuclear reactor control absorber , the mechanism including: - at least one electric motor of the stepping type including a stator having at least first, second and third phases and a rotor ; - an electric power supply , electrically connected to each of the first, second and third phases of the stator ; - a controller of the electric power supply , programmed so that the electric power supply delivers electric pulses to each of the first, second and third phases at a current frequency, each electric pulse forming a control step with a shape adapted to the control of the motor, the rotor being moved per unit of time by a number of rotation steps depending on said frequency; - a kinematic chain arranged to couple the rotor to the control absorber , the kinematic chain being arranged to convert a rotational movement of the rotor into a translational movement of said control absorber in the core of the reactor, with no possibility of slipping; the drive mechanism including a device for monitoring a potential situation of increased to overspeed of the absorber characterized in the monitoring device includes at least two mutually independent monitoring units , each connected to the terminals of one of the first, second and third phases , each monitoring unit being configured to: - measure the number of control steps delivered to said phase during a time window (Tobs) of preset duration or the number of rotation steps of the rotor during a time window (T'obs) of preset duration; - compare the number of measured control steps with a preset maximum (Nmax) or the number of measured rotation steps with a preset maximum (N'max). - at least one electric motor of the stepping type including a stator having at least first, second and third phases and a rotor ; - an electric power supply , electrically connected to each of the first, second and third phases of the stator ; - a controller of the electric power supply , programmed so that the electric power supply delivers electric pulses to each of the first, second and third phases at a current frequency, each electric pulse forming a control step with a shape adapted to the control of the motor, the rotor being moved per unit of time by a number of rotation steps depending on said frequency; - a kinematic chain arranged to couple the rotor to the control absorber , the kinematic chain being arranged to convert a rotational movement of the rotor into a translational movement of said control absorber in the core of the reactor, with no possibility of slipping; - measure the number of control steps delivered to said phase during a time window (Tobs) of preset duration or the number of rotation steps of the rotor during a time window (T'obs) of preset duration; - compare the number of measured control steps with a preset maximum (Nmax) or the number of measured rotation steps with a preset maximum (N'max).
A monitoring system for a vehicle , comprising: - at least one imaging sensor being arranged at a side mirror of a front-seat passenger side of the vehicle , - a displaying unit being arranged in a visual range of a driver of the vehicle , and - a control unit being configured to receive information on a status of at least a turning indicator, the imaging sensor being configured to capture image data of an environment of the vehicle , the displaying unit being configured to display the image data of the imaging sensor, and the control unit being configured to control the display of the image data by means of the displaying unit based on the information of the status of the turning indicator, characterized in that the control unit is further configured to receive information on an obstruction of a sight line between the driver and the side mirror of the front-seat passenger side of the vehicle , and the control unit is configured to control the display of the image data by means of the displaying unit based on the information on the obstruction of the sight line between the driver and the side mirror . - at least one imaging sensor being arranged at a side mirror of a front-seat passenger side of the vehicle , - a displaying unit being arranged in a visual range of a driver of the vehicle , and - a control unit being configured to receive information on a status of at least a turning indicator, the imaging sensor being configured to capture image data of an environment of the vehicle , the displaying unit being configured to display the image data of the imaging sensor, and the control unit being configured to control the display of the image data by means of the displaying unit based on the information of the status of the turning indicator, characterized in that the control unit is further configured to receive information on an obstruction of a sight line between the driver and the side mirror of the front-seat passenger side of the vehicle , and the control unit is configured to control the display of the image data by means of the displaying unit based on the information on the obstruction of the sight line between the driver and the side mirror .
A steering control device for a steering system that changes steering torque required to steer a steering wheel according to motor torque that is applied by an actuator using a motor as a driving source of the actuator, the steering control device comprising an electronic control unit configured to: calculate target torque that is a target value of the motor torque; control operation of the motor such that the motor torque is generated according to the target torque; calculate a vehicle speed basic axial force based on a detected vehicle speed; calculate another state quantity basic axial force based on a state quantity other than the detected vehicle speed; calculate a distributed axial force by adding the vehicle speed basic axial force and the other state quantity basic axial force at individually set distribution ratios; and calculate the target torque based on the distributed axial force; characterized in that the electronic control unit is further configured to reduce the distribution ratio of the vehicle speed basic axial force when the detected vehicle speed is abnormal as compared to when the detected vehicle speed is normal. calculate target torque that is a target value of the motor torque; control operation of the motor such that the motor torque is generated according to the target torque; calculate a vehicle speed basic axial force based on a detected vehicle speed; calculate another state quantity basic axial force based on a state quantity other than the detected vehicle speed; calculate a distributed axial force by adding the vehicle speed basic axial force and the other state quantity basic axial force at individually set distribution ratios; and calculate the target torque based on the distributed axial force; characterized in that the electronic control unit is further configured to reduce the distribution ratio of the vehicle speed basic axial force when the detected vehicle speed is abnormal as compared to when the detected vehicle speed is normal.
A method for receiving data in a user equipment, UE, through a plurality of layers of a base station, BS, in a wireless communication system, the method comprising: receiving, from the BS, the data, which are divided into a plurality of first code blocks, and a downlink control indicator, DCI, for the data; and receiving, from the BS, a plurality of second code blocks based on the DCI, wherein all of the plurality of second code blocks are received through a same layer, wherein the plurality of second code blocks are received based on response signals and the plurality of second code blocks are the plurality of first code books having NACK as response signal, wherein the response signals are for each of the plurality of first code blocks based on the DCI, and wherein, based on a number of response signals having NACK being equal to or less than a threshold value, DCI including code block based scheduling information is monitored from the timing of transmission of the response signals. receiving, from the BS, the data, which are divided into a plurality of first code blocks, and a downlink control indicator, DCI, for the data; and receiving, from the BS, a plurality of second code blocks based on the DCI, wherein all of the plurality of second code blocks are received through a same layer, wherein the plurality of second code blocks are received based on response signals and the plurality of second code blocks are the plurality of first code books having NACK as response signal, wherein the response signals are for each of the plurality of first code blocks based on the DCI, and wherein, based on a number of response signals having NACK being equal to or less than a threshold value, DCI including code block based scheduling information is monitored from the timing of transmission of the response signals.
A bonded body in which an aluminum alloy member formed from an aluminum alloy, and a metal member formed from copper, nickel, or silver are bonded to each other, characterized in that the aluminum alloy member is constituted by an aluminum alloy in which a concentration of Si is in a range of 1 mass% to 25 mass%, the aluminum alloy member and the metal member are subjected to solid-phase diffusion bonding, a compound layer , which is formed through diffusion of Al of the aluminum alloy member and a metal element of the metal member, is provided at a bonding interface between the aluminum alloy member and the metal member, and a Mg-concentrated layer , in which a concentration of Mg is 3 mass% or greater, is formed at the inside of the compound layer, and the thickness of the Mg-concentrated layer is in a range of 1 μm to 30 μm.
A substrate comprising: a first dielectric layer comprising a first surface and a second surface; a first interconnect embedded in the first dielectric layer, the first interconnect comprising a first side and a second side, the first side is surrounded by the first dielectric layer, wherein at least a part of the second side is free of contact with the first dielectric layer, wherein the first interconnect is a first trace; a first cavity traversing the first surface of the first dielectric layer to the second side of the first interconnect, wherein the first cavity has a cavity width substantially equal to an interconnect width of the first interconnect and overlaps the first interconnect; and a second interconnect comprising a third side and a fourth side, wherein the third side is at least partially coupled onto the first surface of the first dielectric layer, wherein the second interconnect is a second trace. a first dielectric layer comprising a first surface and a second surface; a first interconnect embedded in the first dielectric layer, the first interconnect comprising a first side and a second side, the first side is surrounded by the first dielectric layer, wherein at least a part of the second side is free of contact with the first dielectric layer, wherein the first interconnect is a first trace; a first cavity traversing the first surface of the first dielectric layer to the second side of the first interconnect, wherein the first cavity has a cavity width substantially equal to an interconnect width of the first interconnect and overlaps the first interconnect; and a second interconnect comprising a third side and a fourth side, wherein the third side is at least partially coupled onto the first surface of the first dielectric layer, wherein the second interconnect is a second trace.
A method performed by a base station supporting an Early Data Transmission, EDT, the method comprising: receiving, by the base station and from a Mobility Management Entity, MME , a first non-access-stratum, NAS, message, that comprises (i) downlink data for transmission by the base station to a wireless device and (ii) an indication related to the EDT; and based on the received indication related to the EDT in the first NAS message from the MME : determining-that there is no further downlink data, aside from the downlink data in the first NAS message. receiving, by the base station and from a Mobility Management Entity, MME , a first non-access-stratum, NAS, message, that comprises (i) downlink data for transmission by the base station to a wireless device and (ii) an indication related to the EDT; and based on the received indication related to the EDT in the first NAS message from the MME : determining-that there is no further downlink data, aside from the downlink data in the first NAS message.
A cell registration method, comprising: when receiving a paging message of a Circuit Switched FallBack, CSFB, acquiring by a terminal device, System Information, S13, of a first cell, the SI3 comprising a first signal strength threshold required by the terminal device to reside in the first cell (S101); characterized by registering by the terminal device, to the first cell when a current signal strength of the first cell is less than the first signal strength threshold and greater than a preset cell resident signal strength threshold of the terminal device (S102); wherein the preset cell resident signal strength threshold of the terminal device is a minimum signal strength which has to be surpassed by the terminal device to be able to access and reside in a cell. when receiving a paging message of a Circuit Switched FallBack, CSFB, acquiring by a terminal device, System Information, S13, of a first cell, the SI3 comprising a first signal strength threshold required by the terminal device to reside in the first cell (S101); characterized by registering by the terminal device, to the first cell when a current signal strength of the first cell is less than the first signal strength threshold and greater than a preset cell resident signal strength threshold of the terminal device (S102); wherein the preset cell resident signal strength threshold of the terminal device is a minimum signal strength which has to be surpassed by the terminal device to be able to access and reside in a cell.
A method for improving resuspendability of a paliperidone palmitate extended-release injectable suspension within a syringe comprising maintaining the syringe in a desired orientation during shipping of the syringe that varies from the orientation of the syringe during pre-shipping storage, wherein the pre-shipping storage orientation was tip down, and the shipping orientation is substantially horizontal.
Method for determining a concentration of a constituent of a fluid mixture in a fluid space , comprising: - emission of an ultrasound pulse into the fluid mixture by means of an ultrasonic transducer , - reception of a reflection of the ultrasound pulse as a measurement signal after the ultrasound pulse has been reflected at at least two impedance discontinuities (105; 106), - reception of the reflection after the ultrasound pulse has been reflected alternately at least 11 times in total at the at least two impedance discontinuities (105; 106), wherein the reflection was reflected for amplification at a sound reflector , and the ultrasonic transducer and the sound reflector are arranged on opposite walls of the fluid space , and - determination of the concentration of the constituent of the fluid mixture as a function of the measurement signal. - emission of an ultrasound pulse into the fluid mixture by means of an ultrasonic transducer , - reception of a reflection of the ultrasound pulse as a measurement signal after the ultrasound pulse has been reflected at at least two impedance discontinuities (105; 106), - reception of the reflection after the ultrasound pulse has been reflected alternately at least 11 times in total at the at least two impedance discontinuities (105; 106), wherein the reflection was reflected for amplification at a sound reflector , and the ultrasonic transducer and the sound reflector are arranged on opposite walls of the fluid space , and - determination of the concentration of the constituent of the fluid mixture as a function of the measurement signal.
A fluid monitoring system , comprising: at least one fluid vibration sensing unit to provide at least one fluid vibration signal from at least one location on a measuring chamber of a meter to be monitored, wherein the at least one fluid vibration sensing unit is configured to detect fluid vibration above a natural frequency of the measuring chamber; one or more display units ; a control unit configured to be coupled to the at least one fluid vibration sensing unit and the one or more display units; characterized in that the control unit is configured to: detect a minimum threshold fluid vibration above a natural frequency using the at least one fluid vibration signal; and in response to detection of the minimum threshold fluid vibration above the natural frequency: detect a condition from the respective location using the at least one fluid vibration sensing unit, the condition corresponding to a volume of fluid within or passed through the measuring chamber, as correlated from the vibration signal; and communicate to at least one of the one or more display units to provide a display of the condition. at least one fluid vibration sensing unit to provide at least one fluid vibration signal from at least one location on a measuring chamber of a meter to be monitored, wherein the at least one fluid vibration sensing unit is configured to detect fluid vibration above a natural frequency of the measuring chamber; one or more display units ; a control unit configured to be coupled to the at least one fluid vibration sensing unit and the one or more display units; characterized in that the control unit is configured to: detect a minimum threshold fluid vibration above a natural frequency using the at least one fluid vibration signal; and in response to detection of the minimum threshold fluid vibration above the natural frequency: detect a condition from the respective location using the at least one fluid vibration sensing unit, the condition corresponding to a volume of fluid within or passed through the measuring chamber, as correlated from the vibration signal; and communicate to at least one of the one or more display units to provide a display of the condition. detect a minimum threshold fluid vibration above a natural frequency using the at least one fluid vibration signal; and in response to detection of the minimum threshold fluid vibration above the natural frequency: detect a condition from the respective location using the at least one fluid vibration sensing unit, the condition corresponding to a volume of fluid within or passed through the measuring chamber, as correlated from the vibration signal; and communicate to at least one of the one or more display units to provide a display of the condition. detect a condition from the respective location using the at least one fluid vibration sensing unit, the condition corresponding to a volume of fluid within or passed through the measuring chamber, as correlated from the vibration signal; and communicate to at least one of the one or more display units to provide a display of the condition.
A signal processing method for histogram generation from a plurality of event detectors , wherein each of said event detectors generates an event signal as a response to an external event, characterised in that said event detectors are connected to a current injection module which is connected to a plurality of capacitors , wherein the histogram to be generated comprises a plurality of bins and each of said bins is univocally assigned to a capacitor among said plurality of capacitors , the method comprising the steps of: [a] during an event time interval corresponding to a bin, said plurality of event detectors generates a plurality of said event signals as a response to a plurality of external events, [b] said current injection module detects said event signals, [c] for each one of said event signals, said current injection module generates a corresponding current signal, and said current signal is injected in a capacitor assigned to said bin, and stored therein during a pre-defined injection time interval associated to said capacitor and to said bin which is different in terms of start time and/or duration from said event time interval corresponding to the same bin, [d] repeating steps [a] to [c] for each successive bin of said histogram, and wherein the method also comprises reading the charge accumulated in each of said capacitors for the bin assigned to said capacitor . [a] during an event time interval corresponding to a bin, said plurality of event detectors generates a plurality of said event signals as a response to a plurality of external events, [b] said current injection module detects said event signals, [c] for each one of said event signals, said current injection module generates a corresponding current signal, and said current signal is injected in a capacitor assigned to said bin, and stored therein during a pre-defined injection time interval associated to said capacitor and to said bin which is different in terms of start time and/or duration from said event time interval corresponding to the same bin, [d] repeating steps [a] to [c] for each successive bin of said histogram,
A spin-on fluid treatment device for removable installation to filter head , comprising a housing , a cover piece forming a top surface said cover piece having an internally threaded bore having a thread, at least one inlet orifice radially removed from said threaded bore , and an axial seal surrounding said at least one inlet orifice ; said housing comprising a filter element comprising an outlet tube and a treatment medium arranged inside said housing to treat fluids entering through said at least one inlet orifice and leaving through said outlet tube ; wherein said outlet tube is at least partially disposed inside said threaded bore in a concentric position, and wherein said thread of said threaded bore does not reach all the way to said top surface of the spin-on fluid treatment device, thereby leaving a portion of unthreaded surface. wherein said outlet tube is at least partially disposed inside said threaded bore in a concentric position, and wherein said thread of said threaded bore does not reach all the way to said top surface of the spin-on fluid treatment device, thereby leaving a portion of unthreaded surface.
A valve comprising: a valve body including a valve cavity and first and second fluid ports extending to the valve cavity; a seat carrier subassembly installed in the valve cavity, the seat carrier subassembly comprising a seat carrier body including a first annular inner wall defining a first flow aperture aligned with the first fluid port and a valve seat disposed in an annular recess surrounding the first annular inner wall, and a second annular inner wall defining a second flow aperture aligned with the second fluid port; a valve element disposed within the valve cavity and movable between a closed position sealing against the valve seat and an open position permitting fluid flow across the valve seat between the first and second flow apertures; and an orifice restriction having an outer periphery seated against an interior portion of one of the first annular inner wall and the second annular inner wall. a valve body including a valve cavity and first and second fluid ports extending to the valve cavity; a seat carrier subassembly installed in the valve cavity, the seat carrier subassembly comprising a seat carrier body including a first annular inner wall defining a first flow aperture aligned with the first fluid port and a valve seat disposed in an annular recess surrounding the first annular inner wall, and a second annular inner wall defining a second flow aperture aligned with the second fluid port; a valve element disposed within the valve cavity and movable between a closed position sealing against the valve seat and an open position permitting fluid flow across the valve seat between the first and second flow apertures; and an orifice restriction having an outer periphery seated against an interior portion of one of the first annular inner wall and the second annular inner wall.