mhurhangee/patent-ind-claim-en huggingface dataset:
An inductive power outlet (200, 1200, 2200 7200), having a primary coil , for wirelessly powering an inductive power receiver , having a secondary coil , wherein the primary coil and the secondary coil form a resonant frequency, the inductive power outlet (200, 1200, 2200 7200) comprising: a driver generating an oscillating voltage to the primary coil at a frequency higher than the resonant frequency; and a signal detector comprising: a peak detector configured to detect voltage peaks across the primary coil or current peaks of a current supplied to the primary coil ; characterised by : a processor configured to determine a frequency of either the voltage peaks or the current peaks; wherein the signal detector and the processor are configured to detect at least one instruction signal comprising a pulse of detectable peaks in the primary voltage or primary current having a characteristic frequency. a driver generating an oscillating voltage to the primary coil at a frequency higher than the resonant frequency; and a signal detector comprising: a peak detector configured to detect voltage peaks across the primary coil or current peaks of a current supplied to the primary coil ; characterised by : a processor configured to determine a frequency of either the voltage peaks or the current peaks; wherein the signal detector and the processor are configured to detect at least one instruction signal comprising a pulse of detectable peaks in the primary voltage or primary current having a characteristic frequency. a peak detector configured to detect voltage peaks across the primary coil or current peaks of a current supplied to the primary coil ; characterised by : a processor configured to determine a frequency of either the voltage peaks or the current peaks; wherein the signal detector and the processor are configured to detect at least one instruction signal comprising a pulse of detectable peaks in the primary voltage or primary current having a characteristic frequency. a processor configured to determine a frequency of either the voltage peaks or the current peaks; wherein the signal detector and the processor are configured to detect at least one instruction signal comprising a pulse of detectable peaks in the primary voltage or primary current having a characteristic frequency.
A method for producing a catheter comprising a FPCB , having at least one electrode segment at its distal end portion and a FPCB tail leading to a connector at its proximal portion, said method comprising the following steps or a subset of these steps: - a mandrel inserting step , wherein a temporary mandrel is inserted into a catheter tube , - a FPCB preshaping step , wherein the electrode segment of the FPCB is preshaped in a round hollow cylindrical shape, - a FPCB positioning step , wherein the preshaped FPCB is positioned on the catheter tube , - a shrink tube contracting step wherein the assembly including the shrink tube is preheated to the point that the shrink tube has fully contracted and directly contacts and closes the FPCB around the catheter tube , - a reflow step , wherein the assembly is heated above the melting temperature of the catheter tube to allow the catheter tube material to flow around the FPCB inside the shrink tube , - a cooling step , wherein the assembly rests until solidification of the assembly material, - a mandrel removing step , wherein the mandrel is removed from the inner lumen of the re-solidified catheter tube , and - a shrink tube removal step , wherein the shrink tube is removed. - a mandrel inserting step , wherein a temporary mandrel is inserted into a catheter tube , - a FPCB preshaping step , wherein the electrode segment of the FPCB is preshaped in a round hollow cylindrical shape, - a FPCB positioning step , wherein the preshaped FPCB is positioned on the catheter tube , - a shrink tube contracting step wherein the assembly including the shrink tube is preheated to the point that the shrink tube has fully contracted and directly contacts and closes the FPCB around the catheter tube , - a reflow step , wherein the assembly is heated above the melting temperature of the catheter tube to allow the catheter tube material to flow around the FPCB inside the shrink tube , - a cooling step , wherein the assembly rests until solidification of the assembly material, - a mandrel removing step , wherein the mandrel is removed from the inner lumen of the re-solidified catheter tube , and - a shrink tube removal step , wherein the shrink tube is removed.
A method of operating a wind turbine, the method comprising: operating the wind turbine over an operating period in accordance with a control strategy; receiving a set of sensor signals over the operating period from a plurality of sensors measuring a plurality of operational parameters of the turbine; using a surrogate model to obtain modelled fatigue values based on the set of sensor signals, wherein the modelled fatigue values provide estimates of fatigue loading applied to a component of the turbine over the operating period; defining fatigue utilisation ratios for more components based on a difference or ratio between the modelled fatigue value and an expected fatigue value for a particular component; identifying the component with the largest utilisation ratio; modifying the control strategy based on the fatigue utilisation ratio of the component with the largest utilisation ratio to reduce a difference between the modelled fatigue value and an expected fatigue value for the component with the largest utilisation ratio; wherein the surrogate model is a trained model using training data, trained by running a machine learning algorithm. operating the wind turbine over an operating period in accordance with a control strategy; receiving a set of sensor signals over the operating period from a plurality of sensors measuring a plurality of operational parameters of the turbine; using a surrogate model to obtain modelled fatigue values based on the set of sensor signals, wherein the modelled fatigue values provide estimates of fatigue loading applied to a component of the turbine over the operating period; defining fatigue utilisation ratios for more components based on a difference or ratio between the modelled fatigue value and an expected fatigue value for a particular component; identifying the component with the largest utilisation ratio; modifying the control strategy based on the fatigue utilisation ratio of the component with the largest utilisation ratio to reduce a difference between the modelled fatigue value and an expected fatigue value for the component with the largest utilisation ratio; wherein the surrogate model is a trained model using training data, trained by running a machine learning algorithm.
A membrane separation unit comprising: a cartridge having an interior, an exterior, and a pair of ends; at least one membrane disposed within the cartridge; at least one seal plate for sealing one end of the cartridge, the seal plate comprising an outer groove ; and a sealing ring seated in the outer groove , the sealing ring having a circular shape with a cross-sectional shape comprising: - an inside surface including a rounded bottom portion ; - a flattened front face maintaining contact with the walls of the seal-retaining outer groove ; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove ; and - a top surface having two flat surfaces that meet in a peak along an outer surface of the sealing ring , wherein the two flat surfaces form an angle of between 100° and 160° therebetween along an outer perimeter of the sealing ring , wherein the sealing ring comprises at least one groove in a face thereof providing a venting path past the sealing ring , wherein the at least one seal plate comprises at least one venting hole that forms a passage between the interior of the cartridge and the outer groove , and wherein the sealing ring seated in the outer groove having a cross-sectional shape that forms a circular venting path between the sealing ring and the seal plate . a cartridge having an interior, an exterior, and a pair of ends; at least one membrane disposed within the cartridge; at least one seal plate for sealing one end of the cartridge, the seal plate comprising an outer groove ; and a sealing ring seated in the outer groove , the sealing ring having a circular shape with a cross-sectional shape comprising: - an inside surface including a rounded bottom portion ; - a flattened front face maintaining contact with the walls of the seal-retaining outer groove ; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove ; and - a top surface having two flat surfaces that meet in a peak along an outer surface of the sealing ring , - an inside surface including a rounded bottom portion ; - a flattened front face maintaining contact with the walls of the seal-retaining outer groove ; - a flattened rear face maintaining contact with the walls of the seal-retaining outer groove ; and - a top surface having two flat surfaces that meet in a peak along an outer surface of the sealing ring , wherein the two flat surfaces form an angle of between 100° and 160° therebetween along an outer perimeter of the sealing ring , wherein the sealing ring comprises at least one groove in a face thereof providing a venting path past the sealing ring , wherein the at least one seal plate comprises at least one venting hole that forms a passage between the interior of the cartridge and the outer groove , and wherein the sealing ring seated in the outer groove having a cross-sectional shape that forms a circular venting path between the sealing ring and the seal plate .
A controller configured to control a multiphase synchronous motor with a rotor and a plurality of phases for receiving a plurality of motor vectors, the controller configured to, for a motor flux vector: set a first phase of the motor to a floating state in a first phase in which the first phase is electrically floating; set a voltage across a second phase of the motor for a first period; receive first voltage samples associated with the first phase in the first period; set the voltage across the second phase of the motor for a second period, in which the first period and the second period are periods of one or more pulse width modulation cycles, in which a polarity of the voltage across the second phase in the second period is opposite to a polarity of the voltage across the second phase in the first period; receive second voltage samples associated with the first phase in the second period; and determine a position of the rotor based on the first and second voltage samples ; characterized by being further configured to, on initialization of the motor: apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel. set a first phase of the motor to a floating state in a first phase in which the first phase is electrically floating; set a voltage across a second phase of the motor for a first period; receive first voltage samples associated with the first phase in the first period; set the voltage across the second phase of the motor for a second period, in which the first period and the second period are periods of one or more pulse width modulation cycles, in which a polarity of the voltage across the second phase in the second period is opposite to a polarity of the voltage across the second phase in the first period; receive second voltage samples associated with the first phase in the second period; and determine a position of the rotor based on the first and second voltage samples ; characterized by being further configured to, on initialization of the motor: apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel. apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel.
HIGH-SPEED GLUING UNIT FOR CONTAINER LIDS, applicable to a polar robot for spraying liquid glue or other fluids following a predefined contour, comprising a lower rotating block linked to a main rotating shaft , and product applicators guns coupled to the lower rotating block by means that allow adjusting the turning radius and the tilt of said guns; characterised by including, at least, a central rotating element for feeding fluid and an external rotating element for feeding an electrical signal, linked to the main rotating shaft coupleable to the body of the robot and to the drive and control means of the robot ; the lower rotating block being provided with a fluid outlet and electrical signal; adjustable position means that allow adjusting the turning radius of the guns according to the dimensions of the lid; the guns moving synchronously, electrically or mechanically, being this synchronisation independent or linked; the unit further comprising supports coupled to the ends of the adjustable position means , the product applicator guns being incorporated in said supports with mobile fixings that enable the regulation of their tilt within a range.
A coaxial-cable coupled and water-cooled SWP (surface wave plasma) generator, wherein the generator comprises: a hollow connector having a first inner space defined therein; a coaxial-cable connected to the hollow connector , wherein the coaxial-cable has a core configured to transmit an electromagnetic wave from an electromagnetic wave oscillating unit to the hollow connector , wherein the core extends into the first inner space of the hollow connector , and a dielectric tube , wherein the dielectric tube has a first end portion electromagnetically coupled to the hollow connector so that the electromagnetic wave transmitted into the hollow connector is electromagnetically inputted into the dielectric tube ; and a discharge gas injection unit fluid-communicating with the dielectric tube to inject a discharge gas into the dielectric tube . a hollow connector having a first inner space defined therein; a coaxial-cable connected to the hollow connector , wherein the coaxial-cable has a core configured to transmit an electromagnetic wave from an electromagnetic wave oscillating unit to the hollow connector , wherein the core extends into the first inner space of the hollow connector , and a dielectric tube , wherein the dielectric tube has a first end portion electromagnetically coupled to the hollow connector so that the electromagnetic wave transmitted into the hollow connector is electromagnetically inputted into the dielectric tube ; and a discharge gas injection unit fluid-communicating with the dielectric tube to inject a discharge gas into the dielectric tube .
An apparatus for mounting circuit card assemblies comprising: a linear actuator defining a longitudinal axis (A); an opposed pair of driver members, wherein each driver member is engaged to the linear actuator for motion along the longitudinal axis (A), wherein the driver member defines a mounting plane (P) and includes a pair of wedge surfaces that are oblique, each facing in a direction that has a component in a first direction towards the mounting plane (P) and a component away from the longitudinal axis (A) in a second direction parallel to the mounting plane (P), wherein the first and second directions are different from one another; a pair of back to back locking wedges, wherein each locking wedge is engaged with one of the wedge surfaces of a respective driver member to be driven both toward the mounting plane (P) and the chassis for thermal communication and lateral to the mounting plane (P) away from the longitudinal axis (A) and towards the circuit card for mounting by sliding along the wedge surface of the driver member with the actuator driving the drive member toward a center of the locking wedge ; and a biasing member configured to bias the pair of back to back locking wedges together. a linear actuator defining a longitudinal axis (A); an opposed pair of driver members, wherein each driver member is engaged to the linear actuator for motion along the longitudinal axis (A), wherein the driver member defines a mounting plane (P) and includes a pair of wedge surfaces that are oblique, each facing in a direction that has a component in a first direction towards the mounting plane (P) and a component away from the longitudinal axis (A) in a second direction parallel to the mounting plane (P), wherein the first and second directions are different from one another; a pair of back to back locking wedges, wherein each locking wedge is engaged with one of the wedge surfaces of a respective driver member to be driven both toward the mounting plane (P) and the chassis for thermal communication and lateral to the mounting plane (P) away from the longitudinal axis (A) and towards the circuit card for mounting by sliding along the wedge surface of the driver member with the actuator driving the drive member toward a center of the locking wedge ; and a biasing member configured to bias the pair of back to back locking wedges together.
A method executed in a computing device to provide a passive monitoring system employing a logging schema to track requests at a service, the method comprising: detecting a request received by the service; creating a logging entry for the request at a data store associated with the service; determining whether the request is fulfilled by the service; in response to a determination that the request is fulfilled, classifying the request as a success in a success bucket; in response to a determination that the request is not fulfilled, classifying the request as a detected error in an error bucket, wherein the error bucket denotes a defined error scenario; and determining a reliability of the service based on a percentage of success buckets and error buckets; the method further comprising classifying an error detected for the first time in an uncategorized bucket until an error type is determined; and if a detected error does not belong to a pre-existing error bucket, creating a new error bucket for the detected error, wherein new buckets are continuously added based on newly detected error scenarios; the method further comprising generating a report based on the determined reliability and a performance of the service. detecting a request received by the service; creating a logging entry for the request at a data store associated with the service; determining whether the request is fulfilled by the service; in response to a determination that the request is fulfilled, classifying the request as a success in a success bucket; in response to a determination that the request is not fulfilled, classifying the request as a detected error in an error bucket, wherein the error bucket denotes a defined error scenario; and determining a reliability of the service based on a percentage of success buckets and error buckets; the method further comprising classifying an error detected for the first time in an uncategorized bucket until an error type is determined; and if a detected error does not belong to a pre-existing error bucket, creating a new error bucket for the detected error, wherein new buckets are continuously added based on newly detected error scenarios; the method further comprising generating a report based on the determined reliability and a performance of the service.
A motor control module for a vehicle brake system, comprising: a circuit board ; and a capacitor assembly including a plurality of capacitors ; and an electrically conductive connecting element for electrically connecting the plurality of capacitors , the electrically conductive connecting element being electrically connected to the circuit board , characterized in that the electrically conductive connecting element is disposed in a suspended state relative to the circuit board , such that a gap is maintained between the capacitor assembly and the circuit board , the motor control module further comprises a capacitor holder on which the plurality of capacitors are positioned to form the capacitor assembly and the capacitor assembly is mounted at a side of the capacitor holder facing away from the circuit board , and the electrically conductive connecting element is mounted at a side of the capacitor holder facing the circuit board . a circuit board ; and a capacitor assembly including a plurality of capacitors ; and an electrically conductive connecting element for electrically connecting the plurality of capacitors , the electrically conductive connecting element being electrically connected to the circuit board , characterized in that the electrically conductive connecting element is disposed in a suspended state relative to the circuit board , such that a gap is maintained between the capacitor assembly and the circuit board , the motor control module further comprises a capacitor holder on which the plurality of capacitors are positioned to form the capacitor assembly and the capacitor assembly is mounted at a side of the capacitor holder facing away from the circuit board , and the electrically conductive connecting element is mounted at a side of the capacitor holder facing the circuit board .
Method for calibrating at least one rotatable shift drum in a power train of a motor vehicle, wherein the power train comprises an internal combustion engine and a transmission and at least one control apparatus, and the shift drum is restricted in terms of rotating in one of the two rotating directions, wherein, in a first method step, the shift drum for calibrating the rotary position is rotated in one of the two rotating directions up to the restriction, wherein this rotary position is memorized as the terminal detent position in the control apparatus, characterized in that the one memorized terminal detent position is subjected to verification, and in that the shift drum for the first method step as a function of the vehicle speed is rotated in the first or the second rotating direction.
A method for a user equipment, UE, in device to device, D2D, communications, comprising: - obtaining parameters indicating available resources for scheduling assignments, SAs ; - determining SA resource patterns based on the parameters, wherein each SA resource pattern is for communication with a respective UE and refers to distinct allocated resources within the available resources for transmission of a respective SA ; - receiving a SA resource pattern index and a UE-specific parameter ; and - determining a UE-specific SA resource pattern, based on the SA resource pattern index and the UE-specific parameter, for the UE to transmit and/or receive the respective SA ;and - transmitting and/or receiving the respective SA using the UE-specific SA resource pattern . - obtaining parameters indicating available resources for scheduling assignments, SAs ; - determining SA resource patterns based on the parameters, wherein each SA resource pattern is for communication with a respective UE and refers to distinct allocated resources within the available resources for transmission of a respective SA ; - receiving a SA resource pattern index and a UE-specific parameter ; and - determining a UE-specific SA resource pattern, based on the SA resource pattern index and the UE-specific parameter, for the UE to transmit and/or receive the respective SA ;and - transmitting and/or receiving the respective SA using the UE-specific SA resource pattern .