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| | Tomar Mahima | | Tomar Mahima |
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| − | '''Brief explanation'''
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| − | The abstract describes a controller that is connected to an accelerometer to receive an input signal. The controller has an interface for input and output, and a filter module to process the input signal from the accelerometer. The controller also has a stroke segmentation module that analyzes the filtered input signal to determine certain parameters and generate an envelope signal. Based on the filtered input signal and the envelope signal, the controller can determine the swim stroke of a swimmer. Additionally, there is an activity detection module that works together with the stroke segmentation module.
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| − | '''Abstract'''
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| − | A controller is connected to receive an input signal from at least one accelerometer. The controller comprises an interface facilitating input and output pins/ports, and a filter module to filter the input signal from at least one accelerometer. The controller includes a stroke segmentation module configured to determine at least two parameters comprising a first parameter and a second parameter from the filtered input signal, generate an envelope signal using the at least two parameters and the filtered input signal, and determine the swim stroke of the swimmer based on the filtered input signal and the envelope signal. Further, an activity detection module is used in combination with the stroke segmentation module.
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| | ===Method for Controlling a Robotic Device ([[US Patent Application 18295389. Method for Controlling a Robotic Device simplified abstract|18295389]])=== | | ===Method for Controlling a Robotic Device ([[US Patent Application 18295389. Method for Controlling a Robotic Device simplified abstract|18295389]])=== |
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| | Markus Spies | | Markus Spies |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for controlling a robotic device. The method involves controlling the device to perform a series of actions based on a control vector, which indicates the action to be performed for a given control situation. The method also includes evaluating the performance of a specified task using multiple target metrics. The probability distribution of the control vectors is adjusted based on the task performance and target metric evaluations. A control vector is randomly selected according to the adjusted probability distribution for the current control scenario, and the robotic device is controlled to perform the corresponding action.
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| − | '''Abstract'''
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| − | A method for controlling a robotic device includes, for each control vector from a plurality of control vectors: controlling the robotic device to perform a sequence of actions, the control vector indicating which action is to be performed for a respectively observed control situation; and determining, by the sequence of actions, values of multiple target metrics that evaluate the performance of a specified task. The method then adjusts a probability distribution of the control vectors such that the probability of control vectors is increased for which the specified task was performed with high evaluations and the multiple target metrics have satisfied at least one target condition; randomly selects a control vector according to the probability distribution for performing the task in a current control scenario; and controls the robotic device to perform a sequence of actions, the control vector indicating which action is performed for a respectively observed control situation.
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| | ===METHOD FOR CONNECTING A FILM TO A SUBSTRATE ([[US Patent Application 18296483. METHOD FOR CONNECTING A FILM TO A SUBSTRATE simplified abstract|18296483]])=== | | ===METHOD FOR CONNECTING A FILM TO A SUBSTRATE ([[US Patent Application 18296483. METHOD FOR CONNECTING A FILM TO A SUBSTRATE simplified abstract|18296483]])=== |
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| | Andreas Markus Uyttendaele | | Andreas Markus Uyttendaele |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for connecting a film to a substrate. The method involves bringing the film and substrate together and applying a clamping force in a specific region to establish contact between them. The film and substrate are then heated in a connecting region to create a strong bond. The clamping force is maintained during the heating process, allowing for movement between the film and substrate in the clamping region.
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| − | '''Abstract'''
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| − | A method for connecting a film () to a substrate () includes providing () a film () and a substrate (), bringing () the film () and the substrate () together, applying () at least one clamping force in at least one clamping region (), in which the clamping force acts to establish a contact of the film () with the substrate (), and heating () the film () and/or substrate () in at least a respective connecting region () in which the film () and the substrate () are connected together. The clamping force is maintained during the heating process, yet the film () and the substrate () can be moved relative to one another in the clamping region ().
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| | | | |
| | ===CHARGING DEVICE AND METHOD FOR OPERATING THE CHARGING DEVICE ([[US Patent Application 17767701. CHARGING DEVICE AND METHOD FOR OPERATING THE CHARGING DEVICE simplified abstract|17767701]])=== | | ===CHARGING DEVICE AND METHOD FOR OPERATING THE CHARGING DEVICE ([[US Patent Application 17767701. CHARGING DEVICE AND METHOD FOR OPERATING THE CHARGING DEVICE simplified abstract|17767701]])=== |
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| | Thomas Plum | | Thomas Plum |
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| − | '''Brief explanation'''
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| − | The abstract describes a charging device that has an input terminal for connecting to a power source and an output terminal for connecting to a battery that needs to be charged. The device includes a transformer with a primary winding connected to the input terminal and a secondary winding connected to the output terminal. This allows electrical energy from the power source to be transferred to the battery through the transformer.
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| − | '''Abstract'''
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| − | The invention relates to a charging device (), comprising: an input-side first terminal (__) for connecting to an electrical energy source (); an output-side second terminal (__) for connecting to a battery () to be charged; and a transformer (), the primary winding (_) of which is electrically connected to the first terminal (__) by means of a primary circuit () and the secondary winding (_) of which is electrically connected to the second terminal (__) by means of a secondary circuit ().
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| | ===DEVICE AND METHOD FOR REDUCING THE NUMBER OF ANALOG INPUTS AT A CONTROL DEVICE ([[US Patent Application 18042013. DEVICE AND METHOD FOR REDUCING THE NUMBER OF ANALOG INPUTS AT A CONTROL DEVICE simplified abstract|18042013]])=== | | ===DEVICE AND METHOD FOR REDUCING THE NUMBER OF ANALOG INPUTS AT A CONTROL DEVICE ([[US Patent Application 18042013. DEVICE AND METHOD FOR REDUCING THE NUMBER OF ANALOG INPUTS AT A CONTROL DEVICE simplified abstract|18042013]])=== |
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| | Jonathan Mueller | | Jonathan Mueller |
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| − | '''Brief explanation'''
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| − | The invention described in the abstract is about a device and method that aim to reduce the number of analog inputs required for a control device. The proposed solution involves transmitting at least two distinct physical signals through a single analog input of the control device.
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| − | '''Abstract'''
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| − | The invention relates to a device and a method for reducing the number of analog inputs at a control device (). It is proposed that at least two physical signals, which are different from each other, are transmitted at an analog input of the control device ().
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| | ===Control Method for Moving an Electromechanical Parking Brake ([[US Patent Application 18249002. Control Method for Moving an Electromechanical Parking Brake simplified abstract|18249002]])=== | | ===Control Method for Moving an Electromechanical Parking Brake ([[US Patent Application 18249002. Control Method for Moving an Electromechanical Parking Brake simplified abstract|18249002]])=== |
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| | Frank Baehrle-Miller | | Frank Baehrle-Miller |
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| − | '''Brief explanation'''
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| − | This abstract describes a control method for an electromechanical parking brake. The method involves using an actuator-control unit to move the actuator of the parking brake. A writable, non-volatile memory unit is used to store position data about the current position of the actuator. If there is an error while writing the position data to the memory unit, the actuator will continue to be moved. However, once the error is detected, a synchronization process is initiated independently of the actuator movement. This process ensures that the position data stored in the memory unit accurately represents the actual position of the actuator.
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| − | '''Abstract'''
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| − | A control method for moving an electromechanical parking brake, according to which method an actuator of the parking brake is moved by actuation by means of an actuator-control unit, wherein a writable, non-volatile memory unit is provided in which position data concerning the current actuator position of the actuator is stored so as to be readable and writable, and according to which method, when a write error occurs while writing the position data to the memory unit, the actuation of the actuator for moving said actuator is continued, and, when the write error is detected, a synchronization process is carried out independently of the actuation of the actuator so that, upon completion of this synchronization process, the position data stored in the memory unit correctly represents the actuator position of the actuator.
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| | ===Computer-Implemented Method for Training an Articial Intelligence Module to Determine a Tire Type of a Motor Vehicle ([[US Patent Application 18042262. Computer-Implemented Method for Training an Articial Intelligence Module to Determine a Tire Type of a Motor Vehicle simplified abstract|18042262]])=== | | ===Computer-Implemented Method for Training an Articial Intelligence Module to Determine a Tire Type of a Motor Vehicle ([[US Patent Application 18042262. Computer-Implemented Method for Training an Articial Intelligence Module to Determine a Tire Type of a Motor Vehicle simplified abstract|18042262]])=== |
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| | Julio Borges | | Julio Borges |
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| − | '''Brief explanation'''
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| − | This abstract describes a computer-based method for training an artificial intelligence module to determine the type of tire on a motor vehicle. The method involves using a dataset that includes measurements of ultrasound data, speed data, and tire data. The ultrasound data represents the sound waves produced by the rolling of a tire, the speed data represents the vehicle's speed, and the tire data represents the type of tire. The method then generates a modified training dataset by creating an input dataset from the ultrasound and speed data, and an output dataset from the tire data. The AI module is then trained using this modified training dataset.
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| − | '''Abstract'''
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| − | A computer-implemented method for training an artificial intelligence module to determine a tire type of a motor vehicle is disclosed. The method includes providing a measured value dataset on a data carrier, wherein the measured value dataset contains at least one data entry regarding ultrasound data, speed data and tire data, wherein the ultrasound data describe at least one ultrasonic wave that was produced by rolling of a tire of the motor vehicle, wherein the speed data describe a speed of the motor vehicle, wherein the tire data describe a tire type of the motor vehicle. The method further includes generating a modified training dataset based on the measured value dataset. Generating the modified training dataset includes (i) forming an input dataset based on the ultrasound data and the speed data of the measured value dataset, (ii) forming an output dataset based on the tire data of the measured value dataset, and (iii) training the AI module based on the modified training dataset.
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| | ===METHOD FOR ADJUSTING A FUEL MASS TO BE INJECTED ([[US Patent Application 18295172. METHOD FOR ADJUSTING A FUEL MASS TO BE INJECTED simplified abstract|18295172]])=== | | ===METHOD FOR ADJUSTING A FUEL MASS TO BE INJECTED ([[US Patent Application 18295172. METHOD FOR ADJUSTING A FUEL MASS TO BE INJECTED simplified abstract|18295172]])=== |
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| | Alexandre Wagner | | Alexandre Wagner |
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| − |
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| − | '''Brief explanation'''
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| − | The abstract describes a method for adjusting the amount of fuel injected into an internal combustion engine. The method involves determining the amount of air entering the engine, calculating the appropriate fuel mass to be injected, and adjusting the air-fuel ratio in the exhaust system. Based on this adjusted ratio and the calculated fuel mass, a first wall film fuel mass is calculated, which is then used to adjust the amount of fuel to be injected into the engine.
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| − | '''Abstract'''
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| − | A method for adjusting a fuel mass to be injected into an internal combustion engine. The internal combustion engine including an intake tract, at least one cylinder, and an exhaust tract. In the method, an air mass introduced into the internal combustion engine is ascertained and a fuel mass to be injected into the internal combustion engine is determined. An air-fuel ratio in the exhaust tract of the internal combustion engine is determined which is adjusted in time. Based on the time-adjusted air-fuel ratio and the calculated fuel mass to be injected, a first wall film fuel mass is calculated and the fuel mass to be injected is adjusted based on the first wall film fuel mass.
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| | ===Method and Apparatus for Operating a System for Detecting an Anomaly of an Electrical Energy Store for a Device by Means of Machine Learning Methods ([[US Patent Application 18190548. Method and Apparatus for Operating a System for Detecting an Anomaly of an Electrical Energy Store for a Device by Means of Machine Learning Methods simplified abstract|18190548]])=== | | ===Method and Apparatus for Operating a System for Detecting an Anomaly of an Electrical Energy Store for a Device by Means of Machine Learning Methods ([[US Patent Application 18190548. Method and Apparatus for Operating a System for Detecting an Anomaly of an Electrical Energy Store for a Device by Means of Machine Learning Methods simplified abstract|18190548]])=== |
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| | Christian Simonis | | Christian Simonis |
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| − | '''Brief explanation'''
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| − | The abstract describes a computer-based method for detecting abnormal behavior in an electrical energy store in a technical device. The method involves monitoring the operating variables of the energy store and extracting relevant features from the collected data. An anomaly detection model, specifically an autoencoder, is then used to analyze the input data and generate a reconstructed version of the input. Based on the difference between the reconstructed input and the original input, an error is determined and signaled if necessary.
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| − | '''Abstract'''
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| − | A computer-implemented method for determining an anomaly of a behavior of an electrical energy store in a technical device includes sensing an operating variable profile of at least one operating variable of the electrical energy store, and determining at least one feature from the sensed operating variable profile of the at least one operating variable of the electrical energy store. The method further includes evaluating an anomaly detection model using an autoencoder with a supplied input vector that includes or depends on the determined at least one feature, in order to determine a reconstructed input vector, and signaling an error based on a reconstruction error between the reconstructed input vector and the supplied input vector.
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| | ===METHOD FOR CALIBRATING A PLURALITY OF CURRENT SENSORS, BATTERY SYSTEM ([[US Patent Application 18186317. METHOD FOR CALIBRATING A PLURALITY OF CURRENT SENSORS, BATTERY SYSTEM simplified abstract|18186317]])=== | | ===METHOD FOR CALIBRATING A PLURALITY OF CURRENT SENSORS, BATTERY SYSTEM ([[US Patent Application 18186317. METHOD FOR CALIBRATING A PLURALITY OF CURRENT SENSORS, BATTERY SYSTEM simplified abstract|18186317]])=== |
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| | Mathis Wolf | | Mathis Wolf |
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| − | '''Brief explanation'''
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| − | The abstract describes a method for calibrating a series of current sensors. The method involves determining the temperature difference between the sensors, measuring temperature and current values at different temperatures and currents, calculating averaged current values for two sensors, calculating a current regression area for each sensor based on temperature and current deviations, and calculating a TCR regression curve or area based on the intersection of the current regression areas and the temperature difference between the sensors.
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| − | '''Abstract'''
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| − | A method for calibrating a plurality of current sensors connected in series. The method include determining a temperature difference between the current sensors; sensing temperature values and current values of the respective current sensors at different temperatures and currents; calculating averaged current values of two current sensors based on the current measured values sensed by the respective current sensors; calculating a current regression area for the respective current sensors through measurement points that are dependent on the temperature of the respective current sensors and the deviation of the current values sensed by the respective current sensors relative to one another; and calculating a TCR regression curve or a TCR regression area for the respective current sensors based on a deviation and an intersection curve of the respective current regression areas relative to one another and/or relative to an averaged current regression area and a temperature difference between the current sensors.
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| | ===Radar Sensor System, Modulation Apparatus and Method ([[US Patent Application 18156763. Radar Sensor System, Modulation Apparatus and Method simplified abstract|18156763]])=== | | ===Radar Sensor System, Modulation Apparatus and Method ([[US Patent Application 18156763. Radar Sensor System, Modulation Apparatus and Method simplified abstract|18156763]])=== |
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| | Tianyi Yu | | Tianyi Yu |
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| − | '''Brief explanation'''
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| − | The abstract describes a radar sensor system that consists of multiple groups of radar sensors. Each radar sensor in a group is assigned a unique serial number based on its position in the group. The system also includes a modulation device that controls the modulation of the radar sensors. The modulation device ensures that radar sensors within the same group transmit radar signals with different time modulation, while radar sensors with the same serial numbers in different groups transmit radar signals with the same time modulation.
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| − | '''Abstract'''
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| − | Provided in the present disclosure are a radar sensor system, and a modulation device and method thereof. The radar sensor system includes a plurality of groups of radar sensors, and each radar sensor has a serial number corresponding to an order thereof in the group. The modulation device is configured to perform modulation control on the plurality of groups of radar sensors, such that the radar sensors in the same group transmit radar signals by different time modulation and the radar sensors with the corresponding serial numbers in different groups transmit radar signals by the same time modulation.
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| | ===Method for Creating an Environment Model ([[US Patent Application 18296509. Method for Creating an Environment Model simplified abstract|18296509]])=== | | ===Method for Creating an Environment Model ([[US Patent Application 18296509. Method for Creating an Environment Model simplified abstract|18296509]])=== |
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| | Marcus O'Connor | | Marcus O'Connor |
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| − | '''Brief explanation'''
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| − | The abstract describes a method for creating a model of an environment using data from a satellite navigation system. The method involves receiving measurement data from the system and categorizing it based on the line of sight. The data is then used to generate representations of walls in the environment.
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| − | '''Abstract'''
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| − | A method for creating an environment model includes receiving measurement data from a satellite navigation system, classifying the measurement data with respect to a line of sight, and generating wall objects.
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| | ===Method for Estimating at least One System State by Means of a Kalman Filter ([[US Patent Application 18182056. Method for Estimating at least One System State by Means of a Kalman Filter simplified abstract|18182056]])=== | | ===Method for Estimating at least One System State by Means of a Kalman Filter ([[US Patent Application 18182056. Method for Estimating at least One System State by Means of a Kalman Filter simplified abstract|18182056]])=== |
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| | Simon Weissenmayer | | Simon Weissenmayer |
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| − | '''Brief explanation'''
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| − | The abstract describes a method called the Kalman filter, which is used to estimate the state of a system. This method takes measured values from sensors and uses them to predict and correct the estimated state. The method involves determining the state description at a given time step, considering the previous state description. It also determines a filtered state description at the same time step, considering the determined state description and the filtered state description from the previous time step. Additionally, it determines information about the reliability of the prediction at the time step, considering the determined state description and the filtered state description.
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| − | '''Abstract'''
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| − | In a method for estimating at least one system state using a Kalman filter, measured values measured by at least one sensor are fed to the Kalman filter and the Kalman filter outputs an estimation result and at least one associated item of information concerning the reliability of the estimation result by carrying out a prediction step and a correction step. The method includes determining a description of a state in a time step taking into account a description of a state from a previous time step, determining a filtered description of the state at the same time step taking into account the description of the determined state and a filtered description of a state from a previous time step, and determining information concerning the reliability of the prediction at the time step taking into account the description of the determined state and the filtered description of the determined state.
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| | ===METHOD FOR PROJECTING IMAGE CONTENTS ONTO A USER'S RETINA BY WAY OF AN OPTICAL SYSTEM ([[US Patent Application 18187164. METHOD FOR PROJECTING IMAGE CONTENTS ONTO A USER'S RETINA BY WAY OF AN OPTICAL SYSTEM simplified abstract|18187164]])=== | | ===METHOD FOR PROJECTING IMAGE CONTENTS ONTO A USER'S RETINA BY WAY OF AN OPTICAL SYSTEM ([[US Patent Application 18187164. METHOD FOR PROJECTING IMAGE CONTENTS ONTO A USER'S RETINA BY WAY OF AN OPTICAL SYSTEM simplified abstract|18187164]])=== |
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| | Robert Wolf | | Robert Wolf |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for projecting images onto a user's retina using an optical system. The process involves projecting a light beam onto a diverting unit, which then redirects the beam towards the user's eye. Any deviation of the projected light beam from its desired state is recorded and stored. Based on this deviation, second image data is generated using an image-processing device. These second image data are then received and projected at different time intervals using the projector unit.
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| − | '''Abstract'''
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| − | A method for projecting image contents onto a user’s retina using an optical system. A light beam is first projected onto a diverting unit of the optical system using a projector unit of the optical system. The light beam is subsequently diverted to the position of the user’s eye. An ascertained deviation of an actual state of the projected light beam diverted by the diverting unit from a desired state is stored using memory unit. Second image data are generated using an image-processing device based on the stored and ascertained deviation of the actual state of the projected light beam from the desired state. The second image data are received using the projector unit. The received second image data are projected at successive second time intervals using the projector unit. At least two of the second time intervals differ from one another in terms of time.
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| | ===METHOD FOR DETERMINING A CURRENT VIEWING DIRECTION OF A USER OF DATA GLASSES WITH A VIRTUAL RETINA DISPLAY AND DATA GLASSES ([[US Patent Application 18189520. METHOD FOR DETERMINING A CURRENT VIEWING DIRECTION OF A USER OF DATA GLASSES WITH A VIRTUAL RETINA DISPLAY AND DATA GLASSES simplified abstract|18189520]])=== | | ===METHOD FOR DETERMINING A CURRENT VIEWING DIRECTION OF A USER OF DATA GLASSES WITH A VIRTUAL RETINA DISPLAY AND DATA GLASSES ([[US Patent Application 18189520. METHOD FOR DETERMINING A CURRENT VIEWING DIRECTION OF A USER OF DATA GLASSES WITH A VIRTUAL RETINA DISPLAY AND DATA GLASSES simplified abstract|18189520]])=== |
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| | Johannes Meyer | | Johannes Meyer |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for determining the current viewing direction of a user wearing data glasses with a virtual retina scan display. The method involves projecting parallel infrared laser beams onto the user's eye and capturing two-dimensional images of the reflected beams. The pupil contours in these images are then determined. By comparing the shape of the pupil contour with a reference shape, the method can ascertain the user's instantaneous viewing direction.
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| − | '''Abstract'''
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| − | A method for determining a current viewing direction of a user of a pair of data glasses having a virtual retina scan display. The method includes at least the method steps: projecting at least substantially parallel infrared laser beams onto an eye of a user of the data glasses, acquiring two-dimensional images from the infrared laser beams reflected back by the eye of the user, and determining pupil contours in the acquired two-dimensional images. The instantaneous viewing direction of the user of the data glasses is ascertained from a comparison of an instantaneous elliptical shape of the pupil contour with an elliptical shape of a reference pupil contour.
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| | ===System and Method to Generate Interpretable Embeddings for Domain Specific Small Corpus ([[US Patent Application 18189883. System and Method to Generate Interpretable Embeddings for Domain Specific Small Corpus simplified abstract|18189883]])=== | | ===System and Method to Generate Interpretable Embeddings for Domain Specific Small Corpus ([[US Patent Application 18189883. System and Method to Generate Interpretable Embeddings for Domain Specific Small Corpus simplified abstract|18189883]])=== |
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| | Rishabh Gupta | | Rishabh Gupta |
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| − | '''Brief explanation'''
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| − | This abstract describes a method and system for creating understandable representations of a small collection of text documents. The system cleans the documents and then uses a technique called semantic infusion to create a new corpus. The system then generates embeddings (representations) of the new corpus using a technique called word2vec. The system also creates baseline embeddings for comparison. These embeddings can be evaluated for interpretability and performance in classification tasks.
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| − | '''Abstract'''
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| − | A method and systems for generating interpretable and embeddings for a domain-specific small corpus of text-based documents are described. A processing module may obtain the plurality of text-based documents and perform a basic cleaning of each of the plurality of text-based documents. Further, the semantic infusion module may generate the semantically infused corpus using the semantic infusion technique. An embedding generation module is configured to compute the optimal dimensionality for the infused corpus and generate the infused optimal dimensional embeddings using word2vec technique. Further, the embedding generation module is configured to generate baseline optimal dimensional embeddings which can be used to evaluate in terms of interpretability and downstream classification task performance.--
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| | ===METHOD AND SYSTEM FOR ASSOCIATING DIAGNOSTIC CODES WITH PROBLEM-SOLUTION DESCRIPTIONS ([[US Patent Application 17658759. METHOD AND SYSTEM FOR ASSOCIATING DIAGNOSTIC CODES WITH PROBLEM-SOLUTION DESCRIPTIONS simplified abstract|17658759]])=== | | ===METHOD AND SYSTEM FOR ASSOCIATING DIAGNOSTIC CODES WITH PROBLEM-SOLUTION DESCRIPTIONS ([[US Patent Application 17658759. METHOD AND SYSTEM FOR ASSOCIATING DIAGNOSTIC CODES WITH PROBLEM-SOLUTION DESCRIPTIONS simplified abstract|17658759]])=== |
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| | HyeongSik Kim | | HyeongSik Kim |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for linking diagnostic codes with problem-solution descriptions. The method involves using a subset of training data pairs, which consist of diagnostic codes and their corresponding problem-solution descriptions. Additional problem-solution descriptions that are not yet associated with any diagnostic codes are also received. A second subset of training data pairs is then generated by associating these new problem-solution descriptions with their respective diagnostic codes, using the initial subset of training data pairs. A model is then trained using this data to effectively link diagnostic codes with problem-solution descriptions.
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| − | '''Abstract'''
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| − | A method for associating diagnostic codes with problem-solution descriptions is disclosed. The method comprises receiving a first subset of a plurality of training data pairs. Each training data pair in the first plurality of training data pairs includes (i) a respective diagnostic code and (ii) a respective problem-solution description associated with the respective diagnostic code. The method further comprises receiving a plurality of problem-solution descriptions that are not yet associated with any diagnostic codes. The method further comprises generating a second subset of the plurality of training data pairs by associating the plurality of problem-solution descriptions with respective diagnostic codes, using the first subset of the plurality of training data pairs. The method further comprises training a model using on the plurality of training data pairs. The at least one model is configured to associate diagnostic codes with problem-solution descriptions.
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| | ===DATA AUGMENTATION FOR DOMAIN GENERALIZATION ([[US Patent Application 17716590. DATA AUGMENTATION FOR DOMAIN GENERALIZATION simplified abstract|17716590]])=== | | ===DATA AUGMENTATION FOR DOMAIN GENERALIZATION ([[US Patent Application 17716590. DATA AUGMENTATION FOR DOMAIN GENERALIZATION simplified abstract|17716590]])=== |
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| | Laura BEGGEL | | Laura BEGGEL |
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| − | '''Brief explanation'''
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| − | This abstract describes a method and system for improving the performance of a machine learning model by generating training data. The process involves selecting a source image and a target image from a database. An image segmenter is used to create segmentation masks for both images, separating the foreground and background regions. The foreground and background regions are determined based on these masks. The target image's foreground is removed, and the source image's foreground is inserted into the target image, creating an augmented image with the source image's foreground and the target image's background. This augmented image is then added to the training data for the machine learning model.
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| − | '''Abstract'''
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| − | Methods and systems are disclosed for generating training data for a machine learning model for better performance of the model. A source image is selected from an image database, along with a target image. An image segmenter is utilized with the source image to generate a source image segmentation mask having a foreground region and a background region. The same is performed with the target image to generate a target image segmentation mask having a foreground region and a background region. Foregrounds and backgrounds of the source image and target image are determined based on the masks. The target image foreground is removed from the target image, and the source image foreground is inserted into the target image to create an augmented image having the source image foreground and the target image background. The training data for the machine learning model is updated to include this augmented image.
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| | ===METHOD AND DEVICE FOR RECORDING EVENT DATA IN A VEHICLE ([[US Patent Application 18024580. METHOD AND DEVICE FOR RECORDING EVENT DATA IN A VEHICLE simplified abstract|18024580]])=== | | ===METHOD AND DEVICE FOR RECORDING EVENT DATA IN A VEHICLE ([[US Patent Application 18024580. METHOD AND DEVICE FOR RECORDING EVENT DATA IN A VEHICLE simplified abstract|18024580]])=== |
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| | Andreas Markus Brodt | | Andreas Markus Brodt |
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| − |
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| − | '''Brief explanation'''
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| − | This abstract describes a method for recording event data in a vehicle. The method involves continuously receiving vehicle data from at least one vehicle system and writing it as event data in data frames of a specific size. These data frames are then stored in volatile memory. The stored data frames are managed and kept in the volatile memory until they become older than a predetermined maximum pre-event point in time or until a recognized predetermined event occurs, at which point they are stored persistently in non-volatile memory. The method also involves dividing the received reference information of the data frames into partitions of a specific size, and writing this reference information in any time sequence. Subsequences of the written reference information in the partitions are randomly sorted and marked.
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| − |
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| − | '''Abstract'''
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| − | A method for recording event data in a vehicle. Vehicle data are received continuously from at least one vehicle system and are written as event data in data frames of a predetermined size. The individual data frames are stored in at least one volatile memory. The stored data frames are managed and kept available in the at least one volatile memory until the event data stored in the individual data frames are older than a predetermined maximum pre-event point in time, or are stored persistently in at least one non-volatile memory in reaction to a recognized predetermined event. At least one partition of a predetermined size is provided, into which the received reference information of the individual data frames is written in any time sequence. Temporally randomly-sorted subsequences of the written reference information of the individual data frames in the at least one partition are ascertained and marked.
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| | ===Method and Apparatus for Determining Fault Tolerant Time Interval (FTTI) of Autonomous Driving Assistance System ([[US Patent Application 18296113. Method and Apparatus for Determining Fault Tolerant Time Interval (FTTI) of Autonomous Driving Assistance System simplified abstract|18296113]])=== | | ===Method and Apparatus for Determining Fault Tolerant Time Interval (FTTI) of Autonomous Driving Assistance System ([[US Patent Application 18296113. Method and Apparatus for Determining Fault Tolerant Time Interval (FTTI) of Autonomous Driving Assistance System simplified abstract|18296113]])=== |
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| | Yingjie Yu | | Yingjie Yu |
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| − | '''Brief explanation'''
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| − | The abstract describes a method for determining a fault tolerant time interval (FTTI) for an autonomous driving assistance system. This involves receiving results from emulations or vehicle tests that show the relationship between a sensitive parameter and the duration of a fault. The method also includes receiving a controllability study result. Using a database that includes the emulation or vehicle test results and the controllability study result, the FTTI is determined based on a safety target related to the sensitive parameter. The abstract also mentions an apparatus, computer storage medium, and computer program product for implementing this method.
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| − |
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| − | '''Abstract'''
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| − | A method for determining a fault tolerant time interval (FTTI) of an autonomous driving assistance system is disclosed. The method includes (i) receiving an emulation result and/or a vehicle test result, wherein the emulation result and/or the vehicle test result includes a relationship between a sensitive parameter and a fault duration, (ii) receiving a controllability study result; and (iii) determining the fault tolerant time interval (FTTI) from a database including the emulation result and/or the vehicle test result and the controllability study result on the basis of a safety target related to the sensitive parameter. An apparatus for determining a fault tolerant time interval (FTTI) of an autonomous driving assistance system, a computer storage medium, and a computer program product are also disclosed.
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| | ===METHOD AND APPARATUS FOR ASCERTAINING A PARAMETER, SAID PARAMETER CHARACTERIZING A CURRENT OR A VOLTAGE IN A CIRCUIT ARRANGEMENT ([[US Patent Application 18041920. METHOD AND APPARATUS FOR ASCERTAINING A PARAMETER, SAID PARAMETER CHARACTERIZING A CURRENT OR A VOLTAGE IN A CIRCUIT ARRANGEMENT simplified abstract|18041920]])=== | | ===METHOD AND APPARATUS FOR ASCERTAINING A PARAMETER, SAID PARAMETER CHARACTERIZING A CURRENT OR A VOLTAGE IN A CIRCUIT ARRANGEMENT ([[US Patent Application 18041920. METHOD AND APPARATUS FOR ASCERTAINING A PARAMETER, SAID PARAMETER CHARACTERIZING A CURRENT OR A VOLTAGE IN A CIRCUIT ARRANGEMENT simplified abstract|18041920]])=== |
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| | Dennis Bura | | Dennis Bura |
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| − | '''Brief explanation'''
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| − | The abstract describes a method for determining a parameter that characterizes a current or voltage in a circuit arrangement. The circuit arrangement includes an inductor through which an alternating choke current flows. The method involves determining the duration between two zero crossings of the choke current or the duration between a zero crossing and an apex of the choke current. Based on these durations, the parameter is calculated.
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| − |
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| − | '''Abstract'''
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| − | Disclosed is a method () for ascertaining a parameter (I_avg, I_N, I_P, V_c), said parameter (I_avg, I_N, I_P, V_c) characterizes a current or a voltage in a circuit arrangement (). The circuit arrangement () comprises an inductor (L) through which an alternating choke current (I_L) flows. The method comprises the steps of: ascertaining () at least one duration (TN) between two zero crossings (N_−, N_+)+) of the choke current (I_L), or a duration (TNE) between a zero crossing (N_−, N_+)+) and an apex (E_−, E_+) of the choke current (I_L); ascertaining () the parameter (I_avg, I_N, I_P, V_c) according to the ascertained duration (TN, TNE).
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| | ===CONTROL DEVICE AND CONTROL METHOD FOR AN ELECTRIC DRIVE SYSTEM, AND ELECTRIC DRIVE SYSTEM ([[US Patent Application 17924796. CONTROL DEVICE AND CONTROL METHOD FOR AN ELECTRIC DRIVE SYSTEM, AND ELECTRIC DRIVE SYSTEM simplified abstract|17924796]])=== | | ===CONTROL DEVICE AND CONTROL METHOD FOR AN ELECTRIC DRIVE SYSTEM, AND ELECTRIC DRIVE SYSTEM ([[US Patent Application 17924796. CONTROL DEVICE AND CONTROL METHOD FOR AN ELECTRIC DRIVE SYSTEM, AND ELECTRIC DRIVE SYSTEM simplified abstract|17924796]])=== |
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| | Alexander Rosen | | Alexander Rosen |
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| − | '''Brief explanation'''
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| − | The abstract describes a new invention that involves monitoring the temperature of the rotor in an electric machine. Based on this temperature, the invention adjusts the modulation methods and switching frequency used to control the electric drive system.
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| − | '''Abstract'''
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| − | The present invention relates to controlling an electric drive system. According to the invention, the rotor temperature of an electrical machine is monitored and modulation methods and the switching frequency for controlling the drive system are adapted depending on the rotor temperature.
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| | | | |
| | ===TRANSIMPEDANCE AMPLIFIER DEVICE AND SENSOR SYSTEM ([[US Patent Application 18297584. TRANSIMPEDANCE AMPLIFIER DEVICE AND SENSOR SYSTEM simplified abstract|18297584]])=== | | ===TRANSIMPEDANCE AMPLIFIER DEVICE AND SENSOR SYSTEM ([[US Patent Application 18297584. TRANSIMPEDANCE AMPLIFIER DEVICE AND SENSOR SYSTEM simplified abstract|18297584]])=== |
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| | Robert Wolf | | Robert Wolf |
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| − | '''Brief explanation'''
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| − | The abstract describes a device called a two-stage transimpedance amplifier. This device consists of two amplifiers: a transimpedance amplifier and a voltage differential amplifier. The two amplifiers are connected in a specific way where one amplifier receives a signal from the other amplifier as a reference signal. This configuration allows for noise compensation, which means that any unwanted noise in the signal can be reduced or eliminated. Overall, the device aims to improve the quality of the signal by minimizing noise interference.
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| − |
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| − | '''Abstract'''
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| − | A two-stage transimpedance amplifier device having a transimpedance amplifier and a post-connected voltage differential amplifier. One of the two amplifiers receives a signal from the respective other amplifier as a reference signal. In this way, a noise compensation is able to be achieved.
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| | ===DEVICE INCLUDING A COMPARATOR UNIT AND METHOD FOR OPERATING A DEVICE INCLUDING A COMPARATOR UNIT ([[US Patent Application 18297579. DEVICE INCLUDING A COMPARATOR UNIT AND METHOD FOR OPERATING A DEVICE INCLUDING A COMPARATOR UNIT simplified abstract|18297579]])=== | | ===DEVICE INCLUDING A COMPARATOR UNIT AND METHOD FOR OPERATING A DEVICE INCLUDING A COMPARATOR UNIT ([[US Patent Application 18297579. DEVICE INCLUDING A COMPARATOR UNIT AND METHOD FOR OPERATING A DEVICE INCLUDING A COMPARATOR UNIT simplified abstract|18297579]])=== |
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| | Taha Ibrahim Ibrahim Soliman | | Taha Ibrahim Ibrahim Soliman |
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| − |
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| − | '''Brief explanation'''
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| − | The abstract describes a device that includes a comparator unit. This comparator unit has two components: a reference current provision unit that provides a reference current and a comparison current provision unit that provides a comparison current. The purpose of the comparator unit is to compare the reference current with the comparison current and obtain a comparison result. Based on this result, the device can then adjust the reference current and/or comparison current of other comparator units.
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| − |
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| − | '''Abstract'''
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| − | A device including a first comparator unit, the first comparator unit including a first reference current provision unit for providing a first reference current and a first comparison current provision unit for providing a first comparison current, and the first comparator unit being designed to compare the first reference current with the first comparison current in order to obtain a first comparison result and, based on the first comparison result, to influence at least one reference current and/or at least one comparison current of at least one further comparator unit.
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| | | | |
| | ===EMC FILTER FOR A CONTROL DEVICE ([[US Patent Application 18043478. EMC FILTER FOR A CONTROL DEVICE simplified abstract|18043478]])=== | | ===EMC FILTER FOR A CONTROL DEVICE ([[US Patent Application 18043478. EMC FILTER FOR A CONTROL DEVICE simplified abstract|18043478]])=== |
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| | Rupert Fackler | | Rupert Fackler |
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| − | '''Brief explanation'''
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| − | The abstract describes an EMC filter for a control device. The filter is made up of a multilayer circuit carrier that has electrically conductive layers (usually made of copper) and electrically insulating circuit board layers. The circuit carrier is designed to create at least two filter capacitors. These capacitors are formed by the electrically conductive layers in the circuit carrier that are positioned opposite each other or run parallel to each other at a certain distance.
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| − |
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| − | '''Abstract'''
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| − | The invention relates to an EMC filter for a control device. The filter includes a multilayer circuit carrier comprising electrically conductive layers, in particular copper layers, and electrically insulating circuit board layers. According to the invention, the circuit carrier of the aforementioned type forms at least two filter capacitors, wherein in each case the filter capacitors are formed by electrically conductive layers that are formed in the circuit carrier and lie across from one another and/or extend parallel at a distance from each other.
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| | ===HIGH-FREQUENCY COMPONENT, ELECTRIC CIRCUIT ARRANGEMENT AND RADAR SYSTEM ([[US Patent Application 18182523. HIGH-FREQUENCY COMPONENT, ELECTRIC CIRCUIT ARRANGEMENT AND RADAR SYSTEM simplified abstract|18182523]])=== | | ===HIGH-FREQUENCY COMPONENT, ELECTRIC CIRCUIT ARRANGEMENT AND RADAR SYSTEM ([[US Patent Application 18182523. HIGH-FREQUENCY COMPONENT, ELECTRIC CIRCUIT ARRANGEMENT AND RADAR SYSTEM simplified abstract|18182523]])=== |
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| | | | |
| | Kevin Stella | | Kevin Stella |
| − |
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| − |
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| − | '''Brief explanation'''
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| − | The abstract describes an electronic component designed for high-frequency applications. It consists of an integrated circuit with a chip that processes high-frequency signals, along with at least one signal coupling element or launcher for connecting and disconnecting these signals. These components are housed together in a common substrate. The housing substrate has a land grid array (LGA) structure on its outer surface. Additionally, there is an electrically conductive border surrounding each launcher on the housing substrate's surface.
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| − |
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| − | '''Abstract'''
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| − | An electronic component for high-frequency applications, in which an integrated circuit with a chip for processing high-frequency signals are arranged together with at least one signal coupling element or launcher for coupling and/or decoupling high-frequency signals in a common housing substrate. A land grid array (LGA) structure is provided on an outside of the housing substrate. An electrically conductive border is provided around the respective launcher on the surface of the housing substrate.
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