Abstract: A method for operating a sensor arrangement for detecting a person in an area of use of a sanitary device including: a) activation a first sensor when a second sensor, which differs from the first sensor, detects the presence of at least one person in the vicinity of the sanitary device, wherein the activation establishes a previously completely interrupted power supply to the first sensor and wherein the first sensor is a ToF sensor; b) detection a distance information about the spatial distance between the person and the sanitary device by means of the first sensor, wherein a run time measurement of a signal emitted by the first sensor is performed; c) deactivation of the first sensor when the presence of a person in the vicinity of the sanitary device is no longer detected, wherein the deactivation has a complete interruption of the power supply to the first sensor.

Abstract: There are disclosed a method and a lifting mechanism for actively damping in mobile working machines vibrations which may occur as a result of raised attachments during travel. The method or the lifting mechanism has a prediction or a predictor for estimating the future vibration. The prediction is preferably carried out with a recursive least squares algorithm. The mobile working machine may, for example, be a tractor.

Abstract: There are disclosed a method and a lifting mechanism for actively damping in mobile working machines vibrations which may occur as a result of raised attachments during travel. The method or the lifting mechanism has a prediction or a predictor for estimating the future vibration. The prediction is preferably carried out with a recursive least squares algorithm. The mobile working machine may, for example, be a tractor.

Abstract: Method for operating a charging station for electric vehicles in which a charging power is negotiated between a charge control device of the electric vehicle and the charging station, the charge control device controls a charging current which is transmitted from the charging station to the electric vehicle in accordance with the charging power negotiated, wherein a continuous power rating and a maximum power of the charging station which is greater than the continuous power rating are determined. In order to optimize the charging power and to accelerate a charging operation, it is proposed that a charging power which is above the continuous power rating and which at most corresponds to the maximum power is first negotiated, that the temperature in the charging station be monitored, and that, when a limit temperature is exceeded, a new charging power which at most corresponds to the continuous power be negotiated.

Abstract: A control system for an agricultural work system having at least one mobile work machine, which is developed to carry out a predefined work task in an autonomous manner, including an arrangement for the work machine for orientation purposes and/or for a collision avoidance. It is provided that the arrangement includes a multitude of markers which are able to be placed/are placed on objects in an operating range, and at least one device, which is able to be mounted/is mounted on the work machine and designed to detect the markers and to output an item of information to the work machine as a function of a detected marker.

Abstract: Provided herein are embodiments of a home automation system. The home automation system includes display means configured to display a view of at least one part of a floor plan of a spatial environment of the home automation system. An intuitive and simplified set-up takes place by the programming means being configured to program at least one action of an actuator of the home automation system based on the currently displayed view of the floor plan and a function of the actuator and/or a sensor of the home automation system.

Abstract: Embodiments of a thermostat for heating, air-conditioning and/or ventilation systems are provided. The thermostat includes a base body, a temperature sensor arranged on the base body, an actuator arranged on the base body, and a housing that at least partially encloses the base body. A display is made possible in that the housing in the area of the base body is at least in parts made of a translucent material.

Abstract: A method is provided for dynamically providing up-to-date information about charging stations for electric vehicles. Charging station information including at least one charging station identification assigned to a respective charging station and location information assigned to the respective charging station is stored for multiple charging stations. A charge request containing identification of the mobile station and geographical information for the mobile station is received from a mobile station. A tuple of charging station information from the plurality of items of stored charging station information dependent on at least the received charge request is selected such that the received geographical information is compared with the respective location information of the charging stations and when the result of a comparison is positive the corresponding charging station information is added to the tuple and the tuple is sent to the mobile station using the identification of the mobile station.

Abstract: The invention relates to a method for dynamically providing up-to-date information about charging stations for electric vehicles. Charging station information including at least one charging station identification assigned to a respective charging station and location information assigned to the respective charging station is stored for a plurality of charging stations. A charge request containing identification of the mobile station and geographical information for the mobile station is received from a mobile station.

Abstract: Method for securing a charging process of a vehicle (30) at a charging station (2), comprising outputting a random or pseudorandom first release code to a user on the charging-station side, releasing the charging current on the charging-station side, receiving a second release code that is input by a user on the charging-station side, comparing the first release code with the second release code on the charging station-side, and interrupting the charging current on the charging-station side in the event of a positive comparison result.

Abstract: Method for operating a charging station for electric vehicles in which a charging power is negotiated between a charge control device of the electric vehicle and the charging station, the charge control device controls a charging current which is transmitted from the charging station to the electric vehicle in accordance with the charging power negotiated, wherein a continuous power rating and a maximum power of the charging station which is greater than the continuous power rating are determined. In order to optimise the charging power and to accelerate a charging operation, it is proposed that a charging power which is above the continuous power rating and which at most corresponds to the maximum power is first negotiated, that the temperature in the charging station be monitored, and that, when a limit temperature is exceeded, a new charging power which at most corresponds to the continuous power be negotiated.

Abstract: A motor vehicle is provided having a combustion engine, an automatic transmission, a turbocharger with variable geometry pre-compressing combustion air for the combustion engine and a turbocharger control unit for varying the turbocharger geometry, the turbocharger control unit is equipped before a downshifting of the automatic transmission to vary the geometry in the turbocharger in the direction of a reduction of the rotational speed of the turbocharger.

Abstract: A control system is provided for shifting an automatic transmission of a motor vehicle, which includes, but is not limited to a speed controller, and an electronic control device. Through the electronic control device the parameters vehicle speed, position of the speed controller and acceleration of the speed controller can be captured. Through the electronic control device and through comparison of the captured values of the parameters with predetermined reference values a shifting time is determined for shifting the automatic transmission.

Abstract: Method for securing a charging process of a vehicle (30) at a charging station (2), comprising outputting a random or pseudorandom first release code to a user on the charging-station side, releasing the charging current on the charging-station side, receiving a second release code that is input by a user on the charging-station side, comparing the first release code with the second release code on the charging station-side, and interrupting the charging current on the charging-station side in the event of a positive comparison result.

Abstract: A control system is provided for shifting an automatic transmission of a motor vehicle, which includes, but is not limited to a speed controller, and an electronic control device. Through the electronic control device the parameters vehicle speed, position of the speed controller and acceleration of the speed controller can be captured. Through the electronic control device and through comparison of the captured values of the parameters with predetermined reference values a shifting time is determined for shifting the automatic transmission.

Abstract: A control system for shifting an automatic transmission for a motor vehicle is provided. The control system is connected to a drive engine and a drive train. The control system includes a speed sensor configured for sensing a vehicle speed, an angular sensor configured for sensing an angle of an accelerator pedal of the motor vehicle, an acceleration sensor configured to sense an acceleration of the accelerator pedal, and a control electronic device configured for selecting a predetermined shifting curve for shifting the automatic transmission. The control electronic device also is configured to select from different shifting modes by measurement data of the speed sensor, angular sensor, and acceleration sensor.

Abstract: A method is provided for controlling a downshifting of a transmission of a motor vehicle in coasting mode from a staring gear into a target gear. The method includes, but is not limited to estimating an output torque exerted by the engine with starting gear engaged, calculating a set point torque by means of the output torque and the transmission ratios of starting and target gear, and activating the engine with engaged target gear subject to the presetting of the calculated set point torque.

Abstract: A motor vehicle is provided having a combustion engine, a manual transmission, a turbocharger with variable geometry pre-compressing combustion air for the combustion engine and a turbocharger control unit for varying the turbocharger geometry, the turbocharger control unit is equipped before a downshifting of the transmission to vary the geometry in the turbocharger in the direction of a reduction of the rotational speed of the turbocharger.

Abstract: A method is provided for coupling an automatic transmission of a motor vehicle, in which torque generated by an engine and applied to an input shaft is relayed by means of a torque converter and/or by means of a bridging coupling for bridging the torque converter to an output shaft. After the initiation of a bridging procedure, the torque is reduced, after which the bridging coupling is closed. This method enables an improved efficiency when coupling the automatic transmission.

Abstract: A method is provided for operating an automatic transmission for a vehicle, that includes, but is not limited to detecting whether a target speed of the vehicle is set, calculating an optimum acceleration gear in dependence of an actual virtual accelerator pedal position, and, if the optimum acceleration gear differs from a current gear, storing the actual virtual accelerator pedal position, shifting to the optimum acceleration gear and ignoring newly calculated actual virtual accelerator pedal positions for an acceleration period of time. Since the actual virtual accelerator pedal position is stored in the case of a detected necessary gear shift and further calculated actual virtual accelerator pedal positions are ignored for a time, the operating of the transmission is based mainly on the value of the actual virtual accelerator pedal position at the time, when a necessary gear shift is detected.