Abstract: A battery housing of a motor vehicle traction battery includes at least one base plate, and two side walls which extend parallel to each other in the longitudinal direction of the motor vehicle and are spaced apart from each other in the transverse direction of the motor vehicle. Formed between the side walls is a number of receiving spaces, within each of which at least one battery module of the traction battery of the motor vehicle is accommodated. A plurality of deformation elements which are spaced apart from one another in the longitudinal direction of the motor vehicle are attached to the inner sides of the side walls. The battery modules are arranged in the receiving spaces in such a manner that, in the region of the deformation elements, lateral deformation spaces are formed between the battery modules and the side walls.

Abstract: A position measuring device includes a measuring standard and a scanning unit, which are arranged in a manner that allows them to move relative to each other in a measuring direction. The measuring standard includes a graduation, which is scannable by the scanning unit in order to generate positional signals. The scanning unit includes an illumination unit and a detector unit for generating positional signals, the illumination unit being able to emit light in the direction of the graduation and the detector unit being able to detect light modulated by the graduation. The detector unit includes a circuit board and a sensor unit, which is arranged as a semiconductor chip. At least two photodetectors are provided on a front side of the sensor unit facing the graduation, and the electrical connections of the sensor unit are routed to contact surfaces on its rear side by metallic vias. The sensor unit is connected via the contact surfaces to corresponding contact surfaces on the circuit board.

Abstract: A tailgate support is arranged in a sealing channel between an inner panel of the lid bodyshell and a lateral covering of the rear lights.

Abstract: An electric drive unit having an electric motor and an electronic control unit, wherein the electric motor has at least a number of first electrical terminals and the electronic control unit has a number of second electrical terminals, wherein an electrical connection is formed between in each case a first electrical terminal and a second electrical terminal in such a way that a first busbar is connected to the first electrical terminal, or said terminal is embodied as such, and a second busbar is connected to the second electrical terminal, or said terminal is embodied as such, wherein the first busbar is electrically connected to the second busbar by means of a flexible electrically conductive element or a cable.

Abstract: A method for autonomously interconnecting at least two battery banks in a drive system of a motor vehicle, the drive system comprising at least one electric motor, at least two battery banks, at least one traction system which can be supplied with power by at least one battery bank, and at least one DC/DC converter which can be connected to at least one battery bank. The battery banks can be interconnected with one another in series and/or in parallel and at least one battery bank can be bridged, wherein, during autonomous operation of the motor vehicle, respective interconnection of the at least two battery banks is automatically carried out within the drive system, depending on a respective operating state of the motor vehicle.

Abstract: A method for charging a battery of an electric vehicle, at a direct-current charging apparatus, wherein the vehicle has an inverter which is connected to the battery, and an electric motor which is connected to the inverter. During the charging process, the inverter and at least one inductor of the electric motor are used for the step-up conversion of a low charging voltage of the direct-current charging apparatus into a higher voltage which is required for charging the battery.

Abstract: A charging station for electric automobiles having a removable and/or folding hood and a circumferential sealing strip. The hood has a marginal sealing surface and the charging station is configured in such a way that the sealing strip and the sealing surface together form a continuous seal when the hood rests on the charging station.

Abstract: A charging station for a vehicle having an electric drive, wherein the charging station configured to charge a high-voltage energy storage of the vehicle, including an electrical high-voltage provision device, and an electrical high-voltage connection device for connecting the high-voltage provision device to the high-voltage energy storage of the vehicle, an electrical low-voltage provision device, and a separate low-voltage connection terminal for connection to a low-voltage on-board electrical system of the vehicle, wherein the low-voltage on-board electrical system is able to be supplied with electrical energy independently of the high-voltage connection device by way of the low-voltage connection terminal.

Abstract: A power electronics system of an electricity charging station having the following features: a first DC voltage converter, a first DC chopper connected to the first DC voltage converter for connection of a battery to the charging station and a second DC chopper connected to the first DC voltage converter for connection of an electric automobile to the charging station and a corresponding electricity charging station,

Abstract: A charging station for an electricity charging station having an underground liquid cooling arrangement and a corresponding electricity charging station.

Abstract: A galvanic isolation in the power electronics system of an electricity charging station having the following features: a rectifier (11) for connection of the charging station (10) to a public low-voltage network and a galvanically isolating DC voltage converter (12) having a high clock frequency and connected to the rectifier (11) and a corresponding electricity charging station.

Abstract: A method for operating an electrical network comprising a first subnetwork and a second subnetwork that are connected to one another via a transformer and are DC isolated from one another by said transformer, wherein a primary side of the transformer having a first number of turns is assigned to the first subnetwork and a secondary side of the transformer having a second number of turns is assigned to the second subnetwork, wherein the first subnetwork has a multilevel converter having a plurality of single modules, wherein each single module has an electrical energy store, wherein the multilevel converter provides at least one first incoming AC voltage that is modulated with at least one second incoming AC voltage, wherein a voltage resulting therefrom is provided to the transformer and is transformed by the transformer to an outgoing voltage that is provided to the second subnetwork.

Abstract: An inverter for an electric automobile having the following features: the inverter is configured to be connected at one end to a traction battery of the electric automobile and at the other end to a three-phase motor of the electric automobile; the inverter is configured to charge the traction battery if a star point of the three-phase motor is connected to a charging station; and the inverter comprises low-voltage-side switches for interrupting the charging if an operating limit of the inverter is exceeded. The invention furthermore provides a corresponding electric automobile.

Abstract: A converter configuration for an electricity charging station having the following features: a rectifier for connection of the charging station to a public low-voltage network, a first DC voltage converter connected to the rectifier and a first DC chopper connected to the first DC voltage converter for connection of a battery to the charging station and a corresponding electricity charging station.

Abstract: A component system for ventilating a trunk compartment area and a motor vehicle for the purpose of cooling at least one unit located in the trunk compartment area and a motor vehicle, in particular a passenger motor vehicle. The component system has a loading floor for storing objects, the trunk compartment area can be arranged below the loading floor, and a first component which delimits the trunk compartment area in sections, in particular a bodyshell component. Between the loading floor and the first component, at least one passage is arranged for guiding an air flow into the trunk compartment area.

Abstract: A charging device for a vehicle is made available, which has two multi-pole connections, each of which can be coupled to a charging interface which is arranged on the vehicle. A power electronics module which is designed to convert alternating current into direct current is coupled to the two multi-pole connections. At least one measuring device which is designed to determine a parameter of the charging current is present at a pole of one of the two multi-pole connections during a charging process. An evaluation unit is coupled to the at least one measuring device and is designed to determine, on the basis of the parameter determined by the measuring device, whether the charging process is taking place by means of the first or by means of the second multi-pole connection.

Abstract: A cylindrical component has a groove bottom (4) that extends approximately parallel to the course of the unworked surface of the component, and has a side wall (6, 7) inclined at an angle (?) of less than 90° to the groove bottom (4). To increase the adhesion between a coating to be applied to the surface of the component an upper region of the side wall (6, 7) is adjoined by an oblique surface (8, 9) at an angle (?) of greater than 90° to the side wall.

Abstract: The present invention provides a process to extract liquid dielectric coolant from the sesame oil, which is suitable for both power frequency and high frequency electrical applications. The process comprises the steps of, processing the refined, bleached and deodorised sesame seed oil with an alkali to remove the fatty acids. After processing the sesame seed oil, at step, the processed sesame seed oil is blended with a Sodium Hydroxide (NaOH) solution. The blended sesame oil forms a top layer and a bottom layer within short duration of time. At step, the top layer is extracted and is water washed and filtered. At step, the top layer sesame seed oil is mixed the Tert Butyl Hydroxy Quinone solution. Finally, at step, the mixture of filtered top layer and Tert Butyl Hydroxy Quinone solution is heated to extract the liquid dielectric coolant.