Abstract: The disclosure relates to a conveyor device which is designed to simultaneously convey a plurality of payloads, in particular wafers. Each payload is paired with a transport body (mover) which can be moved and positioned in a floating manner over a surface of a stator, and the transport body is moved and positioned preferably with respect to all six degrees of freedom. The transport body and the paired payloads are received in a sealed transport chamber, the stator is arranged below the sealed transport chamber, the floor of the transport chamber is arranged above the surface of the stator and parallel thereto, and the housing of each transport body is likewise preferably sealed.

Abstract: The invention relates to a method for charging an electrical energy store, the electrical energy store comprising at least one electrical energy storage unit and a predefined maximum permissible energy-store voltage limit value being specified for the electrical energy store. The electrical energy store is charged with a pulsed charging voltage, a maximum value of the pulsed charging voltage being greater than the predefined maximum permissible energy-store voltage limit value over a pulse duration in the case of at least one pulse. The invention further relates to a corresponding device for charging the electrical energy store, to a corresponding computer program, to a corresponding machine-readable storage medium and to a corresponding electrical energy store.

Abstract: A method for operating electrical energy stores, in particular for use in motor vehicles, the method including: ascertaining a charge state of a first energy store with the aid of an evaluation unit, ascertaining a charge state of a second energy store with the aid of an evaluation unit, ascertaining an instantaneous power demand with the aid of an evaluation unit, adapting an operation of at least one energy store on the basis of the ascertained charge states and the ascertained instantaneous power demand with the aid of a control unit, the adapting being made using at least one semiconductor switch, in particular bidirectionally.

Abstract: The invention relates to a method for charging an electrical energy store, the electrical energy store comprising at least one electrical energy storage unit and a predefined maximum permissible energy-store voltage limit value being specified for the electrical energy store. The electrical energy store is charged with a pulsed charging voltage, a maximum value of the pulsed charging voltage being greater than the predefined maximum permissible energy-store voltage limit value over a pulse duration in the case of at least one pulse. The invention further relates to a corresponding device for charging the electrical energy store, to a corresponding computer program, to a corresponding machine-readable storage medium and to a corresponding electrical energy store.

Abstract: A method for operating electrical energy stores, in particular for use in motor vehicles, the method including: ascertaining a charge state of a first energy store with the aid of an evaluation unit, ascertaining a charge state of a second energy store with the aid of an evaluation unit, ascertaining an instantaneous power demand with the aid of an evaluation unit, adapting an operation of at least one energy store on the basis of the ascertained charge states and the ascertained instantaneous power demand with the aid of a control unit, the adapting being made using at least one semiconductor switch, in particular bidirectionally.

Abstract: The invention relates to a method (300) and a device (170) for reducing mechanical loads in a powertrain (100). An electric machine (130) is provided as the drive assembly of the powertrain (100), and an inverter (110) is provided in order to output a multiphase output voltage for supplying the electric machine (130). The method (300) has the following steps: determining (320) the multiphase output voltage (UA) for operating the electric machine (130); adding (340) a specifiable voltage (VU) and the specified output voltage (UA); and outputting (350) the sum (SU) of the multiphase output voltage (UA) and the specifiable voltage (VU) in order to supply the electric machine (130).

Abstract: The invention relates to a control unit for an electric vehicle or hybrid vehicle. The control unit has a housing enclosing a cavity. The housing has a housing lid and a housing opening, wherein the housing lid is designed to close the housing opening. According to the invention, the control unit has an electrically insulating shock hazard protection cover, which has at least one projection region extending transversely with respect to a surface of the shock hazard protection cover. The housing lid has at least one receptacle for the projection region, wherein the cutout is designed to retain the projection region in a force-locking manner. The shock hazard protection cover has at least one latching hook designed to latch in a positively locking manner, or additionally in a force-locking manner, with the housing or a part of the control unit in the interior of the housing which is connected to the housing.

Abstract: The invention relates to a control unit for an electric vehicle or hybrid vehicle. The control unit has a housing enclosing a cavity. The housing has a housing lid and a housing opening, wherein the housing lid is designed to close the housing opening. According to the invention, the control unit has an electrically insulating shock hazard protection cover, which has at least one projection region extending transversely with respect to a surface of the shock hazard protection cover. The housing lid has at least one receptacle for the projection region, wherein the cutout is designed to retain the projection region in a force-locking manner. The shock hazard protection cover has at least one latching hook designed to latch in a positively locking manner, or additionally in a force-locking manner, with the housing or a part of the control unit in the interior of the housing which is connected to the housing.