Abstract: A method controls the electrical power consumption of a rail vehicle fleet. The vehicle fleet contains a plurality of rail vehicles each having an electrical energy storage system for supplying a drive system. The energy storage systems are charged by an electrical supply network and/or electric charging stations along a rail network. Static and time-varying information of rail vehicles which are currently in a driving mode and static information relating to a timetable, schedule and/or vehicle deployment plan of the currently operated rail vehicles are combined. By the combined information and taking into account the power consumption of the rail vehicle fleet from a charging planning facility, a vehicle-specific charging plan for charging the energy storage systems of the rail vehicles currently in the driving mode is determined. The charging of the energy storage systems of the rail vehicles is carried out in dependence on the vehicle-specific charging plan.

Abstract: A bellows assembly for an articulated vehicle connects a first vehicle module and a second vehicle module. The bellows assembly forms a tube between the first vehicle module and the second vehicle module with a top region and a bottom region, the top region corresponding to a roof region of the vehicle above an aisle of the vehicle. The bellows assembly includes a section configured to receive a lighting installation, the section being arranged in the top region of the bellows assembly. Further, an articulated vehicle with such a bellows assembly and a system for installing such a bellows assembly is described.

Abstract: A ceiling assembly for a vehicle includes a plurality of supporting elements for fastening components, and a plurality of connecting elements connecting the supporting elements. The plurality of connecting elements is integrally designed with the plurality of the supporting elements forming an integrated ceiling assembly. Further, a vehicle and a method for manufacturing a ceiling assembly to a ceiling of a vehicle are disclosed.

Abstract: A ceiling assembly for a vehicle includes a plurality of supporting elements for fastening components, and a plurality of connecting elements connecting the supporting elements. The plurality of connecting elements is integrally designed with the plurality of the supporting elements forming an integrated ceiling assembly. Further, a vehicle and a method for manufacturing a ceiling assembly to a ceiling of a vehicle are disclosed.

Abstract: A bellows assembly for an articulated vehicle connects a first vehicle module and a second vehicle module. The bellows assembly forms a tube between the first vehicle module and the second vehicle module with a top region and a bottom region, the top region corresponding to a roof region of the vehicle above an aisle of the vehicle. The bellows assembly includes a section configured to receive a lighting installation, the section being arranged in the top region of the bellows assembly. Further, an articulated vehicle with such a bellows assembly and a system for installing such a bellows assembly is described.

Abstract: A method for demanding safety reactions for a rail vehicle having a plurality of appliances each able to demand a safety reaction when required, namely a braking process or a traction inhibit or both for the rail vehicle, includes: a) identification of a state in which one of the safety reactions should be carried out by one of the appliances, b) demanding the safety reaction by the appliance through a data bus, and c) feeding back information to the demanding appliance that the safety reaction has been carried out or intervening in a safety loop to initiate the desired safety reaction, if the safety reaction is not carried out.

Abstract: A method for demanding safety reactions for a rail vehicle having a plurality of appliances each able to demand a safety reaction when required, namely a braking process or a traction inhibit or both for the rail vehicle, includes: a) identification of a state in which one of the safety reactions should be carried out by one of the appliances, b) demanding the safety reaction by the appliance through a data bus, and c) feeding back information to the demanding appliance that the safety reaction has been carried out or intervening in a safety loop to initiate the desired safety reaction, if the safety reaction is not carried out.