A light rail transit system has a railcar having a roller coaster wheel assembly, solar panels, a battery bank, an inverter, a solar charge controller, and a power rail contactor. The light rail system further has a rail system having a first riding rail and a second riding rail for receiving the roller coaster wheel assembly, and a power rail for providing backup power to the railcar via the power contactor, the power rail extending less than the length of the first riding rail and second riding rail and only supplying current when the power rail contactor of the railcar is in contact therewith.

In a method for operating an electric vehicle and an electric vehicle, including an electric traction drive device for driving vehicle, a control device for controlling the driving, a first energy storage device, for supplying the control device using a first DC voltage, a second energy storage device, for supplying the traction drive device using a second DC voltage, and an energy supply unit for providing an output DC voltage, the first energy storage device is connected to the second energy storage device via a converter device, the first energy storage device is connected to the energy supply unit, the converter device converts the first DC voltage into the second DC voltage, and a power flow from the second energy storage device to the first energy storage device is prevented.

A charging amount calculation apparatus calculates an amount of power consumption by a battery for running along a running route and a during-running charging amount received by a power reception apparatus from at least one second power feeding facility. The charging amount calculation apparatus calculates a pre-running charging amount based on the amount of power consumption and the during-running charging amount.

An example operation includes one or more of receiving data related to an auxiliary charge from one or more of electric transports, charging stations, and energy storage units proximate a moving transport, determining an energy capability at a location associated with a final destination of the moving transport, where the location is proximate the electric transports, charging stations, and energy storage units, and responsive to the energy capability being below a threshold, initiating transfer of the auxiliary charge between the location and the electric transports, charging stations, and energy storage units, based on the data.

A V2V charging system including an on-board system that includes a battery; a detection unit configured to detect a position of the EV, a battery condition of the battery and a destination of a current trip of the EV, wherein the battery condition includes an amount of remaining energy, a number of charge and discharge cycles, and current battery capacity; a communication unit configured to send a charge request to a server and receive one or more candidate charging solutions corresponding to the charge request from the server, the communication unit being further configured to send a selected charging solution that is selected by a user from the one or more candidate charging solutions to the server and receive a standstill charging location from the server; and a human-machine interface (HMI). The HMI includes a navigation module, an energy condition module, a charge request module, and a charging solution module.

An onboard DC charger for an electric vehicle, wherein the electric vehicle includes an electric machine and a power conversion device that is a drive circuit for the electric machine and a charging circuit for the on-board battery. The one or more electric machines of the vehicle are mounted to the body for providing locomotive energy, wherein the or each machine has a stator, a rotor mounted to the stator for rotation, and one or more windings; and a controller for operating in a first state and a second state wherein, in the first state, the controller allows current to be drawn from the DC energy source for energising at least one of the one or more windings such that the electric machine provides the locomotive energy and, in the second state, the controller controls the position of the rotor relative to the stator and allows at least one of the one or more windings to be energised to provide a charging current to the DC energy source.

The invention relates to a method for generating and delivering charging current for an electric vehicle in a charging pole, comprising the steps of generating kinetic energy, feeding a first generator with the generated kinetic energy, feeding a second generator with the generated kinetic energy, converting the generated kinetic energy into electrical energy by means of the first generator, and converting the generated kinetic energy into electrical energy by means of the second generator.

The vehicle control device controls a vehicle configured to receive power by non-contact from a power transmission coil when passing over the power transmission coil. The vehicle control device includes a processor configured to prohibit lane changing by the vehicle in a predetermined range up to an end point of a power supply area where the power transmission coil is installed when the vehicle is running in a lane of the power supply area.

In a method for operating an electric vehicle, including a first energy storage device (e.g., a rechargeable battery storage device), a second energy storage device (e.g., a double-layer capacitor device), an energy supply unit which provides energy, for charging the first and/or second energy storage device, and a first electrical consumer connected to the second energy storage device via an intermediate circuit, the first energy storage device is connected to the energy supply unit via a bidirectional converter unit, the second energy storage device is connected to the energy supply unit, a first power flows from the first energy storage device to the second energy storage device if an intermediate circuit voltage falls below a definable voltage, and a second power flow from the second to the first energy storage device is prevented.

In a method for operating an electric vehicle, including an electrical drive device for driving the vehicle, a control device for controlling the driving of the vehicle, a first energy storage device for supplying the control device with a first DC voltage, a second energy storage device for supplying the drive device with a second DC voltage, and an energy supply unit providing an output DC voltage, the first energy storage device is connected to the energy supply unit via a converter device, the second energy storage device is connected to the energy supply unit, the converter device converts the output DC voltage into the first DC voltage, a first power flow from the first energy storage device to the second energy storage device is prevented and a second power flow from the second energy storage device to the first energy storage device is prevented.