Abstract: Charging units communicate with an electric vehicle charger controller. A database stores charger data on each of the charging units. A first interface within the electric vehicle charger controller enables communication between the electric vehicle charger controller and the charging units. A second interface within the electric vehicle charger controller enables communications between the electric vehicle charger controller and mobile charging applications to find locations of at least one of the charging units and make reservations with at least one of the charging units. A charger locator controller on the electric vehicle charger controller performs real-time determination of a closest charging unit responsive to the charger data and a current position of an electric vehicle. A reservation controller on the electric vehicle charger controller enables a user of one of the mobile charging applications to select the closest charging unit and make a reservation with the closest charging unit.

Abstract: A system for controlling a group of charging stations for at least one electric vehicle includes a central device charger controller for controlling system operation. A plurality of charging units communicate with the central device charger controller. The plurality of charging units each further comprises charging circuitry for generating a charging current to the at least one electric vehicle responsive to power provided from a local power grid. A connector provides the generated charging current from the charging circuitry to the at least one electric vehicle. At least one interface within the central device charger controller enables communications with the central device charger controller and a plurality of mobile charging applications and controls charging of a connected at least one electric vehicle.

Abstract: A system for managing a group of charging stations for at least one electric vehicle, comprises a central electric vehicle charger controller for controlling system operation. A plurality of charging units communicates with the central electric vehicle charger controller. A database associated with the central electric vehicle charger controller storing charger data on each of the plurality of charging units. A first interface within the central electric vehicle charger controller enables communication between the central electric vehicle charger controller and the plurality of charging units for charging the at least one electric vehicle. A second interface within the central electric vehicle charger controller enables communications between the central electric vehicle charger controller and a plurality of mobile charging applications enables finding of locations of at least one of the plurality of charging units and makes reservations with the at least one of the plurality of charging units.

Abstract: A system for managing a group of charging stations for a personal mobility device and includes a central personal mobility device charger controller for controlling system operations. A first interface enables communication between the central personal mobility device charge controller and a plurality of charging units for charging the personal mobility device. A second interface enables communications between the central personal mobility device charge controller and a plurality of charging applications enabling finding of locations of at least one of the plurality of charging units and making of reservations with the at least one of the plurality of charging units. A reservation controller stored on the central personal mobility device charger controller enables a user of one of the plurality of charging applications to select the at least one of the plurality of charging units and make a reservation with the at least one of the plurality of charging units at a selected time period.

Abstract: A portable, solar energy charger, comprises a plurality of panels. Each panel contains at least one solar cell for generating electrical energy responsive to solar energy. Each of the plurality of panels are interconnected to enable the plurality of panels to be folded on top of each other in a single stack in a closed configuration and to be unfolded to receive sunlight in an open configuration. A connector connects each of the plurality of panels to at least one other panel of the plurality of panels. The connector provides both a mechanical connection and an electrical connection between panels. The connector enables a first panel to be folded on top of a second panel and protect the at least one solar cells on the first panel and the second panel between the first panel and the second panel. A securing mechanism maintains the plurality of panels together in the closed configuration when the panels are folded on each other.

Abstract: A modular power backup system has a plurality of smart battery packs for storing electrical energy. Each of the plurality of smart battery packs includes a first power and control connector. A battery pack rack defines a plurality of slots for holding the plurality of smart battery packs. Each of the plurality of slots includes a second power and control connector for interconnecting with the first power and control connector of a smart battery pack of the plurality of smart battery packs. First control circuitry associated with the at least one battery pack rack selectively pools electrical energy from the plurality of smart battery packs into one or more electrical energy outputs.