Abstract: Example electric solar canopy systems and methods are described. In one implementation, a foundation is positioned on a surface. A table is configured to secure multiple solar panels. A lifting mechanism is coupled to the foundation and the table, where the lifting mechanism is configured to move the table between a lowered position and a raised position.

Abstract: Example electric vehicle charging systems and methods are described. In one example, multiple solar cells are configured to generate energy. A vehicle control system is coupled to the multiple solar cells and determines which of multiple electric vehicles to charge using energy from the multiple solar cells. The vehicle control system determines which electric vehicle to charge based on at least one environmental condition near the multiple solar cells.

Abstract: Example electric vehicle charging systems and methods are described. In one implementation, an electric vehicle charging system includes multiple solar cells and a power manager coupled to the multiple solar cells. The power manager receives power signals from each of the solar cells and generates an output signal based on at least a portion of the received power signals. The output signal has an associated voltage and/or current that is within an acceptable operating range for charging an electric vehicle.

Abstract: Example electric vehicle charging systems and methods are described. In one implementation, an electric vehicle charging system includes multiple solar cells and a power manager coupled to the multiple solar cells. The power manager receives power signals from each of the solar cells and generates an output signal based on at least a portion of the received power signals. The output signal has an associated voltage and/or current that is within an acceptable operating range for charging an electric vehicle.

Abstract: Example electric vehicle charging systems and methods are described. In one implementation, an electric vehicle charging system includes multiple solar cells and a power manager coupled to the multiple solar cells. The power manager receives power signals from each of the solar cells and generates an output signal based on at least a portion of the received power signals. The output signal has an associated voltage and/or current that is within an acceptable operating range for charging an electric vehicle.

Abstract: Example electric vehicle charging systems and methods are described. In one implementation, an electric vehicle charging system includes multiple solar cells and a power manager coupled to the multiple solar cells. The power manager receives power signals from each of the solar cells and generates an output signal based on at least a portion of the received power signals. The output signal has an associated voltage and/or current that is within an acceptable operating range for charging an electric vehicle.

Abstract: Example electric vehicle charging systems and methods are described. In one implementation, an electric vehicle charging system includes multiple solar cells and a power manager coupled to the multiple solar cells. The power manager receives power signals from each of the solar cells and generates an output signal based on at least a portion of the received power signals. The output signal has an associated voltage and/or current that is within an acceptable operating range for charging an electric vehicle.

Abstract: A common-mode feedback circuit is provided for fully-differential operational amplifier stages of a multistage amplifier. A first stage of the circuit establishes a substantially constant current output level for a feedback generating stage of the circuit. An exemplary embodiment using MOSFET devices illustrates using a diode-connected MOSFET and mirror MOSFET first stage and a generating the current for a common-source connected MOSFET second stage connected to the respective outputs for said fully-differential operational amplifier. An output stage of the circuit provides feedback voltage at a first level when inputs to said fully-differential operational amplifier are in equilibrium and at a second level for balancing said fully-differential operational amplifier when inputs to said fully-differential operational amplifier are not in equilibrium.