Methods and systems for light energy augmented power

1. A method for transmitting energy over long distances to a remote device comprising:

positioning a lens in conjunction with a photon source and a photon receiver, wherein the lens, photon source and photon receiver are physically separate systems, and wherein a refractive thin film lens is deployed in space;

focusing a plurality of photons originating from the photon source using the lens;

collecting the focused photons at the photon receiver; and

utilizing the collected photons to generate electrical power.

2. The method of claim 1 wherein to deploy a refractive thin film lens, a Mylar film is deployed.

3. A method for transmitting energy over long distances to a remote device comprising:

positioning a lens between a photon source and a photon receiver, the lens and photon source being physically separate systems;

focusing a plurality of photons from the photon source using the lens;

collecting the focused photons at the photon receiver, wherein the photon receiver is operatively connected to the lens;

generating a laser beam utilizing the collected photons; and

propagating the laser beam to a target.

4. The method of claim 3 wherein focusing a plurality of photons using the lens comprises:

receiving the focused photons from a first lens; and

refocusing the photons using a second lens positioned at a distance from the target and not physically connected to the target.

5. The method of claim 3 further comprising generating electrical power from the laser beam propagated to the target.

6. The method of claim 3 wherein positioning a lens comprises deploying the lens in space.

7. The method of claim 5 further comprising using the generated electrical power to provide at least a portion of the energy needs of the remote device.

8. An energy transmission system comprising a lens having a surface area greater than 1 square kilometer, wherein the lens is positioned in space and is configured to focus a plurality of photons to a target, and wherein the lens is a refractive thin film lens.

9. The system of claim 8 further comprising:

a target operatively connected to said lens and configured to receive the focused photons and convert them to electrical energy; and

a laser configured to propagate an optical beam using the electrical energy.

10. The system of claim 8 wherein said laser is positioned at a first location, said lens is positioned in space at a second location remote from the first location, said system further comprising a device configured to receive the optical beam from said laser, said device located at a third location remote from the first and second locations.

11. A system for generating power for remote devices, said system comprising:

a focusing system, positioned in space and decoupled from an energy source, the system having a lens shaped to focus a diffuse beam of optical radiation received from the energy source to a focal point;

an energy collection system coupled to the focusing system, the energy collection system configured to collect the focused radiation and convert it to electricity; and

a laser generation system coupled to the energy collection system and configured to produce a laser that effectively propagates energy from the energy source.

12. The system of claim 11 further comprising a remote device decoupled from the energy source and the focusing system, and configured to receive the laser from the laser generation system.

13. The system according to claim 11 wherein the energy source is configured for at least one of collimating a source laser for propagation to a distance, maintaining farfield intensity, controlling propagated power levels, and spreading the source laser so that the intensity of the source laser does not overpower said focusing system.

14. The system according to claim 11 wherein the energy collection system comprises a membrane optic receiver.