Method of calibration for holographic energy directing systems

1. A method of calibration for an energy waveguide array, the energy waveguide array operable to direct energy along uninhibited energy propagation paths extending from a first side to a second side of the energy waveguide array, wherein the uninhibited energy propagation paths extend, on the first side, to a plurality of energy locations, and extend, on the second side, along different angular directions relative to the energy waveguide array depending on the respective energy locations on the first side, the method comprising:

receiving data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array; and

correlating data of energy attributes of energy at the plurality of energy locations and the data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array to create a calibrated four-dimensional (4D) plenoptic function for the energy waveguide array;

wherein the calibration 4D plenoptic function comprises a mapping between the plurality of

energy locations and the respective angular directions of the uninhibited energy propagation paths.

2. The method of claim 1 , wherein data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array is generated by an energy sensor capturing energy along the uninhibited energy propagation paths on the second side of the waveguide array.

3. The method of claim 2 , wherein the energy sensor comprises a camera, a line scanning device, a plurality of pressure sensors disposed in a spatial array, or a plurality of acoustic sensors disposed in a spatial array.

4. The method of claim 2 , wherein the sensor is configured to receive an operating parameter of the energy sensor from a controller, the controller programmed to operate the energy sensor according to a predetermined instruction.

5. The method of claim 4 , wherein the operating parameter is provided in a digital signal from the controller.

6. The method of claim 5 , wherein the operating parameter comprises position instruction, and the controller is programmed to position the sensor according to the predetermined instruction.

7. The method of claim 2 , wherein data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array is generated by positioning a movable platform on which an energy relay element is located, and by operating an energy sensor to capture energy along the uninhibited energy propagation paths on the second side of the waveguide array when the energy waveguide array is located at a predetermined position.

8. The method of claim 7 , wherein the movable platform and the energy sensor are configured to receive digital signals from a controller, the controller programmed to operate the energy sensor and the movable platform according to a predetermined instruction.

9. The method of claim 8 , wherein the digital signals comprise position instructions for the energy sensor and the movable platform, and the controller is programmed to position the energy sensor and movable platform according to the predetermined instruction.

10. The method of claim 1 , wherein the energy attributes of energy along the uninhibited energy propagation paths on the second side of the energy waveguide array comprise at least angular coordinates of the uninhibited energy propagation paths, and the energy attributes of energy at the plurality of energy locations on the first side of the energy waveguide array comprise at least position coordinates of the plurality of energy locations.

11. The method of claim 2 , wherein the position coordinates are defined in a physical reference space.

12. The method of claim 11 , wherein the position coordinates are converted from a digital reference space to a physical reference space using a conversion function.

13. The method of claim 2 , wherein the angular coordinates are defined in a physical reference space.

14. The method of claim 13 , wherein, data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array is generated by an energy sensor capturing energy along the uninhibited energy propagation paths on the second side of the waveguide array, and further wherein the angular coordinates defined in the physical reference space determined using a known reference position of the energy waveguide array, a known distance between the energy sensor and the waveguide array, and a known position of a reference energy location, all of which as defined in the same physical reference space.

15. The method of claim 1 , wherein the energy attributes of energy at the plurality of energy locations comprise at least one energy attribute selected from a group consisting of position, color, intensity, frequency, amplitude, contrast, and resolution.

16. The method of claim 1 , wherein the energy attributes of energy along the uninhibited energy propagation paths on the second side of the energy waveguide array comprise at least one energy attribute selected from a group consisting of position, color, intensity, frequency, amplitude, contrast, and resolution.

17. The method of claim 1 , wherein the calibration mapping is applied to compensate for at least one relay attribute selected from a group consisting of: an intensity variation, a color variation, an attenuating region, and a spatial distortion.

18. A method of calibration for an energy directing system, wherein an energy relay element of the energy directing system is configured such that energy propagating through the energy relay element has higher transport efficiency in a longitudinal orientation, and an energy waveguide array of the energy directing system is operable to direct energy along uninhibited energy propagation paths extending from a first side to a second side of the energy waveguide array, wherein the uninhibited energy propagation paths extend, on the first side, to a plurality of relayed energy locations, and extend, on the second side, along different angular directions relative to the energy waveguide array depending on the respective energy locations on the first side the method comprising:

receiving data of energy attributes of energy at a plurality of relayed energy locations at a first surface of an energy relay element, wherein energy at the first plurality of energy locations was relayed from a plurality of source energy locations through the energy relay element along the longitudinal orientation; and

correlating predetermined data of energy attributes of energy at the plurality of source energy locations and the data of energy attributes of energy at the plurality of relayed energy locations to create a calibrated relay function, wherein the calibrated relay function comprises a mapping of the energy attributes at the first plurality of energy locations to the energy attributes at the second plurality of energy;

receiving data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array; and

correlating data of energy attributes of energy at the plurality of relayed energy locations and the data of energy attributes of energy along the uninhibited energy propagation paths on the second side of the waveguide array to create a calibrated four-dimensional (4D) plenoptic function for the energy waveguide array, wherein the calibration 4D plenoptic function comprises a mapping between the plurality of energy locations and the respective angular directions of the uninhibited energy propagation paths.