Vision measurement and training system and method of operation thereof

1. A binocular viewer having left and right display screens and comprising:

a variable focal depth optical subsystem located in an optical path between and separate from said display screens and a user when said user uses said binocular viewer;

a control input coupled to said left and right display screens and said variable focal depth optical subsystem, said control input configured to receive control signals operable to place images on said left and right display screens and vary a focal depth of said variable focal depth optical subsystem, said control signals varied based on an assessment of physical responses from said user to said images on said display screens; and

alignment devices to ensure alignment of said binocular viewer.

2. The binocular viewer as recited in claim 1 wherein said alignment devices are selected from the group consisting of:

a head strap;

a head piece;

at least one temple pad; and

at least one nose piece.

3. The binocular viewer as recited in claim 1 wherein said images incorporate a dark background, fine lines, and low intensity in order to dilate pupils of said user.

4. A method of measuring and training vision of a user, comprising:

viewing left and right display screens of a binocular viewer through a variable focal depth optical subsystem associated therewith and separate therefrom;

receiving control signals into a control input of said binocular viewer, said control input coupled to said left and right display screens and said variable focal depth optical subsystem, said control signals operable to place images on said left and right display screens and vary a focal depth of said variable focal depth optical subsystem;

varying said control signals based on an assessment of physical responses, from said user, to said images on said display screens; and

aligning said binocular viewer.

5. The method as recited in claim 4 , wherein said aligning uses a first vision measurement of said user compared to a second vision measurement of said user to generate a signal to said user of misalignment.

6. The method as recited in claim 5 wherein said user, upon said signal of misalignment, readjusts said binocular viewer to realign said binocular viewer.

7. The method as recited in claim 4 wherein said some of said aligning is automatically performed by modifying said images by at least:

scaling;

shifting;

rotating; or

other transforming.

8. A method of measuring and training vision of a user, comprising:

viewing left and right display screens of a binocular viewer through a variable focal depth optical subsystem associated therewith and separate therefrom;

receiving control signals into a control input of said binocular viewer, said control input coupled to said left and right display screens and said variable focal depth optical subsystem, said control signals operable to place images on said left and right display screens and vary a focal depth of said variable focal depth optical subsystem;

varying said control signals based on an assessment of physical responses, from said user, to said images on said display screens; and

determining a presence of a disease-affected region in at least one eye of said user.

9. The method as recited in claim 8 wherein said determining identifies a blind spot region and at least one of a:

severe vision loss region;

moderate vision loss region; and

normal vision region.

10. The method as recited in claim 8 wherein said determining identifies a presence of multiple disease-affected regions.

11. A high integrity vision measurement and training system, comprising:

a binocular viewer having left and right display screens and a variable focal depth optical subsystem located in an optical path between and separate from said display screens and a user when said user uses said binocular viewer;

a computer configured to provide control signals to said binocular viewer operable to place images on said left and right display screens and vary a focal depth of said variable focal depth optical subsystem, said control signals varied based on an assessment of physical responses from said user to said images on said display screens; and

a human input device, said control signals being at least partially based on input received from said human input device that represents said physical responses; wherein system integrity is ensured by passing secure coded messages from said binocular viewer and said human input device to said computer, thereby verifying correct and necessary hardware and software is used in measuring and testing said user.

12. The high integrity system of claim 11 wherein said computer sends a secure encrypted request to at least one of said binocular viewer and said human input device and, in response to said secure encrypted request, said at least one of said binocular viewer and said human input device sends back to said computer an encrypted response identifying a hardware makeup and software configuration of said at least one of said binocular viewer and said human input device.

13. The high integrity system of claim 11 wherein said human input device is selected from the group consisting:

a keyboard;

a game controller;

a microphone;

a mouse;

a touchpad;

a foot pedal;

a steering wheel; and

a joystick.