Apparatus, system, and method for testing and calibrating image quality of field-of-view displays with prescription lenses
An imaging camera device comprising (1) an image sensor, (2) a spherical-power adapter coupled to the image sensor, wherein the spherical-power adapter moves the image sensor relative to an imaging lens, (3) a field-curvature adapter coupled to at least one optical component placed between the image sensor and the imaging lens, wherein the field-curvature adapter adjusts the size of a variable air gap formed between the optical component and at least one additional optical component, and (4) a cylindrical-power adapter that includes a plurality of cylindrical correction lenses applied to a wheel configured to rotate in at least one direction. Various other apparatuses, systems, and methods are also disclosed.
1. An imaging camera device comprising:
an image sensor;
a spherical-power adapter coupled to the image sensor, wherein the spherical-power adapter moves the image sensor relative to an imaging lens;
a field-curvature adapter coupled to at least one optical component placed between the image sensor and the imaging lens, wherein the field-curvature adapter adjusts the size of a variable air gap formed between the optical component and at least one additional optical component; and
a cylindrical-power adapter that includes a plurality of cylindrical correction lenses applied to a wheel configured to rotate in at least one direction.
2. The imaging camera device of claim 1 , further comprising a telecentric lens stack that includes:
the imaging lens;
the optical component;
the additional optical component; and
the plurality of cylindrical correction lenses.
3. The imaging camera device of claim 2 , wherein the spherical-power adapter is configured to modify an image presented by a display device that is optically coupled to the telecentric lens stack by moving the image sensor relative to the imaging lens, the modification to the image at least partially compensating for a spherical power of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
4. The imaging camera device of claim 2 , wherein the field-curvature adapter is configured to modify an image presented by a display device that is optically coupled to the telecentric lens stack by adjusting the size of the variable air gap formed between the optical component and the additional optical component, the modification to the image at least partially compensating for a magnification or field-curvature change that occurred upon passing through a prescription lens prior to reaching the telecentric lens stack.
5. The imaging camera device of claim 2 , wherein the cylindrical-power adapter is configured to modify an image presented by a display device that is optically coupled to the telecentric lens stack by adjusting an axis of at least one of the cylindrical correction lenses applied to the wheel, the modification to the image at least partially compensating for a cylindrical power or cylindrical axis of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
6. The imaging camera device of claim 2 , wherein the cylindrical-power adapter is configured to modify an image presented by a display device that is optically coupled to the telecentric lens stack by rotating at least one of the cylindrical correction lenses applied to the wheel, the modification to the image at least partially compensating for a cylindrical power or cylindrical axis of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
7. The imaging camera device of claim 2 , wherein the plurality of cylindrical correction lenses are positioned between the imaging lens and the variable air gap formed by the optical component and the additional optical component within the telecentric lens stack.
8. The imaging camera device of claim 7 , wherein the imaging lens is optically coupled directly to a display device undergoing testing or calibration in connection with a prescription lens, the optical coupling between the display device and the imaging lens enabling the imaging lens to receive an image directly from the display device.
9. The imaging camera device of claim 8 , wherein the image sensor is positioned:
proximate to the variable air gap formed by the optical component and the additional optical component within the telecentric lens stack; and
opposite to the display device relative to the telecentric lens stack.
10. The imaging camera device of claim 2 , wherein the plurality of cylindrical correction lenses are positioned within the variable air gap formed by the optical component and the additional optical component within the telecentric lens stack.
11. The imaging camera device of claim 1 , wherein the image sensor comprises at least one of:
a charge-coupled device (CCD);
an active-pixel sensor; or
a complementary metal-oxide semiconductor (CMOS) sensor.
12. A system comprising:
a display device; and
an imaging camera optically coupled to the display device, wherein the imaging camera comprises:
an image sensor;
a spherical-power adapter coupled to the image sensor, wherein the spherical-power adapter moves the image sensor relative to an imaging lens;
a field-curvature adapter coupled to at least one optical component placed between the image sensor and the imaging lens, wherein the field-curvature adapter adjusts the size of a variable air gap formed between the optical component and at least one additional optical component; and
a cylindrical-power adapter that includes a plurality of cylindrical correction lenses applied to a wheel configured to rotate in at least one direction.
13. The system of claim 12 , wherein the imaging camera further comprises a telecentric lens stack that includes:
the imaging lens;
the optical component;
the additional optical component; and
the plurality of cylindrical correction lenses.
14. The system of claim 13 , wherein the spherical-power adapter of the imaging camera is configured to modify an image presented by the display device by moving the image sensor relative to the imaging lens, the modification to the image at least partially compensating for a spherical power of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
15. The system of claim 13 , wherein the field-curvature adapter of the imaging camera is configured to modify an image presented by the display device by adjusting the size of the variable air gap formed between the optical component and the additional optical component, the modification to the image at least partially compensating for a magnification or field-curvature change that occurred upon passing through a prescription lens prior to reaching the telecentric lens stack.
16. The system of claim 13 , wherein the cylindrical-power adapter is configured to modify an image presented by the display device by adjusting an axis of at least one of the cylindrical correction lenses applied to the wheel, the modification to the image at least partially compensating for a cylindrical power or cylindrical axis of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
17. The system of claim 13 , wherein the cylindrical-power adapter is configured to modify an image presented by the display device by rotating at least one of the cylindrical correction lenses applied to the wheel, the modification to the image at least partially compensating for a cylindrical power or cylindrical axis of a prescription lens through which the image passed prior to reaching the telecentric lens stack.
18. The system of claim 13 , wherein the plurality of cylindrical correction lenses are positioned between the imaging lens and the variable air gap formed by the optical component and the additional optical component within the telecentric lens stack.
19. The system of claim 13 , wherein the plurality of cylindrical correction lenses are positioned within the variable air gap formed by the optical component and the additional optical component within the telecentric lens stack.
20. A method comprising:
coupling an image sensor to a spherical-power adapter that facilitates moving the image sensor relative to an imaging lens within a telecentric lens stack;
coupling at least one optical component to a field-curvature adapter that facilitates adjusting the size of a variable air gap formed between the optical component and at least one additional optical component;
placing the optical component between the image sensor and the imaging lens within the telecentric lens stack; and
configuring, within the telecentric lens stack, a cylindrical-power adapter that includes a plurality of cylindrical correction lenses applied to a wheel that rotates in at least one direction.