Display projector systems and devices for augmented-reality
Systems and devices describe an augmented-reality glasses having a plurality of panels of light emitters arranged to form an array of light emitters, collimation optics for collimating light received from the array of light emitters, an optical coupler for receiving the collimated light, and a waveguide for display of augmented-reality content to a wearer of the augmented-reality glasses. In some embodiments, the array of light emitters includes light emitters generating three colors, each panel of the plurality of panels of light emitters having light emitters generating a same color, and each panel of the plurality of panels of light emitters positioned on a surface of a semiconductor with at least one integrated circuit. The array of light emitters can be two-dimensional array of light emitters arranged on a common plane and characterized by a pitch that is less than 2 μm.
1. An augmented-reality glasses, comprising:
a plurality of panels of light emitters arranged to form an array of light emitters, wherein:
the array of light emitters includes light emitters generating three colors,
each panel of the plurality of panels of light emitters has light emitters generating a same color, and
each panel of the plurality of panels of light emitters is positioned on a surface of a semiconductor with at least one integrated circuit;
collimation optics for collimating light received from the array of light emitters;
an optical coupler for receiving the collimated light; and
a waveguide for display of augmented-reality content to a wearer of the augmented-reality glasses.
2. The augmented-reality glasses of claim 1 , wherein the array of light emitters is a two-dimensional array of light emitters arranged on a common plane and the array of light emitters is characterized by a pitch that is less than 2 μm.
3. The augmented-reality glasses of claim 1 , wherein each light emitter of the two-dimensional array of light emitters has a diameter that is less than 2 μm.
4. The augmented-reality glasses of claim 1 , wherein each panel of the plurality of panels of light emitters has a surface area of 3 mm×4 mm.
5. The augmented-reality glasses of claim 1 , wherein the semiconductor with the at least one integrated circuit has a surface area of 4 mm×5 mm.
6. The augmented-reality glasses of claim 1 , wherein the semiconductor with at least one integrated circuit has at least one through surface via (TSV).
7. The augmented-reality glasses of claim 1 , wherein the waveguide is an optical combiner and the light emitters are light emitting diodes.
8. A projector assembly comprising:
a plurality of panels of light emitters arranged to form an array of light emitters, wherein:
the array of light emitters includes light emitters generating three colors,
each panel of the plurality of panels of light emitters has light emitters generating a same color, and
each panel of the plurality of panels of light emitters is positioned on a surface of a semiconductor with at least one integrated circuit;
collimation optics for collimating light received from the array of light emitters; and
an optical coupler for receiving the collimated light, wherein the projector assembly is configured to project augmented-reality content for viewing via a waveguide.
9. The projector assembly of claim 8 , wherein the array of light emitters is a two-dimensional array of light emitters arranged on a common plane and the array of light emitters is characterized by a pitch that is less than 2 μm.
10. The projector assembly of claim 8 , wherein each light emitter of the two-dimensional array of light emitters has a diameter that is less than 2 μm.
11. The projector assembly of claim 8 , wherein each panel of the plurality of panels of light emitters has a surface area of 3 mm×4 mm.
12. The projector assembly of claim 8 , wherein the semiconductor with the at least one integrated circuit has a surface area of 4 mm×5 mm.
13. The projector assembly of claim 8 , wherein the semiconductor with at least one integrated circuit has at least one through surface via (TSV).
14. The projector assembly of claim 8 , wherein the waveguide is an optical combiner and the light emitters are light emitting diodes.
15. A method of assembling augmented-reality glasses, comprising:
forming a projector assembly comprising:
a plurality of panels of light emitters arranged to form an array of light emitters, wherein:
the array of light emitters includes light emitters generating three colors,
each panel of the plurality of panels of light emitters has light emitters generating a same color, and
each panel of the plurality of panels of light emitters is positioned on a surface of a semiconductor with at least one integrated circuit; and
collimation optics for collimating light received from the array of light emitters; and
coupling the projector assembly with an optical coupler for receiving the collimated light, wherein the optical coupler is coupled to a waveguide configured to cause display of augmented-reality content to a wearer of the augmented-reality glasses.
16. The method of assembling the augmented-reality glasses of claim 15 , wherein the array of light emitters is a two-dimensional array of light emitters arranged on a common plane and the array of light emitters is characterized by a pitch that is less than 2 μm.
17. The method of assembling the augmented-reality glasses of claim 15 , wherein each panel of the plurality of panels of light emitters has a surface area of 3 mm×4 mm.
18. The method of assembling the augmented-reality glasses of claim 15 , wherein each light emitter of the two-dimensional array of light emitters has a diameter that is less than 2 μm.
19. The method of assembling the augmented-reality glasses of claim 15 , wherein the semiconductor with at least one integrated circuit has at least one through surface via (TSV).
20. The method of assembling the augmented-reality glasses of claim 15 , wherein the waveguide is an optical combiner and the light emitters are light emitting diodes.