Transparent lens microphone

1. A transparent lens microphone, comprising: (a) a refractive eyeglass lens; (b) a sound sensitive coating on a surface of the refractive eyeglass lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone.

2. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the refractive lens is a corrective eyeglass lens.

3. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises a piezoresistive material.

4. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises carbon nanotubes.

5. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises two or more piezoelectric layers.

6. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises an inner conductive coating on an inner surface of the refractive lens and an outer conductive coating on an outer surface of the refractive lens.

7. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises: (a) an inner conductive coating on an outer surface of the refractive lens; and (b) an outer conductive coating on an inner surface of a second lens, wherein the second lens is supported by the refractive lens with the inner and outer conductive coatings proximate each other and separated by a cavity.

8. The transparent lens microphone of claim 7 , further comprising a perimeter seal maintaining contents within the cavity.

9. The transparent lens microphone of claim 8 , wherein the perimeter seal maintains a pressure or a vacuum within the cavity.

10. The transparent lens microphone of claim 8 , wherein the cavity contains a gas.

11. The transparent lens microphone of claim 8 , wherein the cavity contains a water saturated polymer.

12. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, wherein the sound sensitive coating comprises: an inner conductive coating on an outer surface of the refractive lens; an electret layer adjacent the inner conductive coating, the electret layer having an outer surface; and an outer conductive coating on the outer surface of the electret layer, such that the electret layer is sandwiched between the inner conductive coating and the outer conductive coating.

13. The transparent lens microphone of claim 12 , wherein the inner and outer conductive coatings comprise a material selected from indium tin oxide (ITO), aluminum-doped zinc oxide (AZO), aluminum oxide, tin antimony oxide, titanium oxide, carbon nanotubes, and metals such as silver, gold, aluminum, chrome, rhodium and copper.

14. The transparent lens microphone of claim 12 , wherein the inner and outer conductive coatings comprise indium tin oxide (ITO).

15. The transparent lens microphone of claim 12 , wherein the electret layer comprises a material selected from fluoropolymers, polypropylene, polyethyleneterephthalate, and poly(p-xylylene).

16. The transparent lens microphone of claim 12 , wherein the electret layer comprises a poly(p-xylylene).

17. The transparent lens microphone of claim 12 , wherein the electret layer is charged.

18. The transparent lens microphone of claim 12 , wherein the electret layer is uncharged.

19. The transparent lens microphone of claim 1 , further comprising a DC power source.

20. A transparent lens microphone, comprising: (a) a refractive lens; (b) a sound sensitive coating on a surface of the refractive lens; and (c) electrical contacts connected to the sound sensitive coating so as to provide an electrical signal analogous to an acoustic signal striking the transparent lens microphone, and further comprising a radio frequency oscillatory circuit.

21. The transparent lens microphone of claim 2 , further comprising converter/processing electronics housed in a temple pad or a nose pad such that the converter/processing electronics are in communication with the electrical contacts when the corrective eyeglass lens and the temple pad or nose pad are positioned on an eyeglass frame.