IP Library Granted Patent US 7,165,895
Granted Patent B2
US 7,165,895 · App. 10/662,768 · Granted Jan 23, 2007

Method of guiding an optical signal

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Quick Facts
Patent No.
US 7,165,895
App. No.
10/662,768
Granted
Jan 23, 2007
Kind
B2
Abstract

A method and apparatus are provided for guiding an optical beam progressing along an axis of transmission defined by an optical converter. The method includes the steps of disposing an optically transparent substrate in the axis of transmission of the optical converter with a predominant plane of the substrate disposed perpendicular to the axis of transmission and so that the optical beam passes directly through the substrate and disposing a plurality of refracting or reflecting elements around the axis of transmission within a body of the optically transparent substrate.

Claims (49)

1. A method of guiding an optical beam progressing along an axis of transmission defined by an optical converter, such method comprising the steps of:

disposing an optically transparent substrate in the axis of transmission of the optical converter with a predominant plane of the substrate disposed perpendicular to the axis of transmission and so that the optical beam passes directly through the substrate; and

disposing a plurality of discrete refracting or reflecting elements around the axis of transmission within a body of the optically transparent substrate, said plurality of refracting or reflecting elements selected to reflect light away from the plurality of refracting or reflecting elements to thereby confine the optical beam to the axis of transmission.

2. The method of guiding the optical beam as in claim 1 further comprising defining the optically transparent substrate as a mounting substrate.

3. The method of guiding the optical beam as in claim 1 further comprising defining the optically transparent substrate as an auxiliary substrate.

4. The method of guiding the optical beam as in claim 3 further comprising mounting the optical converter to a mounting substrate so that the axis of transmission passes directly through the mounting substrate.

5. The method of guiding the optical beam as in claim 4 further comprising justaposing the mounting substrate with the auxiliary substrate.

6. The method of guiding the optical beam as in claim 1 further comprising defining the plurality of refracting or reflecting elements as apertures within the optically transparent substrate.

7. The method of guiding the optical beam as in claim 6 further comprising filling the plurality of apertures with a material with a lower index of refraction than the optically transparent substrate.

8. The method of guiding the optical beam as in claim 1 further comprising disposing the plurality of refractive or reflective elements in a circle around the axis of transmission defined by the optical converter.

9. The method of guiding the optical beam as in claim 1 further comprising disposing the plurality of refracting or reflective elements in a square around the axis of transmission defined by the optical converter.

10. The method of guiding the optical beam as in claim 1 further comprising disposing the plurality of refractive or reflective elements in a octagon around the axis of transmission defined by the optical converter.

11. The method of guiding the optical beam as in claim 1 further comprising disposing the plurality of refractive or reflective elements in a random array around the axis of transmission defined by the optical converter.

12. An apparatus for guiding an optical beam progressing along an axis of transmission defined by an optical converter, such apparatus comprising:

an optically transparent substrate disposed in the axis of transmission of the optical converter with a predominant plane of the substrate disposed perpendicular to the axis of transmission and so that the optical beam passes directly through the substrate; and

a plurality of descrete refracting or reflecting elements adapted to reflect the optical beam away from the plurality of refracting or reflecting elements, said refracting or reflecting elements being disposed around the axis of transmission within a body of the optically transparent substrate to confine the optical beam to the axis of transmission.

13. The apparatus for guiding the optical beam as in claim 12 further comprising defining the optically transparent substrate as a mounting substrate.

14. The apparatus for guiding the optical beam as in claim 12 further comprising defining the optically transparent substrate as an auxiliary substrate.

15. The apparatus for guiding the optical beam as in claim 14 further comprising the optical converter mounted to a mounting substrate so that the axis of transmission passes directly through the mounting substrate.

16. The apparatus for guiding the optical beam as in claim 15 further comprising the mounting substrate justaposed with the auxiliary substrate.

17. The apparatus for guiding the optical beam as in claim 12 further comprising defining the plurality of refracting or reflecting elements as apertures within the optically transparent substrate.

18. The apparatus for guiding the optical beam as in claim 17 further comprising the plurality of apertures filled with a material with a lower index of refraction than the optically transparent substrate.

19. The apparatus for guiding the optical beam as in claim 17 further comprising the plurality of apertures filled with a reflective material.

20. The apparatus for guiding the optical beam as in claim 12 further comprising the plurality of refracting or reflective elements disposed in a circle around the axis of transmission defined by the optical converter.

21. The apparatus for guiding the optical beam as in claim 12 further comprising the plurality of refractive or reflective elements disposing in a square around the axis of transmission defined by the optical converter.

22. The apparatus for guiding the optical beam as in claim 12 further comprising the plurality of refractive or reflective elements disposing in a octagon around the axis of transmission defined by the optical converter.

23. The apparatus for guiding the optical beam as in claim 12 further comprising the plurality of refractive or reflective elements disposing in a random array around the axis of transmission defined by the optical converter.

24. A method for guiding an optical signal within an electrooptic signal processing assembly, such method comprising the steps of:

providing a first and second optically transparent substrate with a plurality of alignment apertures formed in the substrates;

providing an optical device with a transmission path of the optical device passing directly through the bodies of the two optically transparent substrates,

providing an optical via for shaping the transmission path of the optical signal, said optical via comprising a plurality of apertures formed in the second substrate that reflect light away from the plurality of refracting or reflecting elements to confine the optical signal to the optical via such that the transmission path of the optical device passes directly through the body of the substrate defined by the area encompassed by the plurality of apertures;

aligning an optical fiber holder to the optical device using a plurality of guide pin apertures in the substrate and a respective plurality of guide pins and;

coupling an optical signal of the optical device of the optical array to a respective optical fiber of the aligned optical fiber holder.

25. A method for providing an electro-optic signal processing assembly, such method comprising the steps of:

providing an optically transparent substrate with a plurality of apertures that reflect light away from the plurality of refracting or reflecting elements formed in the substrate;

providing an optical device with a transmission path of the optical device passing directly through a portion of the body of the optically transparent substrate defined by the area encompassed by the plurality of apertures;

aligning an optical fiber holder to the optical device using a plurality of guide pin apertures in the substrate and a respective plurality of guide pins and;

coupling an optical signal of the optical device of the optical array to a respective optical fiber of the aligned optical fiber holder where the optical signal passes directly through the substrate and where the plurality of apertures together confine the optical signal within the area encompassed by the plurality of apertures.

26. An electro-optic signal processing device, such package comprising:

a first and second optically transparent substrate with a plurality of alignment apertures formed in the substrates;

an optical device having a transmission path of the optical device passing directly through the bodies of the two optically transparent substrates,

an optical via comprising a plurality of apertures that reflect light away from the plurality of refracting or reflecting elements formed in the second substrate, such that an optical signal from the optical device traveling along the transmission path of the optical device passes directly through the body of the substrate defined by the area encompassed by the plurality of apertures and is confined within optical via;

means for holding an optical fiber and for guiding the optical device into alignment with a respective optical fiber using a plurality of guide pins and alignment apertures disposed in the substrate.

27. An electrooptic signal processing device, such package comprising:

an optically transparent substrate having apertures that reflect light away from the plurality of refracting or reflecting elements formed in the substrate, where the apertures together form an optical via;

an optical device having a transmission path of an optical beam that passes directly through a portion of the body of the optically transparent substrate defined by the optical via and where the apertures confine the optical beam to the via; and

means for holding an optical fiber and for guiding the optical device into alignment with a respective optical fiber using a plurality of guide pins and alignment apertures disposed in the substrate.

28. The method of guiding the optical beam as in claim 1 further comprising the plurality of refracting or reflecting elements guiding the optical beam along the axis of transmission.

29. The apparatus for guiding the optical beam as in claim 12 further comprising the plurality of refracting or reflecting elements being adapted to guide the optical beam along the axis of transmission.

Assignments (7)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Mar 15, 2013
From: EMCORE CORPORATION
To: SUMITOMO ELECTRIC DEVICE INNOVATIONS, U.S.A., INC.
Reel/Frame 030006/0126 →
PARTIAL RELEASE OF SECURITY INTEREST Recorded May 11, 2012
From: WELLS FARGO BANK, NATIONAL ASSOCIATION
To: EMCORE CORPORATION; EMCORE SOLAR POWER, INC.
Reel/Frame 028192/0189 →
RELEASE OF SECURITY INTEREST Recorded Oct 12, 2011
From: BANK OF AMERICA, N.A.
To: EMCORE CORPORATION; EMCORE SOLAR POWER, INC.
Reel/Frame 027050/0880 →
SECURITY AGREEMENT Recorded May 18, 2011
From: EMCORE CORPORATION; EMCORE SOLAR POWER, INC.
To: WELLS FARGO BANK, NATIONAL ASSOCIATION
Reel/Frame 026304/0142 →
SECURITY AGREEMENT Recorded Nov 12, 2008
From: EMCORE CORPORATION
To: BANK OF AMERICA, N.A.
Reel/Frame 021824/0019 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Apr 10, 2007
From: CORONA OPTICAL SYSTEMS, INC.
To: EMCORE CORPORATION
Reel/Frame 019287/0396 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Sep 15, 2003
From: WICKMAN, RANDY
To: CORONA OPTICAL SYSTEMS, INC.
Reel/Frame 014516/0420 →