A temperature-tunable etalon for optical telecommunication wavelength: Difference between revisions
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Shi Yicheng (A0054800R), Du Jinyi (A0227185B), Zhang Qian( | Shi Yicheng (A0054800R), Du Jinyi (A0227185B), Zhang Qian(A0228752Y) | ||
=Rationale= | =Rationale= | ||
Revision as of 09:09, 9 February 2021
Members
Shi Yicheng (A0054800R), Du Jinyi (A0227185B), Zhang Qian(A0228752Y)
Rationale
A Fabry-Perot interferometer (or an Etalon), being probably the simplest form of all interferometers, is found useful in a variety of optical applications such as spectral filtering or frequency referencing.
An etalon is typically constructed out of the two parallel reflecting surfaces of a transparent plate. The plate needs to have low absorption loss for the desired working wavelengths to ensure a relatively high finesse of the etalon. The material choice for visible wavelengths is usually fused silica with an absorption coefficient of [bla] and a thermal expansion coefficient of [bla].
For optical telecommunication wavelengths, which range from about 1260nm to 1625nm, pure silicon becomes a more practical choice with an absorption coefficient of [bla] and thermal expansion coefficient of [bla].
Characteristic Parameters of an Etalon
Building an Etalon Out of Silicon Wafer
Design
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