Paper
27 August 2008 A new generation of previously unrealizable photonic devices as enabled by a unique electro-optic waveguide architecture
Scott R. Davis, Scott D. Rommel, George Farca, Michael H. Anderson
Author Affiliations +
Abstract
A new electro-optic waveguide platform, which provides unprecedented electro-optical phase delays (> 1mm), with very low loss (< 0.5 dB/cm) and rapid response time (sub millisecond), is presented. This technology, developed by Vescent Photonics, is based upon a unique liquid-crystal waveguide geometry, which exploits the tremendous electro-optic response of liquid crystals while circumventing historic limitations of liquid crystals. The exceedingly large optical phase delays accessible with this technology enable the design and construction of a new class of previously unrealizable photonic devices. Examples include: a 1-D non-mechanical, analog beamsteerer with an 80° field of regard, a chip-scale widely tunable laser, a chip-scale Fourier transform spectrometer (< 5 nm resolution demonstrated), widely tunable micro-ring resonators, tunable lenses, ultra-low power (< 5 microWatts) optical switches, true optical time delay (up to 10 ns), and many more. All of these devices may benefit from established manufacturing technologies and ultimately may be as inexpensive as a calculator display. Furthermore, this new integrated photonic architecture has applications in a wide array of commercial and defense markets including: remote sensing, micro-LADAR, OCT, laser illumination, phased array radar, optical communications, etc. Performance attributes of several example devices are presented.
© (2008) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Scott R. Davis, Scott D. Rommel, George Farca, and Michael H. Anderson "A new generation of previously unrealizable photonic devices as enabled by a unique electro-optic waveguide architecture", Proc. SPIE 7050, Liquid Crystals XII, 705005 (27 August 2008); https://doi.org/10.1117/12.793130
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CITATIONS
Cited by 4 scholarly publications and 5 patents.
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KEYWORDS
Liquid crystals

Waveguides

Electro optics

Cladding

Electrodes

Fourier transforms

Microrings

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