Electro-Optic Effect Explanation with Quantum Photonic Model
Hassan Kaatuzian, AliAkbar Wahedy Zarch, Ahmad Amjadi, Ahmad, Ajdarzadeh Oskouei
TL;DR
This paper explains the transverse electro-optic effect using a quantum-photonic model, simulating photon-electron interactions and waveguide responses to electric fields and different wavelengths.
Contribution
It introduces a quantum-photonic model to interpret the electro-optic effect and employs Monte-Carlo simulations for dynamic analysis.
Findings
Waveguide response varies with applied electric field and wavelength
Photon-electron interactions are key to the electro-optic effect
Monte-Carlo simulation effectively models the effect in time domain
Abstract
In this paper, we have explained transverse electro-optic effect by quantum-photonic model (QPM). This model interpret this effect by photon-electron interaction in attosecond regime. We simulate applied electric field on molecule and crystal by Monte-Carlo method in time domain when a light beam is propagated through the waveguide. We show how the waveguide response to an optical signal with different wavelengths when a transverse electric field applied to the waveguide.
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Taxonomy
TopicsPhotonic and Optical Devices · Mechanical and Optical Resonators · Photonic Crystals and Applications