Phase compensation of bent silica-glass optical channel waveguide devices by vector-wave mode-matching method
Weyl-Kuo Wang, R.E. Scotti, D.J. Muehlner
Abstract
Weyl-Kuo Wang, R.E. Scotti, D.J. Muehlner
Abstract
Reduction of the radiation loss is essential for the design of integrated-optic devices involving bent waveguides. For wavelength-selective waveguide devices requiring accurate phase control, the effect of bending-induced phase-constant change becomes even more important. The vector-wave mode-matching method is extended for the analysis of both loss and phase characteristics for general integrated-optic bent channel waveguides. For a typical Mach-Zehnder interferometric filter in silica-glass waveguide, the calculated phase-constant change is used in the waveguide path-length compensation which results in excellent agreement between design and measurement.
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Reduction of the radiation loss is essential for the design of integrated-optic devices involving bent waveguides. For wavelength-selective waveguide devices requiring accurate phase control, the effect of bending-induced phase-constant change becomes even more important. The vector-wave mode-matching method is extended for the analysis of both loss and phase characteristics for general integrated-optic bent channel waveguides. For a typical Mach-Zehnder interferometric filter in silica-glass waveguide, the calculated phase-constant change is used in the waveguide path-length compensation which results in excellent agreement between design and measurement.
Key concepts: Optics, Bent molecular geometry, Waveguide, Materials science, Interferometry, Radiation mode, Optical path length, Mach–Zehnder interferometer