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Cantor set fiber Bragg grating
1Department of Electrical Engineering, Instituto Technologico de Aeronautica, Sao Jose dos Campos, SP, Brazil. haroldo@ele.ita.cta.br
Summary
This study introduces Cantor set fractals in fiber Bragg gratings, altering reflectivity spectra. Higher fractal orders broaden spectra and create complex, self-similar patterns.
Area of Science:
- Optics
- Materials Science
- Fractal Geometry
Background:
- Fractal theory is widely applied across scientific disciplines like physics, biology, and chemistry.
- The Cantor set is a frequently utilized fractal in these applications.
- Fiber Bragg gratings (FBGs) are standard optical components with established technological applications.
Purpose of the Study:
- To investigate the impact of integrating Cantor sets into fiber Bragg gratings.
- To analyze modifications in the reflectivity spectra of these novel fractal gratings.
- To explore the relationship between fractal order and spectral characteristics.
Main Methods:
- Developing novel fiber Bragg gratings incorporating Cantor set theory.
- Analyzing the reflectivity spectra of these Cantor gratings.
- Utilizing numerical simulations to demonstrate spectral variations.
Main Results:
- Cantor sets applied to gratings significantly alter their reflectivity spectra.
- Increasing the order of the Cantor set leads to a broadening of bandpass reflectivity spectra.
- The spectra exhibit evolving, more complex patterns and self-similarity with higher fractal orders.
Conclusions:
- Novel fiber Bragg gratings integrating Cantor sets offer tunable spectral properties.
- The fractal order is a key parameter for controlling spectral broadening and complexity.
- These Cantor gratings demonstrate potential for advanced optical applications requiring tailored spectral responses.