Optimization of d-shape optical fiber structures with a low insertion loss

Teo, Janzen Wee Hui (2024) Optimization of d-shape optical fiber structures with a low insertion loss. Project Report. Universiti Teknikal Malaysia Melaka, Melaka, Malaysia. (Submitted)

Text (Full text) Optimization of d-shape optical fiber structures with a low insertion loss.pdf - Submitted Version Download (2MB)

Abstract

The demand for high-performance optical communication systems has fueled the exploration of innovative optical fiber structures. This final year project focuses on the optimization of D-shaped optical fiber structures with the overarching goal of achieving low insertion loss. The unique geometry of D-shaped fibers offers promising advantages, motivating our investigation into the optimization parameters that can enhance their performance. The study begins with an in-depth exploration of D-shaped optical fiber structures, investigating their design principles and inherent characteristics. Building upon existing literature, we identify key areas for improvement and embark on a comprehensive optimization process. This optimization spans various facets, including geometry, materials, and fabrication processes. A crucial aspect of our investigation is the evaluation of insertion loss, a critical parameter in optical communication. We delve into the factors influencing insertion loss and propose strategies to minimize this loss through the optimized D-shaped optical fiber structures. Numerical simulations and modeling techniques are employed to assess the efficacy of our optimization efforts. The experimental validation phase involves the fabrication of the optimized D-shaped optical fibers and rigorous testing to measure insertion loss. Results obtained from experiments are compared with ii theoretical expectations, providing insights into the practical viability of our optimized structures. Furthermore, we discuss potential applications of the optimized D-shaped optical fibers in real-world scenarios, considering the impact of low insertion loss on overall system performance. A comparative analysis with existing optical fiber structures highlights the advantages and practical considerations of our optimized design. The project concludes with reflections on the outcomes, limitations, and implications of the research. We propose avenues for future exploration and development, envisioning the continued evolution of D-shaped optical fiber as integral components of advanced optical communication systems. This final year report encapsulates a comprehensive exploration of D-shaped optical fiber structures, offering valuable insights for researchers and practitioners in the field of optical communications. The optimization strategies developed in this study contribute to the ongoing efforts to enhance the efficiency and reliability of optical fiber-based communication networks.

Actions (login required)

View Item