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Physics-based AI modeling of hollow-core fibers

Develop advanced physics-informed artificial intelligence models to accurately predict transmission loss, modal properties, light propagation, nonlinear dynamics, and gas–light interactions in hollow-core fibers. This research accelerates fiber design, improves device performance, and enables next-generation applications in AI and data centers, ultrafast lasers, optical sensing, and high-power photonics.

Design and modeling of advanced optical fibers

Design and modeling of advanced optical fibers

Our research focuses on the design and numerical modeling of next-generation optical fibers with tailored microstructures for enhanced light confinement, dispersion control, and nonlinear performance. By combining computational simulations with theoretical analysis, we develop innovative fiber geometries to enable breakthroughs in sensing, communications, and high-power laser applications.

Advanced fiber characterization & fabrication

Advanced fiber characterization & fabrication

Optical fiber fabrication involves the precise creation of glass fibers that guide light with minimal loss. Using advanced techniques such as chemical vapor deposition and fiber drawing, high-purity silica preforms are heated and stretched into thin, flexible fibers that form the backbone of modern communication, sensing, and photonic technologies.

Develop smart, low-cost and energy-efficient fiber sensors

Develop smart, low-cost and energy-efficient fiber sensors

We focus on the modeling and fabrication of low-cost, energy-efficient fiber sensors designed for precise and scalable sensing applications. By combining advanced optical simulations with innovative fabrication techniques, our work aims to create sustainable fiber-based solutions for environmental, biomedical, industrial, and critical green-house gas emission monitoring.

Investigate extreme light-matter interactions

Investigate extreme light-matter interactions

We investigate extreme light–matter interactions in hollow-core fibers, where intense laser fields interact with gases or plasmas confined within microscopic channels. Our research explores new regimes of nonlinear optics, and ultrafast light control, advancing the frontiers of photonics and attosecond science.