Meng Huang

Dr Meng Huang is a PhD Research Fellow in Nonlinear Fibre Optics at the University of Southampton, actively contributing to cutting-edge research in photonics through membership in the Nonlinear Semiconductor Photonics and Silicon Photonics research groups. His work focuses on advancing broadband nonlinear fibre systems and optimizing silicon core optical fibres (SCFs) for next-generation photonic applications, with significant implications for telecommunications and sensing technologies.

Huang's research spans nonlinear optics, fibre optics, silicon photonics, mid-infrared optics, and optical sensing. He investigates fundamental nonlinear phenomena in semiconductor fibres, particularly Raman scattering and wavelength conversion in silicon core platforms. His work targets practical implementations in mid-infrared light generation, environmental monitoring, and optical signal processing, leveraging unique material properties of silicon and silicon-germanium compositions.

Analysis of Huang's 2023-2024 publications reveals a concentrated research trajectory centered on silicon-based nonlinear photonics. Key themes include development of low-loss polycrystalline fibres, expansion into mid-infrared spectral regions beyond traditional telecom bands, and innovative fabrication techniques like laser-drawing. His work bridges materials science with photonic device engineering, demonstrating applications in sensors, amplifiers, and broadband wavelength converters.

Dr Huang currently supervises PhD student Ying Mu within the Optoelectronics Research Centre (ORC) framework. While specific grant details aren't public, his research output indicates active participation in funded projects advancing fibre-based nonlinear photonics.

Huang operates within the Nonlinear Semiconductor Photonics and Silicon Photonics groups at Southampton, which form part of the university's broader photonics research ecosystem. These teams specialize in developing semiconductor-based photonic platforms with emphasis on fibre technologies for nonlinear applications, particularly targeting mid-infrared spectral regions where conventional silica fibres face limitations.