Design and modeling of advanced optical fibers

optical fiber modes
optical fiber modes

Funded by: Relativity Networks Inc.


Design and modeling of advanced optical fibers are crucial for driving innovation in modern photonics. By understanding and engineering fiber geometries, materials, and guiding mechanisms, one can tailor light propagation to achieve unprecedented performance in communication, sensing, and laser systems. This project enables the development of low-loss, high-power, and application-specific fibers which could pave the way for breakthroughs in next-generation networks, biomedical diagnostics, and quantum technologies.

MOFlab focues on:

  • Accurate modeling of complex hollow-core anti-resonant fibers
    • Model various complex hollow-core fiber geometry
      • Single-mode fiber
      • Multi-mode fiber
    • Understand and model various physical loss mechanisms
      • Confinement loss
      • Surface scattering loss
      • Micro-bend loss
      • Macro-bend loss
  • Modeling speciality optical fibers
    • THz fibers
    • Hollow-core fiber sensors
    • Metamaterial fibers
    • Surface plasmon fibers
    • Higher power fiber lasers
  • Machine learing in fiber optics
    • loss prediction using different ML algorithms
    • Optimize complex geometry of advanced optical fibers
  • Characterize hollow-core fibers
    • Loss characterization
    • Dispersion measurement
Md Selim Habib
Md Selim Habib
Assistant Professor of Electrical Engineering

Hollow-core fibers; Fiber sensors; Ultrafast nonlinear optics

Rodrigo Amezcua-Correa
Rodrigo Amezcua-Correa
Professor of Optics; CTO, Relativity Networks Inc.

Hollow-core fibers; High power fiber lasers; Optical communication

Mohammad Al Mahfuz
Mohammad Al Mahfuz
Phd Student

Hollow-core fibers; Fiber sensors

Daniel Garcia Arana
Daniel Garcia Arana
PhD Student

Hollo-core fibers; Physics-based AI modeling of HCFs; Fiber sensors

Md Sarwar Hosen
Md Sarwar Hosen
Phd Student

Hollow-core fibers; Fiber sensors