Investigate extreme light-matter interactions

Funded by: Florida Tech seed grant


Investigating extreme light–matter interactions in hollow-core fibers is crucial for advancing ultrafast nonlinear optics. By confining intense laser pulses within gas- or plasma-filled microstructures, these fibers provide a unique platform to explore phenomena such as soliton dynamics and strong-field ionization under precisely controlled conditions. The main goals of this project are to unveil new regimes of nonlinear light propagation, develop compact sources of coherent radiation from the ultraviolet to mid-infrared, and enable next-generation applications in attosecond science, quantum technologies, and high-field spectroscopy.

  • Soliton pulse compression
  • Supercontinuum generation
  • Efficient UV laser source design
  • Develop low-cost, compact and energy-efficient new laser source design
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

Darren Hudson
Darren Hudson
Professor of Optics

Light-matter interactions using optical fibers; Emerging quantum technology

Ole Bang
Ole Bang
Professor; Co-founder, NORBLIS IVS

Fiber sensors; Supercontinuum generation; Hollow-core fibers; Gas-filled fibers

Christos Markos
Christos Markos
Associate Professor; Co-founder, NORBLIS IVS

Hollow-core fibers; Neural devices; Gas-filled fibers, Fiber sensors

Pawel Jung
Pawel Jung
Assistant Professor of Physics

Light-matter interactions using optical fibers; Emerging quantum technology