Dr. Schibli’s research is focused on precision optical metrology and the discovery of novel tools, methods, and materials that aid the progress in this field. Part of the current research effort is devoted towards novel light sources for precision measurements and a better understanding and controlling of the quantum noise limits in lasers and laser-based measurements. His group is working on monolithic ultrafast lasers, ultra-low noise lasers, and coherent light sources. Recent achievements span from the synthesis and characterization of the ultrafast optical and electronic properties of single atomic layer graphene to a variety of graphene-based electro-optic devices, as well as pulsed lasers with record-low timing jitter in the few attosecond domain.
precision optical metrology, optical frequency combs, low-phase noise lasers, microwave generation via optical frequency division, optical and electronic properties of graphene and IIIV materials, graphene synthesis, graphene devices, ultrafast physics, ultrafast lasers, ultrafast materials, nonlinear optics, laser dynamics, frequency and time-resolved laser spectroscopy, atomic, molecular, and optical physics, AMO, electronic structure of low-dimensional materials
PHYS 4410 - Quantum Mechanics 2
Spring 2018 / Spring 2019
Extends quantum mechanics to include perturbation theory and its applications to atomic fine structure, multi-particle systems, interactions with external forces, the periodic table and dynamical processes including electromagnetic transition rates.
PHYS 5160 - Fundamentals of Optics and Lasers
Fall 2018 / Fall 2019
Covers the basic physic of lasers. Topics include basics of optical resonators and gaussian beam propagation, stimulated emission, laser threshold conditions, laser linewidth, q-switching and mode locking of lasers, tuning of Cw lasers, and specifics of various common lasers.