Research
Research in photonic structures and wave control, spanning electromagnetic modeling, device design, and experimental characterization.
Microwave photonic crystals
Pseudospin-locked chiral edge states
Investigating pseudospin-selective chiral transport and photonic routing through full-wave modeling, sample design, and microwave experiments.
Modeling, design, experiments & manuscript preparation
Microwave metasurfaces
Cavity-tunable Dirac phases & refraction
Studying how the cavity environment shapes photonic modes, with experimental measurements of Dirac phases and ongoing modeling of refraction.
Experimental measurements & refraction modeling
Terahertz photonic crystals
Terahertz chiral valley edge states
Modeling terahertz Chern–valley interfaces and assessing how magnetic bias, fabrication tolerances, and air layers affect the design.
Numerical modeling & design optimization · NTU
Synthetic gauge fields
Gauge-field photonic lattices
Exploring gauge-field-induced duality and Hofstadter-type spectra by connecting lattice models with electromagnetic simulations.
Tight-binding & full-wave modeling
Time-varying photonics
Photonic time crystals
Connecting Floquet band calculations with time-domain simulations using plane-wave expansion, temporal transfer matrices, and FDTD.
Numerical modeling
Microwave photonics
Cavity-controlled helical edge transport
Contributing to experiments on the control of photonic edge transport through changes in the cavity environment.
Experimental contribution
Non-Hermitian photonics
Cavity-tunable exceptional points
Contributing to experimental measurements during the revision of a study of cavity-tunable exceptional points.
Revision-stage experimental contribution