The advancement in electromagnetic metamaterials, which commenced three decades ago,
experienced a rapid transformation into acoustic and elastic systems in the forms of …

Electromagnetically induced transparency (EIT) originates from quantum physics, where a
narrow transparent peak appears in the opaque band due to the destructive interference …

Wearable and implantable sensors can be linked together to create multi-node wireless
networks that could be of use in the development of advanced healthcare monitoring …

To control and enhance light–matter interactions at the nanoscale, two parameters are
central: the spectral overlap between an optical cavity mode and the material's spectral …

We numerically and experimentally investigate spatially programmable rainbow trapping
and band-gap enhancement using a graded piezoelectric metamaterial beam with unit cells …

Using the trapped rainbow effect to slow down or even stop light has been widely studied.
However, high loss and energy leakage severely limited the development of rainbow …

Surface‐enhanced infrared absorption spectroscopy (SEIRA) has emerged as a powerful
technique for ultrasensitive chemical‐specific analysis. SEIRA can be realized by employing …

The equivalent circuit model (ECM) is developed by using a MATLAB code to analyze
graphene-based multi-band chiral metamaterial absorbers composing graphene-based …

Topological photonics provides a robust platform for the study of nanophotonic devices. The
topological rainbow can be used to separate, slow, and trap topological photonic states of …

High‐index dielectric subwavelength structures and metasurfaces are capable of enhancing
light‐matter interaction by orders of magnitude via geometry‐dependent optical resonances …