Chiral nanophotonic materials are promising candidates for biosensing applications
because they focus light into nanometer dimensions, increasing their sensitivity to the …

Over the years, researchers have been exploring ways to artificially design chiral structures
and materials, namely metamaterials and metasurfaces. They exhibit unique optical …

Metasurfaces are planar or 2D forms of metamaterials made up of arrays of antennas with a
subwavelength thickness. They have been rapidly developed in the recent years due to their …

Chiral metasurfaces are capable of generating a huge superchiral field, which has great
potential in optoelectronics and biosensing. However, the conventional fabrication process …

Chiral metamaterials play vital roles in manipulating the circular polarization of
electromagnetic waves. Although planar chiral metamaterials are believed to have no …

Chirality (C) is a fundamental symmetry property of objects. Detecting and distinguishing
molecular chirality in the infrared spectrum is important in life sciences, biology, and …

Nanophotonics allows the manipulation of light on the subwavelength scale. Optical
nanoantennas are nanoscale elements that enable increased resolution in bioimaging …

In this work, we combine the concepts of magnetic circular dichroism, nanocavities, and
magneto-optical hyperbolic metamaterials (MO-HMMs) to demonstrate an approach for …

Chiral plasmonic structures have garnered increasing attention owing to their distinctive
chiroptical response. Localized surface plasmon resonance can significantly enhance the …

The interaction between chiral molecules and circularly polarized light is largely influenced
by the local optical chirality density. This interaction prompts substantial demand of the …