Chirality plays an important role in biological processes, and enantiomers often possess
similar physical properties and different physiological functions. Thus, chiral detection of …

In this review, we examine nanophotonic techniques for enhancing and detecting chirality,
with a focus on plasmon-enhanced, tip-enhanced, chiral optical cavities, and photothermal …

The accurate detection, classification, and separation of chiral molecules are pivotal for
advancing pharmaceutical and biomolecular innovations. Engineered chiral light presents a …

The research on the interactions between plasmon and chiral materials is fundamental to
the understanding of chiroptical effects and the designs of chiroptical devices. Some …

An optical field around regular polygon metal nanostructures excited by circularly polarized
light can exhibit rotationally displaced intensity distributions. Although this phenomenon has …

The far-and near-field chirality properties are usually characterized by circular dichroism
(CD) and optical chirality (OC), respectively. As a light–matter interaction for the hybrid states …

Circular dichroism (CD) spectrum and optical rotation (OR) spectrum, crucial for
understanding molecular properties and configurations, present challenges due to limited …

Terahertz (THz) technology has attracted significant attention because of its unique
applications in biological/chemical sensing, medical imaging, non‐invasive detection, and …

Optical chirality plays an essential role in chiral light-matter interactions with broad
applications in sensing and spectroscopy. Conventional methods of generating optical …