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

The field of plasmonics is capable of enabling interesting applications in different
wavelength ranges, spanning from the ultraviolet up to the infrared. The choice of plasmonic …

We present a comprehensive overview of chirality and its optical manifestation in plasmonic
nanosystems and nanostructures. We discuss top-down fabricated structures that range from …

Optical forces are involved in many physical processes and are used routinely in the
laboratory for manipulating and cooling matter, from the micro down to the quantum scales. It …

Chirality, a property of broken mirror symmetry, prevails in nature. Chiral molecules show
different biochemical behaviors to their mirror molecules. For left or right circularly polarized …

The application scope of plasmonic nanostructures is rapidly expanding to keep pace with
the ongoing development of various scientific findings and emerging technologies …

Conspectus Chirality in Nature can be found across all length scales, from the subatomic to
the galactic. At the molecular scale, the spatial dissymmetry in the atomic arrangements of …

Determining the structural chirality of biomolecules is of vital importance in bioscience and
biomedicine. Conventional methods for characterizing molecular chirality, eg, circular …

Chiral-optical spectroscopies, such as circular dichroism, are critical in the biomedical,
pharmaceutical, and agrochemical industries for revealing structural information about …

Chiral plasmonics is a fascinating research field that is attractive to scientists from diverse
backgrounds. Physicists study light–matter interactions, chemists seek ways to analyze …