Emerging Directions in Plasmonics
Plasmonics enables a wealth of applications, including photocatalysis, photoelectrochemistry, photothermal heating, optoelectronic devices, and biological and chemical sensing, while encompassing a broad range of materials including coinage metals, doped semiconductors, metamaterials, 2D materials, and chiral assemblies. Applications in plasmonics benefit from the large local electromagnetic field enhancements generated by plasmon excitation, as well as the products of plasmon decay, including photons, hot charge carriers, and heat. This special topic highlights recent work in both theory and experiment that advance our fundamental understanding of plasmon excitation and decay mechanisms, showcase new applications enabled by plasmon excitation, and highlight emerging classes of materials that support plasmon excitation.
Topics covered include, but are not limited to:
- Plasmon excitation and decay mechanisms
- New applications enabled by plasmon excitation
- Emerging classes of materials
- Photocatalysis, photoelectrochemistry
- Photothermal heating
- Optoelectronic devices
- Sensing
- Coinage metals, doped semiconductors, metamaterials, 2D materials, chiral assemblies
- Field enhancement effects
- Products of plasmon decay including photons, hot charge carriers, and heat
Guest Editors
Emiliano Cortés – Ludwig-Maximilians-Universität München
Alexander O. Govorov – Ohio University
Hiroaki Misawa – Hokkaido University
Katherine (Kallie) Willets – Temple University