Research Topic

Advances in Nanoplasmonics: from Quantum to Nonlinear Effects

About this Research Topic

Plasmonic nanosystems have provided the possibility to macroscopically probe effects that are generally confined to the microscopic realm, enabling phenomena that go beyond classical electrodynamics. Together with the continuous developments in nanofabrication and measurement techniques, this has brought nanoplasmonics at the center of an increasing number of novel and groundbreaking applications in medicine, information processing, energy harvesting and sensing. A huge effort has thus been devoted in the past decade in modeling and experimentally probing nonlocal, nonlinear and quantum optical effects, pushing plasmonics into unexplored territory.

The next decade represents then a great opportunity to explore quantum-enabled optical applications. Novel materials, nanofabrication capabilities, measurement techniques, theoretical models and numerical approaches allow in fact today a new undertake of the biggest challenges in nanophotonics, providing a concrete route to highly effective miniaturized low-cost optical devices through the inclusion of key plasmonic elements. In particular, plasmonic-enabled light-matter interaction at the atomic scale could unlock unprecedented sensing capabilities with huge impacts in medicine and environmental monitoring; while microscopic nonlinear plasmonics could lead to the long-sought control of photon flows at the nanoscale, leading to a new technological paradigm for next generation of information processing devices. Plasmonics is indeed the catalyzer of this innovation process and a fundamental understating of microscopic light-matter dynamics beyond the linear and local effects is the prerequisite for its unraveling.

The aim of this Research Topic is to cover recent trends and developments in nanoplasmonics, focusing on fundamental aspects and their applications. Themes may include, but are not limited to:
• Theoretical modeling beyond classical electrodynamics;
• Nonlinear plasmonics;
• Plasmon-enhanced spectroscopy;
• Quantum emitters manipulation;
• Molecular plasmonics;
• Hypertunable plasmonics;
• Semiconductor plasmonics
• Metasurface-based quantum optics;
• Advances in nanofabrication.
All article types are welcome in this Research Topic, and we particularly encourage Original Research, Reviews and Mini Reviews, Brief Research Reports and Perspectives.


Keywords: quantum plasmonics, nonlinear optics, quantum metasurfaces, spatial nonlocality, semiconductors


Important Note: All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.

Plasmonic nanosystems have provided the possibility to macroscopically probe effects that are generally confined to the microscopic realm, enabling phenomena that go beyond classical electrodynamics. Together with the continuous developments in nanofabrication and measurement techniques, this has brought nanoplasmonics at the center of an increasing number of novel and groundbreaking applications in medicine, information processing, energy harvesting and sensing. A huge effort has thus been devoted in the past decade in modeling and experimentally probing nonlocal, nonlinear and quantum optical effects, pushing plasmonics into unexplored territory.

The next decade represents then a great opportunity to explore quantum-enabled optical applications. Novel materials, nanofabrication capabilities, measurement techniques, theoretical models and numerical approaches allow in fact today a new undertake of the biggest challenges in nanophotonics, providing a concrete route to highly effective miniaturized low-cost optical devices through the inclusion of key plasmonic elements. In particular, plasmonic-enabled light-matter interaction at the atomic scale could unlock unprecedented sensing capabilities with huge impacts in medicine and environmental monitoring; while microscopic nonlinear plasmonics could lead to the long-sought control of photon flows at the nanoscale, leading to a new technological paradigm for next generation of information processing devices. Plasmonics is indeed the catalyzer of this innovation process and a fundamental understating of microscopic light-matter dynamics beyond the linear and local effects is the prerequisite for its unraveling.

The aim of this Research Topic is to cover recent trends and developments in nanoplasmonics, focusing on fundamental aspects and their applications. Themes may include, but are not limited to:
• Theoretical modeling beyond classical electrodynamics;
• Nonlinear plasmonics;
• Plasmon-enhanced spectroscopy;
• Quantum emitters manipulation;
• Molecular plasmonics;
• Hypertunable plasmonics;
• Semiconductor plasmonics
• Metasurface-based quantum optics;
• Advances in nanofabrication.
All article types are welcome in this Research Topic, and we particularly encourage Original Research, Reviews and Mini Reviews, Brief Research Reports and Perspectives.


Keywords: quantum plasmonics, nonlinear optics, quantum metasurfaces, spatial nonlocality, semiconductors


Important Note: All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.

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Submission Deadlines

25 June 2021 Manuscript

Participating Journals

Manuscripts can be submitted to this Research Topic via the following journals:

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Topic Editors

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Submission Deadlines

25 June 2021 Manuscript

Participating Journals

Manuscripts can be submitted to this Research Topic via the following journals:

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