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Plasmon-mediated chemical reactions have revolutionized the way we manipulate and control chemical transformations with light, leveraging the unique properties of surface plasmons in noble metal nanostructures. These remarkable phenomena have opened up a vast array of possibilities for harnessing light-matter interactions to drive chemical processes with remarkable precision and efficiency. The field of plasmon-mediated chemical reactions is expanding rapidly, and this Collection in Communications Chemistry explores the frontiers of this exciting research area.
We aim to cover a comprehensive range of topics related to plasmon-mediated chemical reactions. We welcome submissions that delve into:
Real-time monitoring techniques for plasmon-assisted chemical reactions, shedding light on the dynamic evolution of chemical transformations at the nanoscale
Mechanistic investigations of reaction pathways
Enhanced catalysis and selective transformations facilitated by plasmonic nanostructures
Design and synthesis of novel plasmonic materials for catalytic application
Fundamental aspects that govern energy transfer and charge carrier dynamics in plasmon-induced chemical reactions
Energy conversion and storage applications of plasmon-mediated chemical reactions
Environmental and sustainability aspects of plasmon-driven reactions: environmental remediation, sustainable synthesis, and green chemistry
Theoretical studies of chemical reactions assisted by plasmons, charge transfer at plasmonic interfaces and light-molecule interaction in plasmonic systems
Thermoplasmonics and its role in assisting chemical reactions
The Collection primarily welcomes original research papers, in the form of both full Articles, as well as Perspectives, Reviews and Comments. All submissions will be subject to the same review process and editorial standards as regular Communications Chemistry articles.
Electronic energy transfer (EET) between chromophores is a critical process for solar energy funneling, and recent studies using scanning tunneling microscopy have shown that chromophores deposited on solid substrates in such conditions display peculiar EET features. Here, hybrid ab initio and electromagnetic modeling provide a comprehensive theoretical analysis of tip-enhanced EET.
Metallic nanoparticles are widely explored for boosting light-matter coupling of 2D materials, however, the target area for nanoparticle deposition is typically restricted to either the top or the bottom of 2D flakes. Here, the authors show tunable, edge-specific nanoparticle decoration using a laser, achieving arrays of silver nanoparticles that are self-limited in size along tungsten diselenide nanoribbon edges.
Nanoscience has progressed tremendously in the exploration of new phenomena not seen in bulk materials, however, the transition between nanoscale and bulk properties is not yet fully understood. Here the authors identify and discuss remaining open questions that call for future efforts.
Biomineralization allows for crystal structure, size, and morphology control over inorganic compounds, but precipitation at random compositions hinders the construction of complex nanostructures. Here, the elemental composition of a gold-titania nanocomposite photocatalyst is controlled through two inorganic precipitating peptides bound to DNA.