Plasmonic metal-organic frameworks

Plasmonic metal-organic frameworks are composite nanoparticles comprising plasmonic metal nanoparticles (NPs) embedded within a metal-organic framework (MOF) matrix. As a result, not only the functionalities of the individual components are retained, but synergistic effects additionally provide improved chemical and physical properties. Recent progress in plasmonic MOFs has demonstrated the potential for nanofabrication and various nanotechnology applications. Synthetic challenges toward plasmonic MOFs have been recently addressed, resulting in new opportunities toward practical applications, such as surface-enhanced Raman scattering, therapy, and catalysis. The impact of key parameters (thermodynamic vs. kinetic) on the synthetic pathways of plasmonic MOFs is reviewed, while providing insight into related progress toward structure-derived applications.

Automated summary

Plasmonic metal-organic frameworks are composite nanoparticles consisting of plasmonic metal nanoparticles embedded within a metal-organic framework matrix, retaining the functionalities of individual components and providing improved chemical and physical properties through synergistic effects. Recent progress in plasmonic MOFs has demonstrated their potential for various nanotechnology applications, such as surface-enhanced Raman scattering, therapy, and catalysis. Synthetic challenges have been addressed, opening up new opportunities for practical applications and offering insights into the impact of key parameters on synthetic pathways and structure-derived applications.