We review recent progress in studies of the nature of hot electrons generated in metal nanoparticles and thin films on oxide supports and their role in heterogeneous catalysis. We show that the creation of hot electrons and their transport across the metal-oxide interface is an inherent component of energy dissipation accompanying catalytic and photocatalytic surface reactions. The intensity of hot electron flow is well correlated with turnover rates of corresponding reactions. We also show that controlling the flow of hot electrons crossing the interface can lead to the control of chemical reaction rates. Finally, we discuss perspectives of hot-electron-mediated surface chemistry that promise the capability to drive catalytic reactions wit...
Energy dissipation at metal surfaces or interfaces between a metal and a dielectric generally result...
Identifying the electronic behavior of metal-oxide interfaces is essential for understanding the ori...
The role of charge transfer at the metal-oxide interface is a long-standing issue in surface chemist...
Conspectus Energy dissipation at surfaces and interfaces is mediated by excitation of elementary pro...
Recent findings on fundamental mechanisms of energy dissipation and conversion occurring on the surf...
© 2021 Elsevier B.V.Fundamental mechanisms for energy conversion and dissipation on surfaces and at ...
A pulse of high kinetic energy electrons can be generated after deposition of external energy to a m...
A pulse of high kinetic energy electrons (1–3 eV) in metals can be generated after surface exposure ...
Hot electrons and surface-plasmon-driven chemistry are amongst the most actively studied research su...
Understanding fundamental mechanisms for surface electronic excitation is of great importance in sur...
Most nanocatalysts are composed of highly dispersed transition metal nanoparticles on oxides. The in...
Fundamental understanding of energy dissipation on surfaces has been important issues for studying r...
The development of catalytic nanodiodes to measure the flow of hot electrons generated at metal–oxid...
Understanding the fundamental mechanisms for charge transfer in supported catalysts is of great impo...
The study of energy and charge transfer during chemical reactions on metals is of great importance f...
Energy dissipation at metal surfaces or interfaces between a metal and a dielectric generally result...
Identifying the electronic behavior of metal-oxide interfaces is essential for understanding the ori...
The role of charge transfer at the metal-oxide interface is a long-standing issue in surface chemist...
Conspectus Energy dissipation at surfaces and interfaces is mediated by excitation of elementary pro...
Recent findings on fundamental mechanisms of energy dissipation and conversion occurring on the surf...
© 2021 Elsevier B.V.Fundamental mechanisms for energy conversion and dissipation on surfaces and at ...
A pulse of high kinetic energy electrons can be generated after deposition of external energy to a m...
A pulse of high kinetic energy electrons (1–3 eV) in metals can be generated after surface exposure ...
Hot electrons and surface-plasmon-driven chemistry are amongst the most actively studied research su...
Understanding fundamental mechanisms for surface electronic excitation is of great importance in sur...
Most nanocatalysts are composed of highly dispersed transition metal nanoparticles on oxides. The in...
Fundamental understanding of energy dissipation on surfaces has been important issues for studying r...
The development of catalytic nanodiodes to measure the flow of hot electrons generated at metal–oxid...
Understanding the fundamental mechanisms for charge transfer in supported catalysts is of great impo...
The study of energy and charge transfer during chemical reactions on metals is of great importance f...
Energy dissipation at metal surfaces or interfaces between a metal and a dielectric generally result...
Identifying the electronic behavior of metal-oxide interfaces is essential for understanding the ori...
The role of charge transfer at the metal-oxide interface is a long-standing issue in surface chemist...