Spatial resolution at the atomic scale has been achieved in the coupling of light to single
molecules adsorbed on a surface. Electron transfer to a single molecule induced by green to …

Tunneling electrons from a low-temperature (5 kelvin) scanning tunneling microscope were
used to control, through resonant electronic excitation, the molecular dynamics of an …

The tip-surface region of a scanning tunneling microscope (STM) emits light when the
energy of the tunneling electrons is sufficient to excite luminescent processes. These …

Tunneling electrons from the tip of a scanning tunneling microscope were used to induce
and monitor the reversible rotation of single molecules of molecular oxygen among three …

The junction of a scanning tunneling microscope (STM) operating in the tunneling regime
was irradiated with femtosecond laser pulses. A photoexcited hot electron in the STM tip …

Unification of the techniques of ultrafast science and scanning tunneling microscopy (STM)
has the potential of tracking electronic motion in molecules simultaneously in real space and …

Using the tip of a scanning tunnelling microscope (STM) to mechanically manipulate
individual atoms and molecules on a surface is now a well established procedure,. Similarly …

The arrangement of atoms and bonds in a molecule influences its physical and chemical
properties. The scanning tunneling microscope can provide electronic and vibrational …

The ability to probe individual atoms and molecules have made it possible to reveal
properties which otherwise would be hidden in the study of an ensemble of atoms and …

Light–matter interaction drives many systems, such as optoelectronic devices like light-
emitting diodes and solar cells, biological structures like photosystem II and potential future …