Impact of Cavity on Molecular Ionization Spectra

Area of Science:

• Quantum optics
• Molecular physics
• Physical chemistry

Background:

• Molecular ionization is a fundamental process studied for decades.
• Cavity quantum electrodynamics offers new ways to control quantum phenomena.
• The interplay between quantum light and molecular ionization is an emerging research area.

Purpose of the Study:

• To investigate the impact of optical cavities on molecular ionization spectra.
• To explore how cavity effects influence molecular ions, especially those with conical intersections.
• To understand the role of vibrational modes and symmetry in cavity-modified ionization.

Main Methods:

• Theoretical modeling of single-molecule strong coupling within optical cavities.
• Analysis of ionization spectra considering ion-cavity interactions.
• Investigation of dynamical symmetry breaking and its effect on vibrational modes.

Main Results:

• Cavities significantly impact molecular ionization spectra, even when not affecting the neutral ground state.
• Vibrational modes, negligible without a cavity, become decisive in the presence of a cavity.
• Dynamical symmetry breaking mediates ion-cavity coupling, controllable by molecular orientation.
• Cavity effects on the spectrum are more pronounced for less symmetric molecules.

Conclusions:

• Optical cavities provide a powerful tool to control and modify molecular ionization processes.
• The inclusion of vibrational modes and molecular symmetry is essential for understanding cavity effects.
• This work opens avenues for manipulating molecular properties using tailored quantum environments.