Nonlinear optical effects in a nucleus

Abstract

Intense laser technologies generate light with unprecedented and growing intensities. The possibility emerges that a nucleus responds nonlinearly to an intense light field, pointing to a yet little explored research area of nuclear nonlinear optics. We consider two-photon and three-photon absorption (with subsequent disintegration) processes of the deuteron, the simplest and the most fundamental nontrivial nucleus, as prototypes of nuclear nonlinear optical effects. Quantitative calculations are performed on these processes and novel observable effects are predicted.

References in corpus (13)

• An accurate nucleon-nucleon potential with charge-independence breaking
• Dense Electron-Positron Plasmas and Ultra-Intense Bursts of Gamma-Rays from Laser-Irradiated Solids
• Ultra-high brilliance multi-MeV $\gamma$-ray beam from non-linear Thomson scattering
• Coherent Control of the Waveforms of Recoilless Gamma-Photons
• Nuclear quantum optics with x-ray laser pulses
• Vacuum-assisted generation and control of atomic coherences at x-ray energies
• Interferometric phase detection at x-ray energies via Fano resonance control
• Can extreme electromagnetic fields accelerate the $\alpha$ decay of nuclei?
• The nuclear AC-Stark shift in super-intense laser fields
• Alpha decay in intense laser fields: Calculations using realistic nuclear potentials
• Nuclear fission in intense laser fields
• The Aharonov-Bohm effect in mesoscopic Bose-Einstein condensates
• Substantially enhanced deuteron-triton fusion probabilities in intense low-frequency laser fields

Cited by in corpus (3)

• Phase-dependent cross sections of deuteron-triton fusion in dichromatic intense fields with high-frequency limit
• Enhanced proton-boron nuclear fusion cross sections in intense high-frequency laser
• A new scheme for isomer pumping and depletion with high-power lasers