Upcoming and planned experiments combining increasingly intense lasers and energetic
particle beams will access new regimes of nonlinear, relativistic, quantum effects. This …

The ability to manipulate and observe phenomena on attosecond timescales has yielded
groundbreaking insights into electron dynamics and the behaviour of matter exposed to …

The physics of intense laser–matter interactions, is described by treating the light pulses
classically, anticipating no need to access optical measurements beyond the classical limit …

In strong-field physics and attosecond science, intense light induces ultrafast electron
dynamics. Such ultrafast dynamics of electrons in matter is at the core of phenomena such …

Intense laser-matter interactions are at the center of interest in research and technology
since the development of high-power lasers. They have been widely used for fundamental …

Strong–laser–field physics is a research direction that relies on the use of high-power lasers
and has led to fascinating achievements ranging from relativistic particle acceleration to …

Photoelectron holography constitutes a powerful tool for the ultrafast imaging of matter, as it
combines high electron currents with subfemtosecond resolution, and gives information …

Topological materials are of interest to both fundamental science and advanced
technologies because topological states are robust with respect to perturbations and …

Squeezed optical fields are a powerful resource for a variety of investigations in basic
research and technology. However, the generation of intense squeezed light is challenging …

Recently, intensely driven laser-matter interactions have been used to connect the fields of
strong laser field physics with quantum optics by generating nonclassical states of light …