Sustainable hydrogen, produced from renewable sources such as solar or wind, plays a
decisive role in driving industrial decarbonization. Among hydrogen production …

Light–matter interactions are usually described within the electric-dipole approximation,
where the magnetic-field component and the spatial variation of the light electric field over …

The field of angle-resolved molecular photoelectron spectroscopy is reviewed, with
emphasis on foundations and most recent applications in different regimes of light–matter …

We experimentally and theoretically investigate the influence of the magnetic component of
an electromagnetic field on high-order above-threshold ionization of xenon atoms driven by …

The photoelectric effect describes the ejection of an electron upon absorption of one or
several photons. The kinetic energy of this electron is determined by the photon energy …

The influence of the magnetic component of the driving electromagnetic field is often
neglected when investigating light-matter interaction. We show that the magnetic component …

We theoretically investigate nondipole effects in the reconstruction of attosecond beating by
interference of two-photon transitions (RABBIT) of helium using linearly polarized extreme …

Using the strong-field-approximation theory beyond the dipole approximation we investigate
above-threshold ionization induced by the monochromatic and bichromatic laser fields …

We consider atomic strong-field ionization in the long-pulse limit for linearly polarized
infrared laser fields. We show how nondipole effects in the plane formed by the propagation …

In the theory of multiphoton ionization, the effects of relativity and spatial dependence in the
laser field are typically neglected for the sake of computational feasibility, as well as being …