Advances in attosecond science have led to a wealth of important discoveries in atomic,
molecular, and solid-state physics and are progressively directing their footsteps toward …

When an atom or molecule is exposed to a short intense laser pulse, electrons that were
removed at an earlier time may be driven back by the oscillating electric field of the laser to …

Controlling matter with light has always been a great challenge, leading to the ever-
expanding field of photochemistry. In addition, since the first generation of light pulses of …

We carry out a combined theoretical and experimental investigation on the population
distributions in the ground and excited states of tunnel-ionized nitrogen molecules at various …

Collective electron motion in condensed matter typically unfolds on a sub-femtosecond
timescale. The well-defined electric field evolution of intense, phase-stable few-cycle laser …

We report the first experimental observation of nonadiabatic field-free orientation of a
heteronuclear diatomic molecule (CO) induced by an intense two-color (800 and 400 nm) …

We coincidently measure the molecular-frame photoelectron angular distribution and the ion
sum-momentum distribution of single and double ionization of CO molecules by using …

Control over various fragmentation reactions of a series of polyatomic molecules (acetylene,
ethylene, 1, 3-butadiene) by the optical waveform of intense few-cycle laser pulses is …

After sudden ionization of a large molecule, the positive charge can migrate throughout the
system on a sub-femtosecond time scale, purely guided by electronic coherences. The …

With the advent of attosecond light pulses at the beginning of this century, the possibility to
perform real‐time observations of electron motion in molecules has spurred impressive …