The advent of visible-infrared laser pulses carrying a substantial fraction of their energy in a
single field oscillation cycle has opened a new era in the experimental investigation of …

Attosecond science capitalizes on the extreme nonlinearity of strong fields—driven by few-
cycle pulses—to attain attosecond temporal resolution and give access to the electron …

The high peak electric fields provided by single-cycle light pulses can be harnessed to
manipulate and control charge motion in solid-state systems, resulting in electron emission …

Surface plasmons, the collective oscillation of electrons, enable the manipulation of optical
fields with unprecedented spatial and time resolutions. They are the workhorse of a large set …

The strong fields associated with few-cycle pulses can drive highly nonlinear phenomena,
allowing the direct control of electrons in condensed matter systems. In this context, by …

The sub-cycle interaction of light and matter is one of the key frontiers of inquiry made
accessible by attosecond science. Here, we show that when light excites a pair of charge …

At high intensities, light–matter interactions are controlled by the electric field of the exciting
light. For instance, when an intense laser pulse interacts with an atomic gas, individual …

Optical-field sampling techniques provide direct access to the electric field of visible and
near-infrared light. The existing methods achieve the necessary bandwidth using highly …

The field of attosecond nanophysics, combining the research areas of attosecond physics
with nanoscale physics, has experienced a considerable rise in recent years, both …

The ultrafast coherent manipulation of electrons using waveform-controlled laser pulses,,,,,,,,
is a key issue in the development of modern electronics,. Developing such an approach for a …