In this contribution, we consider the advancement of ultrafast electron diffraction and microscopy to cover the attosecond time domain. The concept is centered on the compression of femtosecond electron packets to trains of 15-attosecond pulses by the use of the ponderomotive force in synthesized gratings of optical fields. Such attosecond electron pulses are significantly shorter than those achievable with extreme UV light sources near 25 nm ({approx}50 eV) and have the potential for applications in the visualization of ultrafast electron dynamics, especially of atomic structures, clusters of atoms, and some materials
Observation of atomic-scale structural motion in matter with femtosecond temporal resolution is of c...
Pulsed electron beams allow for the direct atomic-scale observation of structures with femtosecond t...
This thesis reports on the development and application of two different but complementary ultrafast ...
In this contribution, we consider the advancement of ultrafast electron diffraction and microscopy t...
Attosecond imaging with electron beams can access optical-field-driven electron dynamics in space an...
Light-driven electronic motion unfolds on times as short as the cycle period of light and on length ...
We consider here the extension of four-dimensional (4D) electron imaging methodology to the attoseco...
Ultrafast electron microscopy (UEM) has been demonstrated as an effective table-top technique for im...
In synthesized gratings of optical fields, free non-relativistic electrons compress to pulses of ~15...
Here, we describe the ‘‘temporal lens’’ concept that can be used for the focus and magnification of ...
Attosecond spectroscopy1–7 can resolve electronic processes directly in time, but a movie-like space...
The development of Ultrafast Electron Microscopy (UEM) and diffraction (UED) permit the imaging of a...
We investigate theoretically the direct imaging of coherent electronic motion in atoms and molecules...
AbstractPump–probe electron diffraction and ultrafast microscopy, based on laser excitation and prob...
Ultrafast measurement technology provides essential contributions to our understanding of the proper...
Observation of atomic-scale structural motion in matter with femtosecond temporal resolution is of c...
Pulsed electron beams allow for the direct atomic-scale observation of structures with femtosecond t...
This thesis reports on the development and application of two different but complementary ultrafast ...
In this contribution, we consider the advancement of ultrafast electron diffraction and microscopy t...
Attosecond imaging with electron beams can access optical-field-driven electron dynamics in space an...
Light-driven electronic motion unfolds on times as short as the cycle period of light and on length ...
We consider here the extension of four-dimensional (4D) electron imaging methodology to the attoseco...
Ultrafast electron microscopy (UEM) has been demonstrated as an effective table-top technique for im...
In synthesized gratings of optical fields, free non-relativistic electrons compress to pulses of ~15...
Here, we describe the ‘‘temporal lens’’ concept that can be used for the focus and magnification of ...
Attosecond spectroscopy1–7 can resolve electronic processes directly in time, but a movie-like space...
The development of Ultrafast Electron Microscopy (UEM) and diffraction (UED) permit the imaging of a...
We investigate theoretically the direct imaging of coherent electronic motion in atoms and molecules...
AbstractPump–probe electron diffraction and ultrafast microscopy, based on laser excitation and prob...
Ultrafast measurement technology provides essential contributions to our understanding of the proper...
Observation of atomic-scale structural motion in matter with femtosecond temporal resolution is of c...
Pulsed electron beams allow for the direct atomic-scale observation of structures with femtosecond t...
This thesis reports on the development and application of two different but complementary ultrafast ...