All aspects of attosecond technology rely on electron wavepackets formed by ionization and controlled by strong laser fields. When the electron wavepacket is formed by tunnel ionization in linearly polarized light, attosecond electron or optical pulses can be produced, both of which will play significant rolls in attosecond spectroscopy. When the electron wavepacket is formed by an attosecond x-ray pulse, the x-ray pulse can be fully characterized by using a strong laser field. If an atomic, molecular or nuclear dynamic processes form correlated wavepackets, the decay dynamics can be measured with attosecond precision.Peer reviewed: YesNRC publication: Ye
Advances in attosecond science have led to a wealth of important discoveries in atomic, molecular, a...
The observation of any atomic and molecular dynamics requires a probe that has a timescale comparabl...
The combination of an attosecond pulse train with a strong infrared laser constitutes a new paradigm...
Attosecond pulses are opening a wide new field on the border of chemistry and physics. They offer th...
Attosecond technology is a radical departure from all the optical (and collision) technology that pr...
Attosecond pulses allow the study of electrons on their natural timescale. They are created from the...
Since 2001 and the first demonstrations of the feasibility of generating and measuring attosecond li...
The generation of ultrashort pulses is a key to exploring the dynamic behaviour of matter on ever-sh...
We demonstrate that an electron wave packet produced during intense field ionization can be used for...
Abstract: We will review recent experimental progress in the generation and characterization of atto...
Electron motion inmatter occurs on a temporal scale of a few hundreds of attoseconds, a time scale s...
Attosecond science represents a new frontier in atomic, molecular, and condensed matter physics, ena...
Probing and controlling electrons and nuclei in matter at the attosecond timescale became possible w...
Recent attosecond experiments have been based on precise GV/cm electric field synthesis (see e.g.[1]...
When a strong laser field ionizes atoms (or molecules), the electron wave packet that tunnels from t...
Advances in attosecond science have led to a wealth of important discoveries in atomic, molecular, a...
The observation of any atomic and molecular dynamics requires a probe that has a timescale comparabl...
The combination of an attosecond pulse train with a strong infrared laser constitutes a new paradigm...
Attosecond pulses are opening a wide new field on the border of chemistry and physics. They offer th...
Attosecond technology is a radical departure from all the optical (and collision) technology that pr...
Attosecond pulses allow the study of electrons on their natural timescale. They are created from the...
Since 2001 and the first demonstrations of the feasibility of generating and measuring attosecond li...
The generation of ultrashort pulses is a key to exploring the dynamic behaviour of matter on ever-sh...
We demonstrate that an electron wave packet produced during intense field ionization can be used for...
Abstract: We will review recent experimental progress in the generation and characterization of atto...
Electron motion inmatter occurs on a temporal scale of a few hundreds of attoseconds, a time scale s...
Attosecond science represents a new frontier in atomic, molecular, and condensed matter physics, ena...
Probing and controlling electrons and nuclei in matter at the attosecond timescale became possible w...
Recent attosecond experiments have been based on precise GV/cm electric field synthesis (see e.g.[1]...
When a strong laser field ionizes atoms (or molecules), the electron wave packet that tunnels from t...
Advances in attosecond science have led to a wealth of important discoveries in atomic, molecular, a...
The observation of any atomic and molecular dynamics requires a probe that has a timescale comparabl...
The combination of an attosecond pulse train with a strong infrared laser constitutes a new paradigm...