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Ultrafast intense laser fields enable precise observation of electronic and nuclear dynamics. This review covers attosecond chronoscopy for probing photoemission and controlling electron motion for molecular bond manipulation.

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Area of Science:

  • Attosecond chemistry and physics
  • Nonlinear light-matter interactions

Background:

  • Ultrafast intense laser fields are crucial for observing and manipulating electronic and nuclear dynamics.
  • Subcycle precision in highly nonlinear light-matter interactions offers access to attosecond chemistry and physics.

Purpose of the Study:

  • Summarize the protocol of attosecond chronoscopy.
  • Review applications in probing attosecond photoemission dynamics.
  • Discuss control schemes for attosecond electron motion and molecular bond dynamics.

Main Methods:

  • Attosecond chronoscopy protocol.
  • Probing attosecond photoemission dynamics.
  • Tailored femtosecond laser fields for electron motion control.

Main Results:

  • Attosecond chronoscopy effectively probes photoemission dynamics in atoms and molecules.
  • Tailored femtosecond laser fields can control attosecond electron motion.
  • Molecular bond formation and cleavage can be manipulated.

Conclusions:

  • Ultrafast laser fields are essential tools for attosecond science.
  • Attosecond chronoscopy provides insights into ultrafast dynamics.
  • Controlled electron motion opens avenues for manipulating molecular processes.