Nd:YLF Laser System for the Study of Termolecular Reactions and Metastable Isomers of Polyatomic Molecules,

Abstract

The DURIP grant F49620-97-1-0255 has supported acquisition of a state-of-the-art regeneratively amplified Ti:Sapphire laser system. This laser system is the primary laser for our new multi-particle photoelectron photofragment coincidence spectrometer, and is currently being used to carry out experiments on three-body dissociation dynamics in clusters of oxygen and ozone. These experiments make use of a new particle detector built in our laboratory capable of recording the time and position of arrival of up to eight photofragments in a period of 20-500 ns following a laser pulse. The initial DURIP proposal discussed the purchase of a Nd:YLF psec regenerative amplifier, however, the Ti:Sapphire laser purchased is a much more flexible and powerful laser, producing both psec and fsec pulses with a higher peak power. The initial experiments with this laser will use the fundamental and the 2nd, 3rd amd 4th harmonics. Future applications will include the generation of tunable radiation with an iptical parametric amplifier and ultrafast experiments using 100 fs pulses. We took delivery of the laser December 1, 1997, with initial installation December 12, 1997.

Open PDF

Document Details

Document Type
Technical Report
Publication Date
Dec 31, 1997
Accession Number
ADA341660

Entities

People

  • Robert E. Continetti

Organizations

  • University of California, San Diego

Tags

Communities of Interest

  • Energy and Power Technologies

DTIC Thesaurus Topics

  • Amplifiers
  • Chemical Reactions
  • Chemistry
  • Demographic Cohorts
  • Detectors
  • Dissociation
  • Dynamics
  • Ionization
  • Molecules
  • Parametric Amplifiers
  • Particles
  • Peak Power
  • Photochemical Reactions
  • Photoelectrons
  • Polyatomic Molecules
  • Recombination Reactions
  • Sapphire

Fields of Study

  • Physics

Readers

  • Molecular Photonics/Laser Physics
  • Optical Physics and Photonics.
  • Research Science/Academic Research

Technology Areas

  • Directed Energy
  • Microelectronics