R. Engleman Jr., R.A. Keller, and C.M. Miller
Resonance ionization mass spectrometry (RIMS) is becoming a useful tool for isotopic analysis, especially in cases when isobaric (same-mass) interferences from other elements can perturb results. In RIMS, one or more dye lasers are tuned to match atomic transitions (resonances) of atoms of the element of interest in the sample chamber of a mass spectrometer. This causes stepwise excitation of the atoms through the resonant energy levels to the ionization continuum, resulting in a positive ion and an electron. The positive ion is then mass analyzed by the mass spectrometer.
This article is only available as a PDF.
Publish Date: 01 November 1986
Log in or Become a member to view the full text of this article.
This article may be available for purchase via the search at Optica Publishing Group.
Optica Members get the full text of Optics & Photonics News, plus a variety of other member benefits.
Fiber-optic Sensors for the Chemical Industry
Cosmology: Man's place in the universe
Nondestructive measurement of subsurface structural defects in polished single-crystal silicon
New Designs for Large Telescopes
Thermal Radiometer Cconstructed from Ordinary Office Supplies
Multilayer Mirrors for X-rays and the Extreme UV
Very Large Optics of the Future
Optical Computing at Carnegie-Mellon University
Optical Computing Research at the University of Dayton
Optical Computing Research at Heriot-Watt University
The Role of Optics in Computation
Issues in Optical Computing Research
Approaching the All-Optical Computer
The Optical Computing Process: Revolutionary or Evolutionary?
Binary Optical Computing Architectures
The Optical Margin
Psychological Implications of Parallel Systems
Optical Computing for the Strategic Defense Initiative
Optical Computing: Some Hard Questions
The Future of Fiber Communications: Solitons in an All-Optical System
Nonlinear Optics with a Micrometer-Size Droplet
Recent Developments in GaAs-Based High-Speed Devices
Chromatographic effluent detection with laser ionization mass spectrometry
Neutral ion beam sputter deposition of high-quality optical films
Optical coatings by the sol-gel process
Coatings for lighting applications
Optical coatings: add-ons or star performers?
More on subcommittees
Laser ionization mass spectrometry in supersonic beams
Laser applications to materials and surface analysis
The Kerr effect
Photothermal methods for detection of molecules in liquids
Imaging with laser scanners
Exploratory research in reflectance and fluorescence standards at the National Bureau of Standards
Optics and optical instruments
Tunneling and photoconductivity
Improved calibration standards in laser-Stark spectroscopy
Origin of room-temperature optical nonlinearities in GaAs
A new class of materials for nonlinear optics and nonlinear optical devices
Binary optics: An emerging diffractive optics technology
Squeezed states of light I
Squeezed states of light II
Laser cooling and trapping of atoms
Focused-ion-beam micromachining of optical surfaces
Senior Member Insights: Judith Su
Lighting a Better Path to 3D-Printed Hydrogels
Computer-Generated Phase-Only Holograms for 3D Displays: A MATLAB Approach