Laser Induced Damage in Optical Materials, 1984Harold Earl Bennett, Brian E. Newnam, Arthur Henry Guenther, David Milam ASTM International, 1986 - 432 pages |
What people are saying - Write a review
We haven't found any reviews in the usual places.
Contents
Glass Laser System with Liquid Crystal Polarizers | 15 |
Nonlinear Rotatory Power of 90 Twisted Nematic Liquid Crystals | 23 |
Picosecond Damage in Y Stabilized Cubic Zirconia | 31 |
CRGSGG Crystal | 39 |
Laser Damage Studies of Several Methacrylate Polymeric Materials | 49 |
Leed Analysis of Pulsed Laser Damage to Mo 100 Surfaces | 59 |
The Effect of Defects on the Laser Damage Performance of Metal Mirror Surfaces | 66 |
Application of a ComputerAutomated IR Sensitive Camera to the Determination | 77 |
Pulse Duration Dependence of 1064nm Laser Damage Thresholds of Porous Silica Antireflection Coatings on Fused Silica Substrates | 211 |
Variation of Transmittance Spectra of Porous Antireflection Coatings with Index Profile | 217 |
Characterization of Aluminum NitrideAluminum Oxide Reactively Sputtered | 233 |
Crystallization of Titania Films by Thermal Heating | 253 |
Time Resolved Raman Studies of Laser Induced Damage in TiO2 Optical Coatings | 262 |
Ultraviolet Thin Film Coating Characterization | 272 |
Effect of Overcoats on 355nm Reflectors | 285 |
Thermal Properties of Optical Thin Film Materials | 291 |
HighPrecision DamageResistant MultiplePass Ultraviolet Reflectometer | 85 |
A Low Loss High Power Variable Laser Attenuator | 93 |
Studies of CO2 Laser Induced Damage to Infrared Optical Materials and Coatings | 100 |
Surface Potential as a Laser Damage Diagnostic | 116 |
Laser Generated Ripple Patterns on Dielectrics and Intermediate Band Gap Semiconductors | 137 |
Surface Damage Mechanisms in Nontransparent Media | 147 |
PicosecondPulse Damage Studies of Diffraction Gratings | 154 |
Assessment of Optical Coatings Prepared by Molecular Beam Techniques | 162 |
Some Recent Observations on the Properties of UHVDeposited ZrO2 | 171 |
Oxygen Threshold for IonBeam Sputter Deposited Oxide Coatings | 180 |
Tomorrows Coatings Today They Need Help | 187 |
High Damage Threshold Porous Silica Antireflective Coating | 205 |
Interface and Bulk Absorption of Oxide Layers and Correlation to Damage Threshold | 298 |
Effect of Anistropic Stress on Thin Film Damage Thresholds | 313 |
Design of High Power Laser Coatings for Grazing Incidence Mirrors | 322 |
The Design of Optimum High Reflectivity Coatings | 330 |
Angular Dependence of MultilayerReflector Damage Threshold | 342 |
Survey of Laser Damage Thresholds for High Reflector Films at 1 315 Microns | 352 |
Single Pulse Laser Induced Damage in IR Coatings at 10 6 um | 371 |
Light Stripping of UV Dielectric Coatings | 377 |
SelfFocusing in Damage Experiments Revisited | 394 |
TwoPhoton Absorption Nonlinear Refraction and Optical Limiting in Semiconductors | 404 |
List of Attendees | 424 |
Common terms and phrases
absorption addition angle Appl applied average beam bulk calculated Center charge coatings compared crystal curve damage threshold defects density dependence deposition described determined diameter dielectric discussed effect electric electron energy experimental experiments field Figure fluence function fused gratings heat higher incident increase indicated initial intensity interface irradiated Laboratory laser damage laser induced layer light limited liquid lower materials measured mechanism method mirror multilayer observed obtained occurs optical oxide peak performed phase Phys Physics polarization potential present probe produced properties pulse range reference reflectance reflectors refractive region reported Research resistance ripple sample scanning scatter shown in figure shows silica silicon single spatial spectra sputtering structure substrate surface Table technique temperature thermal thickness thin film transmission transmittance values wave wavelength