Dr. William M. Grossman
Consultant at Independent Technology Works
SPIE Involvement:
Author | Instructor
Publications (4)

SPIE Journal Paper | 13 October 2015
OE, Vol. 54, Issue 10, 106104, (October 2015) https://doi.org/10.1117/12.10.1117/1.OE.54.10.106104
KEYWORDS: Carbon monoxide, Absorption, Neodymium, Gas lasers, Carbon dioxide lasers, Atmospheric sensing, Atmospheric laser remote sensing, YAG lasers, Carbon dioxide

Proceedings Article | 28 February 2006 Paper
Loren Eyres, James Morehead, Jeffrey Gregg, Derek Richard, William Grossman
Proceedings Volume 6100, 61001B (2006) https://doi.org/10.1117/12.661034
KEYWORDS: Pulsed laser operation, Q switching, Q switched lasers, Energy efficiency, Harmonic generation, Laser resonators, Laser stabilization, High power lasers, Nd:YAG lasers, Frequency conversion

Proceedings Article | 12 April 2005 Paper
Proceedings Volume 5713, (2005) https://doi.org/10.1117/12.588710
KEYWORDS: Pulsed laser operation, Ultraviolet radiation, Modulation, Laser processing, Materials processing, Laser stabilization, Solid state lasers, Harmonic generation, Signal detection, Infrared lasers

Proceedings Article | 8 October 2004 Paper
Thomas Kane, Laura Smoliar, Frank Adams, Mark Arbore, David Balsley, Mark Byer, George Conway, William Grossman, Gregory Keaton, Jeffrey Kmetec, Manuel Leonardo, James Morehead, Werner Wiechmann
Proceedings Volume 5662, (2004) https://doi.org/10.1117/12.596377
KEYWORDS: Q switched lasers, Fiber lasers, Pulsed laser operation, Electronics, Semiconductor lasers, Micromachining, Neodymium, Diodes, Neodymium lasers, Fiber amplifiers

Conference Committee Involvement (2)
Solid State Lasers XVII: Technology and Devices
20 January 2008 | San Jose, California, United States
Solid State Lasers XVI: Technology and Devices
22 January 2007 | San Jose, California, United States
Course Instructor
SC1318: Improving Laser Reliability: Examples and Techniques
From science to so-called secret sauces, this course will share some of the tricks, methods, and good practices that go into designing and manufacturing reliable lasers and systems. Lasers are often expensive. Eliminating laser failures, even one laser failure, is a big win. This course examines both optical and non-optical issues that affect reliability. It will emphasize solid-state lasers, frequency-converted lasers, aspects of fiber lasers, and systems that use lasers. It will only cover semiconductor lasers from the perspective of using them as dependable components. Together, we will discuss examples of cases illustrating key failure modes and how to avoid failures throughout the product development cycle. This updated half-day course focuses on practical examples and techniques, not quantitative methods.
SC1174: Improving Laser Reliability: An Introduction
From science to so-called secret sauces, we will share some of the tricks, techniques, and good practices that go into designing and manufacturing reliable lasers and systems. Lasers are often expensive. Eliminating laser failures, even one laser failure, is a big win. This course examines both optical and non-optical issues that affect reliability. We will emphasize solid-state lasers, frequency-converted lasers, aspects of fiber lasers, and systems that use lasers. We will cover semiconductor lasers, mainly from the perspective of using them as components. Our goal is to help you make more reliable lasers and more reliable laser systems. Together, we will discuss many examples illustrating key failure modes and how to avoid failures.
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