CLEO/QELS is presented by:
Short Courses
SC136 Understanding Lasers and Critical Optical Components
Sunday, May 4, 9:00 a.m. - 5:30 p.m. Shaoul Ezekiel; MIT, USA
Level: Beginner (no background or minimal training is necessary to understand course material)
Course Description Lasers today are essential in scientific research and in the development of many novel high tech products and systems. They are used in ultra-broadband communication, ultra-dense data storage, a variety of unique sensors, medical diagnostics and surgery, smart structures, smart weapons and many more. We will address what makes lasers unique, effective and revolutionary for many areas.
In this course, the fundamentals that govern the behavior of lasers will be explained using simple language so they may be easily understood without a strong technical background. The topics covered will include the unique properties of lasers and how such properties come about, how a simple laser works, some of the problems with lasers and how to eliminate them, types of available lasers and how they work, how light interacts with matter to create novel applications, and techniques for the manipulation of laser light as needed in photonic systems. The course ends with a discussion of some challenging laser applications, as well as an introduction to future predictions.
Benefits and Learning Objectives This course should enable you to:
Intended Audience This course is intended for all those who want to understand what lasers are all about without relying on mathematical treatment. It is suitable for engineers, scientists, educators, managers, business executives, doctors, medical personnel and others who are using, developing, or marketing laser systems, or those who wish to learn what role lasers can play in their fields.
Instructor Biography Shaoul Ezekiel is professor of aeronautics and astronautics, and electrical engineering at MIT. His research interests include atom-field interaction, high resolution laser spectroscopy, optical frequency/wavelength/time standards, laser frequency stabilization, and sensors, such as those that measure inertial rotation (gyroscopes), high magnetic fields, precision voltages and currents, and various molecular species. His unique teaching style is "fat free" and highly interactive.