Download CS - Classes

Survey
yes no Was this document useful for you?
   Thank you for your participation!

* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project

Document related concepts

Optical rogue waves wikipedia , lookup

Optical aberration wikipedia , lookup

Laser beam profiler wikipedia , lookup

Magnetic circular dichroism wikipedia , lookup

Ellipsometry wikipedia , lookup

Nonimaging optics wikipedia , lookup

Photon scanning microscopy wikipedia , lookup

Super-resolution microscopy wikipedia , lookup

Retroreflector wikipedia , lookup

Fiber-optic communication wikipedia , lookup

Optical coherence tomography wikipedia , lookup

Interferometry wikipedia , lookup

Nonlinear optics wikipedia , lookup

Silicon photonics wikipedia , lookup

Confocal microscopy wikipedia , lookup

Laser wikipedia , lookup

Optical amplifier wikipedia , lookup

Photonic laser thruster wikipedia , lookup

Optical tweezers wikipedia , lookup

Ultrafast laser spectroscopy wikipedia , lookup

3D optical data storage wikipedia , lookup

Harold Hopkins (physicist) wikipedia , lookup

Laser pumping wikipedia , lookup

Mode-locking wikipedia , lookup

Transcript
ECE 482/582 – Optical Electronic Systems
Catalog Description: Photodetectors, laser theory, and laser systems. (Cross-listed as PH 482/582)
Credits: 4
Terms Offered: Fall
Prerequisites: ECE 391 or PH 481 or equivalent – some basic optics and plane wave theory is
useful but PH 211-213 could suffice.
Courses that require this as a prerequisite: ECE 592
Structure: Three 50-minute lectures plus one 3-hour lab per week
Instructors: T. Plant (primary), A. Weisshaar (secondary)
Course Content:
 Safety issues of laser radiation and optoelectronic systems: eyes, shocks, burns
 Photodetectors: PMT, photoconductor, PIN photodiode, phototransistor, APD
 Overview of lasers: history, current and future markets, stimulated emission, modes –
transverse and longitudinal, gain profile
 Physics of laser gain, gain equation
 Gaussian beam propagation and optical cavities
 Transient effects – gain saturation, rate equations, Q-switching, mode-locking
 Common commercial laser systems: physics, technology, and performance
 Laboratory experiments: safety and photodetectors (CdS photoconductor, Si PIN photodiode, Si
phototransistor); transverse modes and alignment of He-Ne laser; Gaussian beams; lineshapes
and use of monochrometer and lock-in amplifier; Fabry-Perot scanning interferometer and HeNe laser longitudinal modes; semiconductor diode lasers and LEDs; team design project:
design, fabrication, demonstration, and reporting
Measurable Student Learning Outcomes:
At the completion of the course, students will be able to…
1. Analyze and design PIN photodetector circuits (ABET outcomes: A, C, E, m)
2. Analyze and design laser optical cavities to meet output beam specifications (ABET outcomes:
A, C, E, m)
3. Analyze and design optical electronic systems (ABET outcomes: A, C, E, m)
4. Design, fabricate, test, and document a team optical electronic project (ABET outcomes: A,
B, C, d, E, G, K, o)
5. Read and summarize current technical journal papers in optical electronics (ABET outcomes:
a, G, i, j, O, Q)
Learning Resources:
 Kuhn, Kelin J., Laser Engineering, Prentice-Hall, Inc., 1998
 [Yariv, A and Yeh, P., Photonics: Optical Electronics in Modern Communications, 6th Edn,
Oxford, 2007.]
 [Saleh, B.E.A. and Teich, M.C., Fundamentals of Photonics, 2nd Edn, Wiley-Interscience, 2007
Extra Requirements for ECE/PH 582 graduate credit students:
Graduate students will be required to research and present orally in class a topic of current research
activity in this field. They will also be given supplemental homework problems at times.