OPTICS FOR ALL AGES
|
2 |
Optics demonstrations with an overhead projector Douglas S. Goodman |
20 |
The diffractionator Jack D. Gaskill, Craig H. Curtis |
28 |
Demonstration of the evolution of spectral resolving power as a superposition of higher order delayed beams Chandrasekhar Roychoudhuri, Tariq Manzur |
45 |
Set of instrumentation and methodological instructions for practical work in optics Victor V. Dyomin, Igor G. Polovtsev |
56 |
Application of portable optical laboratory in high schools and colleges Gregory B. Altshuler, Nickolai R. Belashenkov, Vladimir S. Ermolaev, Mickle V. Inochkin, Vyatcheslav B. Karasev |
61 |
North slope missile testing range: a role playing approach to photoinstrumentation education Andrew Davidhazy |
65 |
For the safe use of lasers in educational institutions: elementary through university Fredrick P. Seeber |
OPTICS EDUCATION FOR UNDERGRADUATES
|
76 |
Fiber optic communications experiments for undergraduates Brian Culshaw, Walter Johnstone, George Stewart, Douglas Walsh |
87 |
Liquid crystal television (LCTV) as an optics education tool Michael K. Giles, Narasimha S. Prasad, Sean M. Doyle |
94 |
Moire analogies as an educational tool Nils H. Abramson |
106 |
Experiment on pattern recognition for the undergraduate laboratory using overhead transparencies Ramendra D. Bahuguna, Panfilo C. Deguzman |
110 |
Computer-generated hologram optical elements in basic optics course Alexander I. Fishman, A. A. Gorodetsky |
117 |
Teaching of optical diffraction methods in biomedicine to undergraduates specializing in optics Sergey S. Ulyanov, Valery V. Tuchin, Sergey Y. Kuzmin, Andrey A. Bednov |
123 |
Undergraduate optical engineering at the University of Arizona Jack D. Gaskill, James M. Palmer, Michael J. Nofziger |
128 |
Integrated undergraduate optical engineering education at West Point Daniel M. Litynski, Andre H. Sayles, Barry L. Shoop, Bradford C. Tousley |
136 |
Model undergraduate integrated optics laboratory Biswajit Das, Lawrence A. Hornak, Michael D. Lemmon |
148 |
Van Cittert-Zernike theorem for introductory optics course using the concept of fringe visibility Chandrasekhar Roychoudhuri, Kevin R. Lefebvre |
PRE-COLLEGE OPTICS EDUCATION
|
161 |
Optics education at Eastern Michigan University using a 30-GW high-power laser system Zhouling Wu, S. T. Gu |
168 |
Great ideas for teaching optics Stephen M. Pompea, Larry M. Stepp |
173 |
Holography in the high school laboratory Uwe J. Hansen, John A. Swez |
182 |
Polarization puzzles for the upper elementary grades Meera Chandrasekhar, David L. Rainwater, Rebecca Q. Litherland, Rodney A. Swope, Ann VanNest |
193 |
Elementary laser optics? Yes! Christina Wilder |
198 |
Laser applications in science education (LASE) games Robert Zafran |
202 |
Laser applications in secondary education (LASE) project at Santa Teresa High School James D. Sagray |
213 |
Optics curriculum for middle school students Michael J. Nofziger |
225 |
Practice projects in optics for high school students of the Kolmogorov School of Moscow State University Valentin I. Lobyshev, A. A. Golubkov |
230 |
Laser experiments for the secondary school classroom Gareth T. Williams |
247 |
Resources for optics in middle school education Stephen M. Pompea, Michael J. Nofziger |
252 |
Talking over a beam of light: electro-optics suitable for K-12 Michael J. Nofziger |
260 |
Experiments in optics for younger students by and for older students James V. Masi |
LABORATORIES FOR OPTICS EDUCATION
|
266 |
Project-oriented laboratory courses in optics education Charles Joenathan, Robert M. Bunch, Azad Siahmakoun |
272 |
Stimulating student interest in optics via a versatile optics demonstration laboratory Stephen H. Cobb, Louis M. Beyer, John T. Tarvin |
278 |
Take-home laboratory for a course in radiometry James M. Palmer |
289 |
Using computer-assisted demonstrations of optical phenomena in an undergraduate optics course John T. Tarvin, Stephen H. Cobb, Louis M. Beyer |
293 |
Developing an integrated optics laboratory at minimum cost Jerome F. Wagner |
303 |
Concept of modern optical training labs for optical engineering students Sergey C. Stafeev, Yuri L. Kolesnikov, Alexander V. Smirmov |
309 |
Getting students to see the light Joe H. Schuch, Zhouling Wu |
OPTICS EDUCATION: AN INTERNATIONAL PERSPECTIVE
|
318 |
Teaching of optics in the optics age A. S. Parasnis |
331 |
Optical education for application in science and industry at a technical university: combination of laser physics and technology, electronics engineering and computer sciences Sergei M. Arakelian, Vitalii N. Orlov, Valerii G. Prokoshev, L. T. Sushkova |
346 |
Role of vision in the optics learning process Marta Pesa, Elisa M. Colombo, Leonor C. de Cudmani |
357 |
Teaching applied optics at the Univ. of Minho Manuel F. Costa |
362 |
Engineering and physical education in optics at Kiev National University (Ukraine) on the way of switch over to three-step training Igor A. Shaikevich |
365 |
Optical education peculiarity for various specialities in natural sciences Leonid V. Poperenko |
GRADUATE EDUCATION CURRICULUM DEVELOPMENT FOR OPTICS
|
370 |
New practical MS/MSE degree program with concentration in optics and photonics technology John O. Dimmock, Anees Ahmad, Stephen T. Kowel |
379 |
Doctoral program in optical science and engineering at the University of Alabama in Huntsville Stephen T. Kowel |
385 |
Embedded method of optoelectronics education in electrical engineering curriculums Alexander D. Poularikas |
391 |
Computer-assisted optics teaching at the Moscow Institute of Physics and Technology Natalia N. Soboleva, Stanislav M. Kozel, Gennady R. Lockshin, M. A. Entin, K. V. Galichsky, P. L. Lebedinsky, P. M. Zhdanovich |
403 |
Optics study and research by computer-aided training Mihaela A. Ghelmez, Sigward Nilsson, Goeran Karlsson |
407 |
Windows software for enhanced studying and testing knowledge in optics Sergey C. Stafeev, Vladimir J. Michnovetz, Alexander T. Khmaladze, Alexander A. Zinchik |
414 |
Bifrequency pendulum on a rotary platform to teach optical birefringence and liquid crystalline displays M. J. Soileau, Boris Y. Zeldovich |
422 |
Demonstration of complex dynamics of light interaction with liquid crystals for educational purposes Patrick LiKamWa, M. J. Soileau, Nelson V. Tabiryan, Cesare Umeton, Boris Y. Zeldovich |
427 |
Practical works in the speckle optics for the subspecialties: physics of laser measurements and biomedical optics Sergey S. Ulyanov, Sergey Y. Kuzmin, Andrey A. Bednov, Valery V. Tuchin |
433 |
Real-time holography David A. Johnson, David E. Parker, Mark L. Lott |
441 |
Studying chaos in carbon-dioxide lasers in a graduate level optical laboratory Emmanuil M. Rabinovich, Jacek M. Kowalski, Chris L. Littler |
452 |
Concept of coherence of learning physical optics Elisa M. Colombo, Mirta Jaen, Leonor C. de Cudmani |
459 |
Experience in teaching the laser interferometry course in Moscow Power Engineering Institute Bronius S. Rinkevichius, Alexander Y. Karasik, V. A. Zubov |
468 |
Alternate way to teach Fourier optics Henri H. Arsenault |
473 |
Maxwell's equations with optical fibers in mind Tevry Freeman |
483 |
Optical education of mathematical students at M. V. Lomonosov Moscow Sate University Valerii P. Kandidov, Nikolai I. Koroteev, Vladimir A. Makarov |
489 |
Optics education at the Center for Research and Education in Optics and Lasers (CREOL) M. G. Moharam, M. J. Soileau |
497 |
Optics education for now and future from an entropy perspective Shoang C. Donn |
508 |
Student as an investigator: simulation on optic synergetics Boris N. Poizner, Alexey I. Arshinov, Renat R. Mudarisov, Natalyia A. Starova |
515 |
Ten years experience in continuing biomedical optics education at Saratov State University Valery V. Tuchin, Alexander B. Pravdin |
ASSOCIATE AND TECHNICIAN EDUCATION IN OPTICS
|
526 |
Comprehensive approach to photonics education for technicians, engineers, and scientists in 4+2+2 programs Leno S. Pedrotti, Nicholas J. Massa, Eric P. Soulsby, John Enderle, Chandrasekhar Roychoudhuri |
538 |
National photonics skills standards for technicians Darrell M. Hull |
545 |
Optics education for machine operators in the semiconductor industry: moving beyond button pushing Meg Karakekes, Deborah Currier |
553 |
How to manage continuing education and retraining programs on optical physics and laser technology at a university: Moscow State experience Victor N. Zadkov, Nikolai I. Koroteev |
OPTICS EDUCATION FOR INTERDISCIPLINARY APPLICATIONS
|
566 |
Course on the simulation of optical components and systems Donald C. O'Shea |
573 |
Image processing in applied optics educational programs Robert M. Bunch |
580 |
Problems of optical education for interdisciplinary applications: teaching biomedical optics to physics and medical students Alexander V. Priezzhev, Nikolai N. Firsov |
585 |
Computer training program on Fourier spectroscopy Lidia A. Luizova, Marina E. Bagenova |
593 |
Educational software simulation for fiber optic dispersion Gustavo A. Medina Arredondo, Mario A. Yepes Cifuentes, Samuel A. Jaramillo Florez |
597 |
Software stereovision for optic laboratory Diego A. Henao |
608 |
Pioneering a learning partnership: the University of Texas, SPIE, and the federal government together extend a hand to semiconductor manufacturers Meg Karakekes, Ray T. Chen |
618 |
Teaching of physical-technical fundamentals for laser applications Vadim P. Veiko |
628 |
Shedding light on the subject: introduction to illumination engineering and design for multidiscipline engineering students Ram S. Ronen, R. Frank Smith |
635 |
Fundamentals and curriculum of education on optical and laser metrology Vladimir P. Ryabukho, Valery V. Tuchin |
641 |
Alternative fiber optic conductor for laboratory practices Juan F. Calderon Ocampo, Samuel A. Jaramillo Florez, Juan C. Amaya Rodriguez |
OPTICS EDUCATION IN INDUSTRY
|
652 |
Education in optics in Canon Kazuo Tanaka |
657 |
Hughes Danbury technology transfer program Alfonse G. Antonelli |
664 |
National Alliance for Photonics Education in Manufacturing: training in the application of photonics to enhance national manufacturing Susan A. Anderson, Janice M. Gaines Walker |
INVITED PAPERS FROM 1993
|
678 |
Diffraction and Fourier optics: the mathematics required Anna Consortini |
689 |
Teaching Fourier optics for engineers Joseph Shamir |