Optoelectronics
Objectives
The course of Optoelectronics intends to give the necessary tools to master students in materials engineering and micro and nanotecnologies engineering on how to select materials for optoelectronics, the form of the design and manufacture of devices and their integration in more complex systems. Will focus, therefore, an approach markedly applied, always attempting to ensure the identification of subjects with real physical systems, so that the average student is able to easily identify possible technological applications.
General characterization
Code
11048
Credits
6.0
Responsible teacher
Luís Miguel Nunes Pereira
Hours
Weekly - 4
Total - 80
Teaching language
Português
Prerequisites
Basic knowledge of Electromagnetism, differential Calculus, semiconductor Materials; Microelectronics.
Bibliography
Recommend biography
- Optoelectronics and Photonics: Principles and Practices,, Safa O. Kasap, Prentice Hall, ISBN-10/13: 0201610876 (Amazon)
- Optoelectronics, Emmanuel Rosencher, Cambridge University Press, ISBN 978-0-521-77129-0/8 (Amazon)
- Nanophotonics, Paras N. Prasad, Wiley-Interscience (2004): http://www.filesonic.com/file/1256850894/sharebookfree.com_477405934.rar
Teaching method
Teaching discipline breaks down by theoretical and practical classes and laboratory sessions. In addition, there is tutorial teaching, provided accompaniment of students, subject to assessment, by oral discussion.
Evaluation method
- 1st test - week 7
- 2nd test - week 15
- 3 topics for discussion in forum (to be held in group)
- Delivery 15 after the last class
- Commented ppt or video + report (data treatment)
- 1st questionnaire - week 10
- 2nd questionnaire - week 15
Frequency
- approval in the practical component (average> 9.5V)
Final score
- Average score of the tests or exam > 9.5V
- 50% theoretical component (or exam score) + 50% practical component
Subject matter
T
Importance and historical background of optoelectronics
Fundamental concepts and laws on optics and optoelectronics
Optical noise. Fotodetectors I
Fotodetectors II
Pn junction: application to LEDs and Lasers
Optical fibers and waveguides
Communication with optical fibers
Plasmonics. Metamaterials
Photonic crystals
Biophotonics (microscopy and applications)
P
Problems about fundamental concepts and laws on optics and optoelectronics
Problems about photodiodes
Lab – Characterization of a-Si and c-Si photodiodes
Problems about LEDs
Lab – Characterization of commercial inorganic LEDs
Lab – Production of an OLEDs
Problems about photodetectors lasers
Problems about optical fibers and waveguides
Lab – Optical fibers: dispersion, TIR and modes
Lab – Plasmonics (production and characterization of Ag nanoparticles)
Lab – Confocal and fluorescence microscopy
Programs
Programs where the course is taught: