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Bachelor Course
PHB730
Semester: |
7(PHB7) |
Language: |
German |
Winter: |
4 (2V 2P) |
ETCS: |
5CT |
Semester: |
Winter |
Lecturer: |
Prof. Roths |
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Einführung in die Photonik (Introduction to Photonics)
Technical Physics Bachelor
Educational objectives: Experimental skills in optoelectronics, optical communication technology and the application of optoelectronic metrology. Expertise in data evaluation and the technical discussion of the gained results.
Contents:
- Optical time domain reflectometry (OTDR): Methodology and experimental determination of the attenuation of single mode glass fibers and their splices; spicing techniques for single mode fibers
- Spectral transmission characteristics of single mode fibers: Spectral evaluation with optical spectrum analyzer and discussion of the wavelength dependent attenuation
- Far field of optical fibers: Intensity distribution of single mode and multi mode fibers
- Characteristics of diode lasers: Intensity distribution and beam characteristics, temperature dependency of the laser threshold and laser efficiency
- Characteristics of photodiodes: Circuit types and metrology of photodiodes
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Master Courses
POM101
Semester: |
1 (POM1) |
Language: |
English/German |
Winter: |
6 (3V 2U 1P) |
ETCS: |
6CT |
Semester: |
Summer |
Lecturer: |
Prof. Roths |
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Electrodynamics - Quantum Theory - Photons
Photonics Master
Educational objectives: Detailed experimental skills in optic metrology and data evaluation; application of mathematical and physical knowledge to complex optoelectronic tasks, familiarization in complex theoretical issues going beyond the contents of the lecture and practicing the ability to evaluate, discuss and present experimental results in the group.
Contents:
- Avalanche photodiode and statistics: Measurement of single photons and their temporal distribution at low counting rates in strongly attenuated laser radiation; statistics and linear regression of events with small count rates
- Laser interferometry: Fabry-Perot- and Michelson-interferometric determination of temporal coherence and the spectral linewidth of a LED and semiconductor laser.
- Spectral characteristics of diode lasers: Spectral mode distribution of semiconductor lasers, mode hopes and temperature dependency
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POM216
Semester: |
1 (POM1) |
Language: |
English/German |
Winter: |
4 (3V 1P) |
ETCS: |
6CT |
Semester: |
Winter |
Lecturer: |
Prof. Roths |
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Micro and Fiber Optics
Photonics Master
Educational objectives: The handling of fibers, fiber optic components and devices are practiced in three selected topics. This includes fiber processing skills like splicing or the fabrication of fiber sensors, two fiber sensing techniques and the characteristics of fiber waveguides.
Contents:
- OTDR advanced topics: Theory and methodology of the optical time domain reflectometry (OTDR) and experimental evaluation of attenuation characteristic of different fiber types
- Polarization in fiber waveguides: Measurement, visualization and theoretical description of polarization states (Stokes- and Jones-formalism); Characterization and evaluation of polarization in guided waves in optical fibers
- Spectral response of fiber Bragg gratings: Fabrication of fiber Bragg gratings with different spectral characteristics and comparison to theory
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