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Einrichtungen >> Technische Fakultät (TF) >> Verwaltung und Serviceeinrichtungen Technische Fakultät >> MAOT - Master Programme in Advanced Optical Technologies (Elitestudiengang) >>
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Geschäftsstelle MAOT
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Advanced Course in Experimental Physics (Lasers, Atomic Physics and Quantum Optics) [EV-A] -
- Dozent/in:
- Joachim von Zanthier
- Angaben:
- Vorlesung, 4 SWS, ECTS: 10
- Termine:
- Do, 12:00 - 14:00, HH
Mo, 16:00 - 18:00, HE
- Studienrichtungen / Studienfächer:
- WPF Ph-MA ab 1
- Inhalt:
- Starting from the lectures EP3 (Optics and Quantum Phenomena) and EP4 (Atomic and Molecular Physics) the lecture discusses light-matter interaction in different systems as well as the quantum nature of light. Emphasis is put onto the laser. Starting from the theory of optical resonators and Gaussian beams we review the generation of laser light on a microscopic level (Maxwell-Bloch equations) and examine its principal characteristics. Various applications of laser light in quantum optics, laser spectroscopy, laser cooling and trapping of atoms and in non-linear optics are investigated. In addition we review various quantum optical phenomena like photon statistics, photon bunching/anti-bunching, multi-photon interferences, intensity interferometers and resonance fluorescence.
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Advanced Optical Communication Systems [AOC] -
- Dozent/in:
- Bernhard Schmauss
- Angaben:
- Vorlesung, 2 SWS, benoteter Schein, ECTS: 5, nur Fachstudium
- Termine:
- Mi, 12:15 - 13:45, HF-Technik: SR 05.222
- Studienrichtungen / Studienfächer:
- WPF AOT-GL 2-3
WPF CME-MA 1-4
WF ASC-MA 1-4
WPF CE-MA-TA-PO ab 1
- Voraussetzungen / Organisatorisches:
- Please register in StudOn „LHFT - Advanced Optical Communication Systems" .
Prerequisites:
- Inhalt:
- Multiplex Techniques: electrical / optical time division multiplexing, wavelength division multiplexing
Dispersion Management: dispersion and bitrate, dispersion compensation, dispersion in WDM systems Noise and Power Management: power budget, OSNR management, OSNR calculation Management of Nonlinearities: self & cross phase modulation (SPM / XPM), four wave mixing (FWM), Raman scattering, solitons Spectral Efficiency: definition, increase of spectral efficiency Modulation Formats:intensity modulation, multilevel transmission, CS-RZ, SSB Transmission, DPSK, DQPSK, Coherent Transmission Optical Regeneration: 2R-Regeneration by nonlinearities, distributed regeneration, 3R-Regeneration
- Empfohlene Literatur:
- Agrawal, G.P.: Fiber-Optic Communication Systems, John Wiley & Sons, 1997
Agrawal, G.P.: Nonlinear Fiber Optics, John Wiley & Sons, 3. Auflage, 2001.
Kaminow, I, Koch, T.: Optical Fiber Telecommunications IVA, Academic Press, 2002.
Kaminow, I, Li, T., Willner,A.: Optical Fiber Telecommunications VA, Academic Press, 2008.
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Advanced Programming Techniques [AdvPT] -
- Dozent/in:
- Harald Köstler
- Angaben:
- Vorlesung mit Übung, 4 SWS, benoteter Schein, ECTS: 5, nur Fachstudium, Zu diesem Modul gehört eine Übung im Umfang von 2,5 ECTS, die in den Wahlvertiefungsbereich B8 eingebracht werden kann.
- Termine:
- Do, 16:15 - 17:45, Raum n.V.
Fr, 10:15 - 11:45, H14
Die VL am Do findet online statt, erste VL am 22.10.21
- Studienrichtungen / Studienfächer:
- WF MT-MA ab 1
WF CE-MA-INF ab 1
WF CE-BA-TW ab 5
WPF INF-MA ab 1
WF INF-BA ab 5
WF IuK-BA ab 3
PF MT-BA-BV ab 5
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Advanced Semiconductor Technologies - Photovoltaic Systems for Power Generation - Design Implementation and Characterization [AST-PVS-Design] -
- Dozentinnen/Dozenten:
- Christoph J. Brabec, Jens Hauch
- Angaben:
- Vorlesung mit Übung, 2 SWS, benoteter Schein, ECTS: 3, nur Fachstudium, In Ausnahmefällen als ZOOM- Meeting. Anmeldung im StudOn wird empfohlen / In exceptional cases as a ZOOM meeting. Registration in StudOn is recommended. Allgemeine Vorbesprechung zum Studium am MEET am 18.10.21 um 9 Uhr, ZOOM: https://fau.zoom.us/j/66397932198?pwd=TCt5Unlack5BVTFUckpUelBQeDgyUT09 Meeting-ID: 663 9793 2198 Kenncode: 022307
- Termine:
- Mi, 9:15 - 10:45, 3.71
Wenn online, dann Videos im StudOn / If ZOOM meeting, then videos in StudOn, Preliminary meeting: 18.10.2021, 9:00 - 10:00, Zoom meeting
ab 27.10.2021
Vorbesprechung: Mittwoch, 20.10.2021, 10:15 - 11:00 Uhr, 3.71
- Studienrichtungen / Studienfächer:
- WF ET-MA-MWT ab 1
WF MWT-MA-WET ab 1
WF MWT-MA-MEET 1
WF NT-MA-WET ab 1
WF NT-MA-MEET ab 1
WF ET-MA-MWT ab 2
WF AOT-GL ab 1
WPF CEP-MA ab 1
WPF DS-MA ab 1
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Seminar and Conference Participation on Solar Energy [Sem&Conf_SE] -
- Dozentinnen/Dozenten:
- Jens Hauch, Ning Li, Christoph J. Brabec
- Angaben:
- Seminar, 2 SWS, Schein, ECTS: 2, nur Fachstudium, Anmeldung im StudOn wird empholen, Vorbesprechung im Rahmen der allgemeinen Vorbesprechung zum Studium am i-MEET, am 18.10.21 um 9 Uhr
- Termine:
- Einzeltermin am 25.2.2022, 14:15 - 16:45, 3.71
Zeit n.V., additional - ZOOM -Videos im StudOn
Vorbesprechung: Montag, 18.10.2021, 9:00 - 10:00 Uhr
- Studienrichtungen / Studienfächer:
- WF MWT-MA ab 1
WF MWT-MA-MEET 1
WF NT-MA 1
WF NT-MA-MEET 1
WF ET-MA ab 1
- Schlagwörter:
- Advanced Semiconductor Technology, Solar Energy Seminar
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Advanced theoretical physics: Advanced quantum mechanics (Exercise class) [TV-AU] -
- Dozentinnen/Dozenten:
- Hanno Sahlmann, Tutoren
- Angaben:
- Übung, 3 SWS, nur Fachstudium
- Termine:
- Do, 13:00 - 16:00, SR 01.779
Do, 14:00 - 17:00, SR 02.729
Do, 16:00 - 19:00, SR 02.779
Do, 13:00 - 19:00, HB
Einzeltermin am 5.11.2021, 15:30 - 18:30, SR 00.732
- Studienrichtungen / Studienfächer:
- WPF Ph-MA ab 1
WF PhM-MA ab 1
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Deep Learning [DL] -
- Dozent/in:
- Andreas Maier
- Angaben:
- Vorlesung, 2 SWS, ECTS: 2,5, nur Fachstudium, Information regarding the online teaching will be added to the studon course
- Termine:
- Fr, 8:15 - 9:45, H7
- Studienrichtungen / Studienfächer:
- WPF ME-BA-MG6 4-6
WPF INF-MA ab 1
WPF MT-MA-BDV 1
WPF ME-MA-MG6 4-6
- Voraussetzungen / Organisatorisches:
- The following lectures are recommended:
Application via https://www.studon.fau.de/crs3888652.html
- Inhalt:
- Deep Learning (DL) has attracted much interest in a wide range of applications such as image recognition, speech recognition and artificial intelligence, both from academia and industry.
This lecture introduces the core elements of neural networks and deep learning, it comprises:
(multilayer) perceptron, backpropagation, fully connected neural networks loss functions and optimization strategies convolutional neural networks (CNNs) activation functions regularization strategies common practices for training and evaluating neural networks visualization of networks and results common architectures, such as LeNet, Alexnet, VGG, GoogleNet recurrent neural networks (RNN, TBPTT, LSTM, GRU) deep reinforcement learning unsupervised learning (autoencoder, RBM, DBM, VAE) generative adversarial networks (GANs) weakly supervised learning applications of deep learning (segmentation, object detection, speech recognition, ...)
The accompanying exercises will provide a deeper understanding of the workings and architecture of neural networks.
- Empfohlene Literatur:
- Ian Goodfellow, Yoshua Bengio, Aaron Courville: Deep Learning. MIT Press, 2016
Christopher Bishop: Pattern Recognition and Machine Learning, Springer Verlag, Heidelberg, 2006 Yann LeCun, Yoshua Bengio, Geoffrey Hinton: Deep learning. Nature 521, 436–444 (28 May 2015)
- Schlagwörter:
- deep learning; machine learning
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Fundamentals of Optics [FUNd/OPT] -
- Dozentinnen/Dozenten:
- Hanieh Fattahi, Vahid Sandoghdar, Johannes Knorr
- Angaben:
- Vorlesung mit Übung, Schein, ECTS: 15
- Termine:
- Mo, 12:00 - 13:00, Raum n.V.
Mi, 11:00 - 12:00, Raum n.V.
The course will be conducted as online course. The given time slots are live sessions. In addition students watch recorded lessons.
- Studienrichtungen / Studienfächer:
- PF AOT-GL 1
- Voraussetzungen / Organisatorisches:
- (1) The recorded lessons by Prof. Sandoghdar can be found at
https://video.mpl.mpg.de/video/96/lecture-1-1?channelName=Sandoghdar(2) The sessions with Dr. Fattahi, which supplements, the lessons by Prof Sandoghdar start with a meeting on 20 Oct, 11.00
https://fau.zoom.us/j/66198886693 (3) The part "Advanced Molecular Spectroscopy" by Dr. Knorr will be represented by the StudOn course
https://www.studon.fau.de/crs4003971.html
The regular live sessions, start on 18 Oct, 12.00.
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Lab course "Computational Optics" [COO/LAB] -
- Dozentinnen/Dozenten:
- Norbert Lindlein, Christoph Pflaum
- Angaben:
- Praktikum, Schein, ECTS: 2,5
- Termine:
- Zeit/Ort n.V.
- Voraussetzungen / Organisatorisches:
- Please join the online course on StudOn where you receive all necessary information
https://www.studon.fau.de/crs4111825.html
- Inhalt:
- The course will consist of two parts:
(1) Ray tracing
There will be four online sessions:
Monday 22.11.2021 13:00-15:30
Monday 29.11.2021 13:00-15:30
Monday 6.12.2021 13:00-15:30
Monday 13.12.2021 13:00-15:30
Between the sessions and after the sessions students will have to work on exercises. Follow the StudOn link given above. (2) Laser
There will be four online sessions:
Monday, 20.12.2021, 13:00-15:30
Monday, 10.01.2022, 13:00-15:30
Monday, 17.01.2022, 13:00-15:30
Monday, 24.01.2022, 13:00-15:30
Between the sessions and after the sessions students will have to work on exercises. Follow the StudOn link given above.
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Light as a versatile tool in biology and biophysics -
- Dozentinnen/Dozenten:
- Leonhard Möckl, Katja Zieske
- Angaben:
- Seminar, 2 SWS, ECTS: 5
- Termine:
- Mi, 10:00 - 12:00, Raum n.V.
Max-Planck-Institut für die Physik des Lichts, Staudtstr.2, 91058 Erlangen
- Inhalt:
- Light can be used to examine biological systems such as human cells, bacteria, or viruses in various ways. In this seminar, we will explore this fascinating field, such as realizations in optogenetics, model systems, and correlative approaches (Katja Zieske) as well as fluorescence, super-resolution microscopy, image analysis, and deep learning (Leonhard Möckl). Each participant will prepare a talk on one of the topics listed below (or related ones), give a talk, and discuss the topic with the other students.
Key topics covered:
1. Principles of fluorescence
2. Labeling approaches for microscopy of biological systems
3. Localization-based super-resolution microscopy
4. Single-molecule and single-particle tracking
5. STED
6. Expansion microscopy
7. Image analysis
8. Deep learning-based approaches
9. AFM
10. Fluorescence correlation spectroscopy
11. Confocal microscopy + applications
12. Microfluidics
13. Lipid membranes
14. Optogenetic switches
15. Biological patterns Objectives: Understand the specific advantages and challenges of light-based approaches in biology; learn to read and contextualize publications; present and discuss scientific findings. If you want to participate in the seminar, please send an e-mail to Katja Zieske and Leonhard Möckl with your registration.
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Medical Image Processing for Diagnostic Applications (VHB-Kurs) [MIPDA] -
- Dozentinnen/Dozenten:
- Andreas Maier, Tristan Gottschalk, Celia Martín Vicario, Julian Hoßbach
- Angaben:
- Vorlesung, 4 SWS, ECTS: 5
- Termine:
- Zeit/Ort n.V.
- Studienrichtungen / Studienfächer:
- WPF INF-MA ab 1
WPF INF-BA-V-ME ab 5
PF CE-MA-TA-IT ab 1
WPF IuK-MA-MMS-INF ab 1
WPF ICT-MA-MPS 1-4
WPF MT-MA-BDV ab 1
WPF MT-BA ab 5
WF CME-MA 1-4
WPF AI-MA ab 1
- Voraussetzungen / Organisatorisches:
- Requirements: mathematics for engineering
Organization:
This is an online course of Virtuelle Hochschule Bayern (VHB).
Go to https://www.vhb.org to register to this course.
FAU students register for the written exam via meinCampus.
- Inhalt:
- Medical imaging helps physicians to take a view inside the human body and therefore allows better treatment and earlier diagnosis of serious diseases.
However, as straightforward as the idea itself is, so diversified are the technical difficulties to overcome when implementing a clinically useful imaging device. We begin this course by discussing all available modalities and the actual imaging goals which highly affect the imaging result. Some modalities produce very noisy results, but there are multiple other artifacts that show up in raw acquisition data and have to be dealt with. We address these issues in the chapter preprocessing and show how to compensate for image distortions, how to interpolate defect pixels, and finally correct bias fields in magnetic resonance images. The largest portion of this course covers the theory of medical image reconstruction. Here, from a set of projections from different viewing angles a 3-D image is merged that allows a definite localization of anatomical and pathological features. Following roughly the historical development of CT devices, we study the process from parallel beam to fan beam geometry and include a discussion of phantoms as a tool for calibration and image quality assessment. We then move forward and learn about reconstruction in 3-D. Since the system matrix often grows in dimensions such that many direct solvers become infeasible, we also discuss pros and cons of iterative methods. In the final chapter, image registration is introduced as the concept of computing the mapping that maps the content of one image to another. Two different acquisitions usually result in images that are at least rotated and translated against each other. Image registration forms the set of tools that we need to match certain image features in order to align both images for further processing, image improvement or image overlays.
- Schlagwörter:
- Mustererkennung, Medizinische Bildverarbeitung
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Optical Diagnostics in Energy and Process Engineering [CBI-OPDI] -
- Dozentinnen/Dozenten:
- Franz Huber, Stefan Will
- Angaben:
- Vorlesung, 2 SWS, benoteter Schein, ECTS: 5, Frühere Vorlesungsbezeichnung: Messmethoden der Thermodynamik; Für CBI: Vorlesung, Übung und Praktikum
- Termine:
- Di, 8:15 - 9:45, KS I
On campus (in exceptional cases as an online event). First lecture 19.10.2021. The slides and sound will be recorded and uploaded in StudOn./Die Folien und der Ton werden aufgenommen und anschließend auf StudOn gestellt.
- Studienrichtungen / Studienfächer:
- WPF CBI-MA 1-4
WPF MB-MA-FG10 1-4
WF LSE-MA 1-4
WF ET-MA-VTE 1-2
WPF CEN-MA 1-3
WPF CEP-MA 1-3
- Voraussetzungen / Organisatorisches:
- Basics in thermodynamics and fluid mechanics. Students of other subjects (Chemical- and Bioengineering, Mechanical Engineering, Life Science Engineering, Energy Technology, Computational Engineering) can participate.
- Inhalt:
- Introduction to conventional and novel optical techniques to measure state and process functions in thermodynamical systems.
properties of light; properties of molecules; Boltzmann distribution; geometric optics; lasers (HeNe, Nd:YAG, dye, frequency conversion); continuous wave and pulsed lasers; photoelectric effect; photodetectors (photomultiplier, photodiode, CCD, CMOS, image intensifier); digital image processing; image noise and resolution; shadowgraphy and schlieren techniques; elastic light scattering (Mie scattering, Rayleigh thermometry, nanoparticle size and shape, droplet sizing); Raman scattering (species concentration, temperature, diffusion); incandescence (thermal radiation, pyrometry, particles); velocimetry (flow fields); absorption, fluorescence (temperature, species, concentration)
- Empfohlene Literatur:
-
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Optical Lithography: Technology, Physical Effects, and Modelling -
- Dozent/in:
- Andreas Erdmann
- Angaben:
- Vorlesung, 2 SWS, Die Vorlesung findet voraussichtlich über Zoom statt. Weitere Hinweise finden Sie im StudOn-Kurs zur Vorlesung.
- Termine:
- Do, 12:15 - 13:45, Hans-Georg-Waeber-Saal
- Studienrichtungen / Studienfächer:
- WF EEI-MA ab 1
WF EEI-BA ab 5
WF EEI-MA ab 1
WF AOT-GL ab 1
PF NT-MA 1
- Inhalt:
- Semiconductor lithography covers the process of pattern transfer from a mask/layout to a photosensitive layer on the surface of a wafer. It is one of the most critical steps in the fabrication of microelectronic circuits. The majority of semiconductor chips are fabricated by optical projection lithography. Other lithographic techniques are used to fabricate lithographic masks or new optical and mechanical devices on the micro- or nanometer scale. Innovations such as the introduction of optical proximity correction OPC), phase shift masks (PSM), special illumination techniques, chemical amplified resist (CAR) materials, immersion techniques have pushed the smallest feature sizes, which are produced by optical projection techniques, from several wavelengths in the early 80ties to less than a quarter of a wavelength nowadays.
This course reviews different types of optical lithographies and compares them to other methods. The advantages, disadvantages, and limitations of lithographic methods are discussed from different perspectives. Important components of lithographic systems, such as masks, projection systems, and photoresist will be described in detail. Physical and chemical effects such as the light diffraction from small features on advanced photomasks, image formation in high numerical aperture systems, and coupled kinetic/diffusion processes in modern chemical amplified resists will be analysed. The course includes an in-depth introduction to lithography simulation which is used to devise and optimize modern lithographic processes.
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Optical Technologies in Life Science [OTLS] -
- Dozentinnen/Dozenten:
- Sebastian Schürmann, Oliver Friedrich, Maximilian Waldner, Lucas Kreiß
- Angaben:
- Vorlesung mit Übung, 4 SWS, ECTS: 5, nur Fachstudium
- Termine:
- Di, 10:15 - 13:00, SR 00.030
- Studienrichtungen / Studienfächer:
- WPF MT-MA-GPP 1-3
WPF LSE-MA 1-3
WPF AOT-GL 1-3
WPF CE-MA-TA-PO ab 1
- Voraussetzungen / Organisatorisches:
- Kombinierte Vorlesung & Übung im Umfang von 4 SWS.
Schriftliche Prüfung (120 min.)Empfohlene Voraussetzungen: Grundkenntnisse in den Bereichen Optik und Zellbiologie Anmeldung über StudOn erforderlich.
- Inhalt:
- Themen:
Anwendungen optischer Messmethoden im Bereich der Zellbiologie und Medizin Mikroskopie: Grundlegende Konzepte und Kontrastverfahren, Auflösungsvermögen und Grenzen, Aufbau und Komponenten von Lichtmikroskopen, Fluoreszenz-Mikroskopie Anwendungen von Fluoreszenz-Mikroskopie im Life Science Bereich, Verfahren zur Markierung biologischer Strukturen und Vorgänge in Zellen Epifluoreszenz-, Konfokal-, Multiphotonen-Mikroskopie, Konzepte und Anwendungsbeispiele Optische Endoskopie und Endomikroskopie in Forschung und Klinik Super-Resolution Mikroskopie, Konzepte und Anwendungsbeispiele für optische Bildgebung jenseits der beugungsbedingten Auflösungsgrenze
Lernziele und Kompetenzen: Die Studierenden
können verschiedene technische Ansätze im Hinblick auf wissenschaftlich Fragestellungen vergleichen und bewerten
können Vor- und Nachteile verschiedener Technologien, sowie konzeptionelle und praktische Limitationen einschätzen und bei der Analyse wissenschaftlicher Ansätze und Ergebnisse berücksichtigen
können selbstständig vertiefende Informationen zu technischen Lösungen, Materialien und Methoden im Bereich der Mikroskopie und Spektroskopie sammeln, strukturieren, und für die zielgerichtete Planung wissenschaftlicher Experimente auswählen
können wissenschaftliche Fragestellungen und technische Ansätze in Kleingruppen kritisch diskutieren und gemeinschaftlich Ansätze zur Beantwortung von Forschungsfragen mit Hilfe optischer Technologien entwickeln
- Empfohlene Literatur:
- Michael W. Davidson et al: Microscopy Primer, http://micro.magnet.fsu.edu, umfassendes Online-Lehrwerk über grundlegende Mikroskopieverfahren und neueste technische Entwicklungen
Bruce Alberts: Molecular Biology of the Cell, 4th Edition, New York, Garland Science Publisher. Standardlehrwerk für die Zellbiologie. Ulrich Kubitschek: Fluorescence Microscopy: from Principles to Biological Applications, Wiley-VCH Verlag. Douglas Chandler & Robert Roberson: Bioimaging: Current Concepts in Light and Electron Microscopy, Jones and Bartlett Publishers.
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Optische Kommunikationsnetze [OptK] -
- Dozent/in:
- Herbert Haunstein
- Angaben:
- Vorlesung, 2 SWS, benoteter Schein, ECTS: 2,5, nur Fachstudium
- Termine:
- Fr, 16:15 - 17:45, Zoom-Meeting
- Studienrichtungen / Studienfächer:
- WPF EEI-BA-INT 5-6
WPF EEI-MA-INT 1-4
WPF IuK-MA-ÜTMK-EEI 1-4
WPF ICT-MA-NDC 1-4
WPF CME-MA ab 1
WPF AOT-GL ab 1
- Voraussetzungen / Organisatorisches:
- Kommunikationsnetze I (empfohlen aber nicht zwingend notwendig)
- Inhalt:
- Während im Netzanschlussbereich elektrische Übertragungsverfahren wie analoge Modems, ISDN oder DSL, sowie die Mobilfunkstandards DECT, GSM, UMTS und WiMAX eingesetzt werden, finden in der Langstreckenübertragung optische Schnittstellen nach den SDH/OTN-Standards Anwendung. Diese Standards regeln sowohl die Protokolle für die Zusammenführung verschiedener Datenströme (Multiplex), als auch die Schnittstellen für die physikalische Übertragung. Durch die stark wachsende Anzahl paketorientierter Datenverbindungen (Internet, E-mail, voice over IP (VoIP) sowie
IPTV) ist eine schnelle Zunahme der Ethernet, Gigabit-Ethernet (GigE) und 10Gigabit Ethernet-Anschlüsse zu verzeichnen. Entsprechend werden
verstärkt paketorientierte Übertragungsnetze entwickelt, die langfristig die bisherige Infrastruktur ersetzen werden. Zur Kostensenkung wird dabei eine möglichst effiziente Verbindung zwischen den verschiedenen Netzwerk-Layern angestrebt. Einen weiteren wichtigen Aspekt stellt die Dynamisierung der Netze, also die Anpassung der
Netzeigenschaften an das aktuelle Verkehrsaufkommen. Ziel der Vorlesung ist es, die Grundlagen und Trends von modernen Glasfasernetzen zu vermitteln.
1. Anforderungen an optische Netze
Anwendungen und Dienste Topologien allgemein Hierarchische Gliederung (Zugangs-, Metro-, Kernnetz) Statische und dynamische Anforderungen an optische Netze Daten Transport Protokolle (TCP, Internet-Protokoll) Dimensionierung, Verkehrstheorie, -modelle, -charakterisierung
2. Standards in der optischen Übertragungstechnik
a) Aggregationsnetze
b) Transportnetze
Synchrone Digitale Hierarchie (SDH), Synchrone Optische NETze (SONET) Optisches Transportnetz (OTN) Multi-Protocol-Label-Switching MPLS (RFC 3031), Provider Backbone Transport (PBT), Transport-MPLS (ITU-T G.8110.1/Y.1370.1)
c) Netzsteuerung
ASON (ITU-T, G.8080) GMPLS (RFC 4139)
3. Komponenten optischer Transportnetze (Weitverkehrsnetz)
Sender / Empfänger, Wellenlängen-Multiplexer, optische Verstärker, Optische Schalter, einstellbare optische Filter, Dispersionskompensation
4. Optische Netze
Einführung in die optische Übertragung, optische Schnittstellen, Einkanal- / Mehrkanalsysteme, optisches Schalten Optische Transparenz, begrenzende Effekte, Netzmonitoring
- Empfohlene Literatur:
- H. Haunstein: Hilfsblätter zur Vorlesung.
R. Rawaswami: Optical Networks - A practical perspective, Academic
Press, 1998
B. Mukherjee: Optical WDM Networks, Springer, 2006
T.S. El-Bawab: Optical switching, Springer, 2006
U. Black: Optical Networks - Third generation transport systems, Prentice Hall, 2002
P. Tomsu and Chr. Schmutzer: Next generation optical networks, Prentice Hall, 2002
I.P. Kaminow: Optical Fiber Telecommunications IV A & B, Academic Press
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Pattern Recognition [PR] -
- Dozentinnen/Dozenten:
- Andreas Maier, Paul Stöwer
- Angaben:
- Vorlesung, 3 SWS, Schein, ECTS: 3,75, geeignet als Schlüsselqualifikation, This class will be given purely on fau.tv. Short videos will be posted on a regular schedule (not necessary the in-person time mentioned here at UnivIs)
- Termine:
- Mo, 14:15 - 15:45, H4
Do, 10:15 - 11:45, H4
- Studienrichtungen / Studienfächer:
- WPF ME-BA-MG6 3-5
WPF MT-MA-BDV 1-3
PF IuK-MA-MMS-INF ab 1
PF ICT-MA-MPS 1-4
WPF CE-MA-INF ab 1
WF CE-BA-TW ab 5
WPF INF-MA ab 1
WPF CME-MA ab 1
WF ASC-MA 1-4
WPF ME-MA-MG6 1-3
WPF DS-MA ab 1
- Schlagwörter:
- Mustererkennung, maschinelle Klassifikation
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Produktanalyse [PCHAR] -
- Dozentinnen/Dozenten:
- Johannes Walter, Wolfgang Peukert
- Angaben:
- Vorlesung, 2 SWS, ECTS: 4, nur Fachstudium
- Termine:
- Mo, 14:15 - 15:45, LSTM-SR
Di, 12:15 - 13:45, LSTM-SR
Sign into the StudOn course Produktanalyse for further information about lectures/exercises and related modalities. https://www.studon.fau.de/studon/goto.php?target=crs_4039568
- Studienrichtungen / Studienfächer:
- WPF CBI-MA 1-3
WPF NT-MA 3
WPF ET-MA-VTE 3
WPF CEN-MA 1-3
- Inhalt:
- The lecture introduces modern (optical) techniques for characterization of disperse systems in chemical engineering and materials science. The participants will learn general principles as well as where, when and on which time scale information on materials properties can be gained by the discussed methods. For disperse systems the latter can be for example particle size, particle shape, materials composition, electronic properties and surface chemistry as well as surface charge. The participants will learn in the lecture how to judge the results of an individual technique, learn about its boundaries and where a combination of several techniques is more promising. As many of the optical techniques rely on good knowledge in optics and their fundaments, the necessary skills will be briefly introduced.
Introduction to Materials Properties and Classification Sampling, Error Sources and their Analysis- Definition and Determination of Particle Distribution, Size and Shape Principles Optics and Diffraction I Principles Optics and Diffraction II Diffraction, Rayleigh-, Mie scattering Static and Dynamic Light scattering X-Ray Scattering and Applications Zetapotential and its measurement with optical methods Analytical Ultra-Centrifugation with Multi-Wavelength Optics Nonlinear Optics at Interfaces and its Application Color and its Measurement: UV-Vis and Fluorescence Spectroscopy Infrared and Raman Spectroscopy including Surface-Enhanced Techniques Scanning Mobility Particle Sizer (SMPS) Scanning Probe Microscopy and Electron Microscopy
- Empfohlene Literatur:
- Principles of physics extended (9. ed., internat. student version); Authors: David Halliday, Robert Resnik, Jearl Walker; Wiley 2011
Springer Handbook of Materials Measurement Methods; Authors: Horst Czichos, T. Saito, Smith Leslie; Springer 2006 (electronic access within FAU) Nonlinear Optics; Author: Robert W. Boyd; Academic Press 2008
- Schlagwörter:
- Produktanalyse
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Topics of Optical Technologies -
- Dozentinnen/Dozenten:
- Silvana Burger, Michael Rausch, Florian Klämpfl, Bernhard Schmauss, Christoph Pflaum, Nicolas Joly, Maria Chekhova
- Angaben:
- Sonstige Lehrveranstaltung, 2 SWS, Schein, ECTS: 2,5, nur Fachstudium
- Termine:
- see time schedule
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Waveguides, optical fibres and photonic crystal fibres [OMS/WAV] -
- Dozentinnen/Dozenten:
- Nicolas Joly, Bernhard Schmauss
- Angaben:
- Vorlesung mit Übung, 4 SWS, ECTS: 5
- Termine:
- Di, 14:15 - 15:45, 00.152-113
Fr, 12:15 - 13:45, 00.152-113
The course will be conducted as online course (with a mix of live and recorded lessons). For more details and registration please go to https://www.studon.fau.de/crs3262147_join.html
- Studienrichtungen / Studienfächer:
- WPF AOT-GL 3
WPF Ph-MA 1
- Inhalt:
- The goal of this lecture is to give basics knowledge of optical waveguides and their applications. This will cover the following topics:
Guidance mechanism (geometric and EM approaches) Photonic crystal fibres (solid-core, hollow-core, bandgap and anti-resonance fibres) Nonlinear optics effect in optical fibres Applications
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UnivIS ist ein Produkt der Config eG, Buckenhof |
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