Béla Wiegel

M.Sc.
Research Assistant

Contact

Béla Wiegel, M. Sc.
E-6 Elektrische Energietechnik
  • Elektrische Energietechnik
Office Hours
Auf Anfrage
Harburger Schloßstraße 22a,
21079 Hamburg
Building HS22a, Room 2.003
Phone: +49 40 42878 2240
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Research Projects

EffiziEntEE
Efficient integration of high shares of renewable energies in technically and economically integrated energy systems

EffiziEntEE

Efficient integration of high shares of renewable energies in technically and economically integrated energy systems

Federal Ministry for Economic Affairs and Climate Action (BMWK); Duration: 2022 to 2025

CyEntEE
I³-Lab Cyber Physical Energy Systems – Sustainability, Resilience and Economics

I³-Lab

CyEntEE

Cyber Physical Energy Systems – Sustainability, Resilience and Economics

Hamburg University of Technology (TUHH); Duration: 2020 to 2023

Publications

TUHH Open Research (TORE)

2024

2023

2022

2021

Courses

Stud.IP
link to course in Stud.IP Studip_icon
Simulation of Communication Networks (PBL)
Subtitle:
This course is part of the module: Communication Networks II - Simulation and Modeling, Simulation of Communication Networks
Semester:
SoSe 24
Course type:
PBL -Projekt-/problembasierte Lehrveranstaltung (Lehre)
Course number:
lv887_s24
Lecturer:
Dr.Ing- Koojana Kuladinithi
Description:

In the course necessary basic stochastics and the discrete event simulation are introduced. Also simulation models for communication networks, for example, traffic models, mobility models and radio channel models are presented in the lecture. Students work with a simulation tool, where they can directly try out the acquired skills, algorithms and models. At the end of the course increasingly complex networks and protocols are considered and their performance is determined by simulation.

Pre-requisites:
Understanding of basic principles of communication networks and their protocols as presented in 'Communication Networks' or 'Computer Networks' Lectures. Basic Knowledge in Stochastics. Basic programming knowledge, especially C++ (to work with OMNeT++ networking simulator)
Learning organisation:
605 - Communication Networks II - Simulation and Modeling<ul><li>605 - Communication Networks II - Simulation and Modeling: mündlich</li></ul><br>606 - Simulation of Communication Networks<ul><li>606 - Simulation of Communication Networks: mündlich</li></ul>
Performance accreditation:
605 - Communication Networks II - Simulation and Modeling<ul><li>605 - Communication Networks II - Simulation and Modeling: mündlich</li></ul><br>606 - Simulation of Communication Networks<ul><li>606 - Simulation of Communication Networks: mündlich</li></ul>
Miscellaneous:
Publications about this Course:

The concept and structure of this course was published in our paper "Teaching Modelling and Analysis of Communication Networks using OMNeT++ Simulator", for which we received the "Best Scientific Contribution Award" of the 5th OMNeT++ Summit in 2018. Parallel to the paper, we released the exercises and the final task of this year as open teaching material.
https://easychair.org/publications/paper/13ck

In 2020, we also published our experiences in teaching this course online in our paper "Online Teaching of Project-based Learning Courses - Issues, Challenges and Outcomes" as part of the "On-line Networking Education Community Discussion" at SIGCOMM 2020.
http://gaia.cs.umass.edu/sigcomm_education_workshop_2020/papers/sigcommedu20-final22.pdf
ECTS credit points:
6
Stud.IP informationen about this course:
Home institute: Institut für Kommunikationsnetze (E-4)
Registered participants in Stud.IP: 29
Documents: 11

Supervised Theses

ongoing
completed

2024

  • Rücker, J. (2024). Optimal Scheduling of Flexible Components in Residential Neighborhoods Using Detailed Linear Programming.

2023

  • Nitz, A. (2023). Die Wärmepumpen im virtuellen Kraftwerk - Untersuchung von Wärmepumpen unter Berücksichtigung unterschiedlicher Funktionsprotokolle innerhalb eines virtuellen Kraftwerks.

2022

  • Kaya, E. (2022). Simulation des Lebenszyklus‘ einer Lithium Ion Zelle in den stationären EP and instationären EV Anwendungsfällen.

  • Pauelsen, F.-T. (2022). Implementierung eines Maximum-Power-Point-Tracker für Photovoltaikanlagen in Modelica.

  • Rücker, J. (2022). Dynamische Untersuchung des Verhaltens elektrischer Komponenten auf Quartiersebene hinsichtlich der Spannungshaltung.

  • Rüffert, J. (2022). Charakterisierung von Zellen in Verteilnetzen anhand von Bewertungskriterien und die Auswirkungen von punktuell und zeitlich begrenzt auftretenden Lasten.

2021

  • Helmrich von Elgott, L. (2021). Optimierter Einsatz dezentraler Flexibilität zur Betriebsführung intelligenter sektorgekoppelter Verteilnetze.

  • Zwinzscher, S. (2021). Entwicklung einer Methodik zur dynamischen Berechnung der Flexibilität eines auf Power-to-Heat basierenden Nahwärmenetzes.