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 Harburger Schloßstraße 22a, 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
zur Veranstaltung in Stud.IP Studip_icon
Software für Eingebettete Systeme
Untertitel:
Module: Software für Eingebettete Systeme
Semester:
SoSe 24
Veranstaltungsart:
Lecture + Lab
Veranstaltungstyp:
Vorlesung (Lehre)
Veranstaltungsnummer:
lv1069_s24
DozentIn:
Prof. Dr. Bernd-Christian Renner, Peter Oppermann, Johannes Göpfert, Fabian Steinmetz
Beschreibung:
Embedded systems are present everywhere in our daily lives and are integral parts of modern engineering. They start with smart lightbulbs or electric door openers and continue with control units for automotive applications or industrial machines. Furthermore, safety-critical systems, such as airbags or ventilators, are controlled with an embedded system.

Course Objectives

In this course, the students learn to develop software for embedded systems. At first, the students learn the concepts of embedded systems, including hardware structures and software design. Afterwards, they are introduced to microcontrollers and their functionalities, such as input and output registers, timers, interrupts, and bus systems. At the end of this course, the students know how to develop, implement, and test software for embedded systems.

Prerequisites

Students taking this course must be familiar with the C programming language and its concepts, for example, pointers and procedural programming. Furthermore, basic knowledge of software design and electrical engineering is helpful for this course.

Lab

A lab accompanies the lecture, where the students learn to program a microcontroller and apply the lecture’s content. Using an ATmega32U4, the students develop a hardware-oriented and low-level software library to address digital input and output pins, read analog to digital (ADC) converters for analog sensors, use hardware timers and interrupts, and control an actuator. At the end of the lab, the students combine all functionalities and implement software for different applications.
Leistungsnachweis:
Written Exam
ECTS-Kreditpunkte:
6
Weitere Informationen aus Stud.IP zu dieser Veranstaltung
Heimatinstitut: Institut für Autonome Cyber-Physische Systeme (E-24)
In Stud.IP angemeldete Teilnehmer: 142
Anzahl der Postings im Stud.IP-Forum: 4
Anzahl der Dokumente im Stud.IP-Downloadbereich: 34

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.