Christina Eckel

M.Sc.
Research Assistant

Contact

Christina Eckel, M. Sc.
E-6 Elektrische Energietechnik
  • Elektrische Energietechnik
Office Hours
nach Vereinbarung
Harburger Schloßstraße 22a,
21079 Hamburg
Building HS22a, Room 2.002
Phone: +49 40 42878 2377
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Research Project

Stability and Grid Control in Transmission Systems with inverter-coupled resources

Stability and Grid Control in Transmission Systems with inverter-coupled resources

Hamburg University of Technology (TUHH); Duration: 2021 to 2025

Publications

TUHH Open Research (TORE)

2024

2023

2022

Courses

Stud.IP
zur Veranstaltung in Stud.IP Studip_icon
Measurement Technology Lab for Mechanical Engineering
Semester:
SoSe 24
Veranstaltungstyp:
Praktikum (Lehre)
Veranstaltungsnummer:
lvL1118_s24
DozentIn:
M. Sc. Mechatronics Finn Jannek Klar, Prof. Dr. Thorsten Kern
Beschreibung:
The module "Measurement Technology for Mechanical Engineering" is to be passed by all students with a project-based-learning exam by doing two practical courses (MSR & MT). Both of them need to be passed separately. The MT Lab involves ten experiments, each of which must be passed. The MT & MSR labs may be done in different semesters. To pass each experiment, you need to do five steps (details listed below) - You prepare yourself, reading the material for the experiment and attending the lecture - You execute an ILIAS-test (link in Stud.ip) to get approval for the live experiment - You book a seat in the lab for a time slot, which suits you, go there and receive the material - You execute the experiment in the lab, usually it takes around 1.5 hours for each experiment including recording of all data - You carry your data home and do some small post-processing-tasks on the data, submitting the results via Stud.ip vips We recommend doing one experiment every week. But you are free to arrange timing and sequence yourself. The ten experiments are: 1. mechanical measurements 2. motor power 3. resistive I: potentiometers 4. resistive II: strain-gauge & Wheatstone-bridge 5. capacitive I: general 6. capacitive II: acceleration 7. optical I: light reflection switch 8. optical II: diodes/phototransistors/photoresistors 9. magnetic: hall-sensor 10. piezo-electric Further information and the lab exercises can be found here: https://imek.atlassian.net/wiki/spaces/MLP/pages/12419749/Measurement+Technology+Lab+MT+Lab+new
Sonstiges:
The module "Measurement Technology for Mechanical Engineering" is to be passed by all students with a project-based-learning exam by doing two practical courses (MSR & MT). Both of them need to be passed separately.

The MT Lab involves ten experiments, each of which must be passed. The MT & MSR labs may be done in different semesters. To pass each experiment, you need to do five steps (details listed below)

- You prepare yourself, reading the material for the experiment and attending the lecture
- You execute an ILIAS-test (link in Stud.ip) to get approval for the live experiment
- You book a seat in the lab for a time slot, which suits you, go there and receive the material
- You execute the experiment in the lab, usually it takes around 1.5 hours for each experiment including recording of all data
- You carry your data home and do some small post-processing-tasks on the data, submitting the results via Stud.ip vips

We recommend doing one experiment every week. But you are free to arrange timing and sequence yourself.

The ten experiments are:
1. mechanical measurements
2. motor power
3. resistive I: potentiometers
4. resistive II: strain-gauge & Wheatstone-bridge
5. capacitive I: general
6. capacitive II: acceleration
7. optical I: light reflection switch
8. optical II: diodes/phototransistors/photoresistors
9. magnetic: hall-sensor
10. piezo-electric

Further information and the lab exercises can be found here:
https://imek.atlassian.net/wiki/spaces/MLP/pages/12419749/Measurement+Technology+Lab+MT+Lab+new
Weitere Informationen aus Stud.IP zu dieser Veranstaltung
Heimatinstitut: Institut für Mechatronik im Maschinenbau (M-4)
In Stud.IP angemeldete Teilnehmer: 37
Anzahl der Dokumente im Stud.IP-Downloadbereich: 2

Supervised Theses

ongoing

2024

  • Bahe, B. (2024). Nichtlineare Stabilitätsuntersuchungen in einem leistungselektronisch dominierten elektrischen Energiesystem.

completed

2024

  • Boehm, E. (2024). Einfluss des Netzäquivalents auf die Stabilität eines Netzes mit netzbildenden und netzfolgenden Umrichtern.

  • Helmich, L. M. (2024). Entwicklung und Simulation eines Effektivwertmodells für STATCOM-Anlagen mit neuartigen Regelstrategien für Pendeldämpfungen in PowerFactory.

  • Rüter, C. (2024). Einfluss der Netzstärke auf die Kleinsignalstabilität netzbildender Umrichter mit virtueller Oszillator-Regelung.

  • Schultheiß, J. (2024). Impedanzbasierte Stabilitätsanalyse zur Bewertung der Stabilitätsgrenzen von DC- und AC-Netzen.

2023

  • Chouiter, B. (2023). Dynamic Phasor Modelling and Comparison to Classical EMT Models.

  • Helmich, L. M. (2023). Entwicklung und Simulation einer Regelstrategie für die Pendeldämpfung durch STATCOM-Geräte.

  • Kamma, J. (2023). Umrichtermodellierung zur Repräsentation von Interaktionen im Sinne der Converter-Driven Stability.

  • Mißfeldt, C. (2023). Einfluss von Zeitverzögerungen auf die Converter-Driven Stability.

  • Rosenau, Y. (2023). Einfluss netzbildender Umrichter-Regelungsstrukturen auf die "Converter-Driven Stability".

2022

  • Kumar, M. (2022). Modellierung und Vergleich des Frequenzverhaltens dezentraler Anlagen mit netzbildenden Eigenschaften oder beigestellter Schwungmasse.

  • Lim, I. (2022). Modelling and Integration of a Hydrogen Storage Power Plant in the 10-Machine New-England Power System.

  • Rieckborn, N. (2022). Modellierung des Umwandlungsprozesses eines Wasserstoffspeicherkraftwerks.