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IEET > Staff > Research Assistants > Dr.-Ing. Jan-Peter Heckel

Dr.-Ing. Jan-Peter Heckel

Research Assistant

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Dr.-Ing. Jan-Peter Heckel
E-6 Elektrische Energietechnik
  • Elektrische Energietechnik
Office Hours
nach Vereinbarung (Terminabsprache per E-Mail)
Harburger Schloßstraße 22a,
21079 Hamburg
Building Harburger Schloßstraße 22a, Room 2.014
Phone: +49 40 42878 2381
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Research Projects

VeN²uS
Networked grid protection systems - Adaptive and interconnected

VeN²uS

Networked grid protection systems - Adaptive and interconnected

Federal Ministry for Economic Affairs and Climate Action (BMWK); Duration: 2021 to 2024

to the project page
ResiliEntEE
Resilience of integrated energy systems with a high share of renewables

ResiliEntEE

Resilience of integrated energy systems with a high share of renewables

Hamburg University of Technology (TUHH); Duration: 2017 to 2021

to the project page

Publications

TUHH Open Research (TORE)

2023

2022

2021

2020

2019

Courses

Stud.IP
link to course in Stud.IP Studip_icon
Measurement Technology Lab for Mechanical Engineering
Semester:
SoSe 24
Course type:
Practical Course
Course number:
lvL1118_s24
Lecturer:
M. Sc. Mechatronics Finn Jannek Klar, Prof. Dr. Thorsten Kern
Description:
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
Miscellaneous:
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
Stud.IP informationen about this course:
Home institute: Institut für Mechatronik im Maschinenbau (M-4)
Registered participants in Stud.IP: 37
Documents: 2

Supervised Theses

ongoing

2024

  • Kumar, Melvin (2024). Automatische Erstellung von Simulationsmodellen für die Untersuchung der Auswirkung einer Netzaggregation auf die Kurschlusseigenschaften eines Netzes.

completed

2024

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

2023

  • Engemann, T. (2023). Nachbildung des Betriebsverhaltens einer Windkraftanlage in einer Laborumgebung.

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

  • Heunda, J. (2023). Dynamische Lastmodellierung zur adaptiven Schutzparametrierung in elektrischen Verteilnetzen.

  • Hube, P. (2023). Quantitative Bewertung des Mehrwerts einer adaptiven gegenüber einer konventionellen Netzschutzparametrierung.

  • Hube, P. (2023). Modellierung und Analyse des Kurzschlussverhaltens von Typ 4 umrichtergekoppelten Windkraftanlagen.

  • Kock am Brink, J. (2023). Vergleich von Spannungsstabilitätskennzahlen und deren Eignung als Resilienzindex.

  • Stoffregen, J. F. (2023). Implementierung und Simulation eines Testnetzes für die Mehrwertbetrachtung eines adaptiven Netzschutzes.

2022

  • Hillebrecht, T. (2022). Entwicklung und Implementierung eines Verfahrens zur Online-Detektion von Spannungsin-stabilitäten in gekoppelten Energiesystemen.

  • Schill, G. (2022). Untersuchung von Störungskaskaden in sektorengekoppelten Energiesystemen mittels einer Resilienzkennzahl.

2021

  • Ducci, D. (2021). Untersuchung der Bereitstellung von Regelleistung durch virtuelle Kraftwerke in sektorengekoppelten Energiesystemen.

  • Gomez Anccas, E. D. (2021). Entwicklung einer Methodik zur quantitativen Untersuchung und Bewertung dynamischer Interaktionen in gekoppelten Energiesystemen.

2020

  • Dressel, M. (2020). Untersuchung von spannungsstabilitätsbedingten Resilienzveränderungen im norddeutschen Energiesystem.

  • Gomez Anccas, E. D. (2020). Entwicklung eines Testmodells zur Untersuchung dynamischer Interaktionen in gekoppelten Energiesystemen.

  • Luo, K. (2020). Untersuchung der Auswirkungen des Netzentwicklungsplans 2025 auf die Netztopologie in Norddeutschland.

2019

  • Bredenberg, H. (2019). Optimierungssystem zur Netzplanung für die Mittelspannungsebene unter Berücksichtigung möglicher Entwicklungsszenarien.

  • Faili, Z. (2019). Analysis of the Voltage Stability in the Northern German Electrical Grid with Dynamic Simulation.

  • Häbel, I. (2019). Aggregation von Netzdaten für die numerisch effiziente Simulation gekoppelter Energiesysteme.

  • Krupp, M. (2019). Entwicklung und Integration eines Simulationsmodells für vermaschte Mehrpunkt-HGÜ-Systeme im Rahmen der Power System Toolbox.

2018

  • Dressel, M. (2018). Entwicklung und Integration eines Testnetzes zur Nachbildung des elektrischen Energiesystems von Nordeutschland für die Simuation energietechnischer Szenarien.

TU Hamburg
Institute of Electrical Power and Energy Technology (ieet) E-6
Prof. Dr.-Ing. Christian Becker
Harburger Schloßstraße 36
21079 Hamburg
E-mail : ieet(at)tuhh.de
Phone : +49 40 42878 3213
Fax : +49 40 42878 2382
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