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PhD course

AAU Energy

Course in Microgrids

A Microgrid can operate autonomously or interact with the main grid, featuring distributed energy resources, power electronic converters, and local loads. This course offers a comprehensive introduction to AC and DC Microgrids, covering advanced modeling, control strategies, and operation management systems

PhD course

Pontoppindanstræde 101, room 1.015, 9220 Aalborg East, Denmark

  • 19.05.2025 08:30 - 23.05.2025 16:00
    : 28.04.2025

  • Free for PhD student in Denmark*

  • English

  • Hybrid

6000

PhD course

Pontoppindanstræde 101, room 1.015, 9220 Aalborg East, Denmark

19.05.2025 08:30 - 23.05.2025 16:0019.05.2025 08:30 - 23.05.2025 16:00
: 28.04.2025

English - 6000

Hybrid

AAU Energy

Course in Microgrids

A Microgrid can operate autonomously or interact with the main grid, featuring distributed energy resources, power electronic converters, and local loads. This course offers a comprehensive introduction to AC and DC Microgrids, covering advanced modeling, control strategies, and operation management systems

PhD course

Pontoppindanstræde 101, room 1.015, 9220 Aalborg East, Denmark

  • 19.05.2025 08:30 - 23.05.2025 16:00
    : 28.04.2025

  • Free for PhD student in Denmark*

  • English

  • Hybrid

6000

PhD course

Pontoppindanstræde 101, room 1.015, 9220 Aalborg East, Denmark

19.05.2025 08:30 - 23.05.2025 16:0019.05.2025 08:30 - 23.05.2025 16:00
: 28.04.2025

English - 6000

Hybrid

Course schedule

Topic and lecturer
Day 1
  • L1- Introduction to AC Microgrids
  • L2- Grid forming and Grid Feeding Inverters
  • L3- Hierarchical Control of AC Microgrid
  • L4- UPS
  • Lab I - Design of Inner Control Loops for Grid Forming Inverters- Part I
  • Lab II - Simulation and Evaluation of Islanded Grid Forming Inverters in Stationary and Synchronous Reference Frame with a Nonlinear Load
Day 2
  • L5- Synchronous-Reference-Frame based controllers
  • L6 - Modeling and Stability Analysis of Microgrids - Part I
  • L7- Modeling and Stability Analysis of Microgrids - Part II
  • L8- Modeling and Stability Analysis of Microgrids - Part II- continue
  • L9- Virtual Synchronous Generators
  • Lab III - Design of Power Droop Loops for Grid Forming Inverters- Part II
  • Lab IV - Simulation and Evaluation of a Grid-connected Grid Forming Inverter with a Secondary Controller
Day 3
  • L10- Energy Management System for Microgrids
  • L11- Communication systems in Microgrids
  • L12- Internet of Things in Microgrids
  • L13- Mobile and community MGs for resilence enhancement
  • L14- MG clusters
  • Lab V- Implementation of EMS for MGs
Day 4
  • L15- Introduction to Grid Synchronization Systems
  • L16- Phase-Locked Loops: Small-Signal Modeling, Control Tuning, and Analysis
  • L17- Frequency-Locked Loops: Small-Signal Modeling, Control Tuning, and Analysis
  • L18- Open-Loop Synchronization Systems
  • L19- Grid Synchronization Impact on Converter Stability
  • Lab VI- Design of Grid syncornization systems in Matlab-Simulink
  • Lab tour
Day 5 08:30-16:00
  • L20- Introduction to DC Microgrids
  • L21 - Power Converters and Control in DC microgrids
  • L22 - DC Collector Gridsfor Offshore Wind PowerPlants
  • L23 - Hierarchical Controlfor DC Microgrids
  • Lab VII- Design of ControlArchitectures for DC Microgrids
  • Lab VIII- Design and Evaluation of Hierarchical Control for DC Microgrids

A Microgrid can be defined as a part of the grid with distributed energy resources, power electronic converters, distributed energy storage systems, and local loads, that can operate autonomously but also interacting with the main grid. The functionalities expected for these small grids are black start operation, frequency and voltage stability, active and reactive power flow control, active power filter capabilities, and storage and energy management. This way, the energy can be generated and stored near the consumption points, increasing reliability, and reducing the losses produced by the large power lines.

The Microgrids course aims at offering a comprehensive introduction to AC and DC Microgrids, their operating and control challenges, opportunities, and applications. The course participants will learn about advanced modeling, control strategies, and operation management systems for Microgrids in both grid-connected and islanded modes, and for mobile Ad-hoc microgrids, community microgrids, and microgrid clusters. Moreover, stability analysis, advanced grid synchronization techniques, energy management and communication systems, and Internet of Things (IoT)-enabled energy and asset operation managements are explored to ensure efficiency, reliability, and resilience operation of Microgrids.

The key areas that are covered by the course include:

  • Microgrid concept, challenges, and requirements.
  • Hierarchical control of AC/DC Microgrids.
  • Grid-forming and Grid-following Inverters, Frequency and voltage droop control.
  • Modeling and stability analysis of Microgrids.
  • Virtual synchronize generators.
  • Control of Uninterruptible Power Supply (UPS) Systems
  • Advanced grid synchronization systems.
  • IoT-enabled Microgrids.
  • Energy management system for microgrids and its applications.
  • Mobile Ad-hoc microgrids and community microgrids.
  • Microgrid clusters control and operation management

Important information concerning PhD courses

The Doctoral School has decided to introduce a no-show fee of DKK 3000 for each course where the student does not show up. Cancellations are accepted no later than 2 weeks before the start of the course. Registered illness is of course an acceptable reason for not showing up on those days. Furthermore, all courses open for registration approximately four months before start. 

For inquiries regarding registration, cancellation or waiting list, please contact AAU Energy's administration at hr@energy.aau.dk

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