• views: 132
• date: 5 September 2026
• posted by: voska89

DigSILENT PowerFactory | Master DFIG Integration, Reactive Power Control, G99 Compliance & AVR Excitation Systems

What you'll learn

⚡ Build and simulate a complete grid-connected DFIG wind turbine model in DIgSILENT PowerFactory, including steady-state power flow and dynamic RMS simulations.
⚡ Distinguish between the reactive power control principles of synchronous generators and power inverters, and properly configure their respective control strateg
⚡ Interpret and apply the reactive power

Requirements

mandated by grid codes (such as G99 Issue 2), and construct and analyze the generator reactive power
⚡ Model and tune the generator's AVR, excitation system, and limiters in DIgSILENT to ensure grid compliance during voltage disturbances and load step events.

Requirements

❗ What are the

Requirements

or prerequisites for taking your course? To get the most out of this course, learners should have the following: Basic knowledge of electrical power systems – Understanding of concepts like active/reactive power, voltage control, and AC grids. Familiarity with wind turbine technology – A general awareness of DFIG (Doubly-Fed Induction Generator) operation is helpful, but not strictly required as it will be covered. DIgSILENT PowerFactory software – You will need access to the software (student or commercial version) to follow along with the hands-on tutorials. A basic working knowledge of the software interface is a plus, but beginners to the tool are welcome as the tutorials start from the integration steps. Fundamental understanding of control systems – Knowing the basics of AVR (Automatic Voltage Regulators) and excitation systems will help you grasp the later sections on limiters and capability curves. No prior knowledge of grid codes (e.g., G99) is required – All compliance

Requirements

will be explained from the ground up during the course.

Description

The global energy transition is accelerating, and renewable energy sources particularly wind power—are now at the heart of modern power systems. However, connecting these variable energy sources to the grid is not as simple as plugging them in. It requires deep technical expertise in power system simulation, reactive power management, and stringent grid code compliance. If you are an electrical engineer, a renewable energy professional, or a student looking to break into this high-demand field, this course is your comprehensive, hands-on guide to mastering renewable energy integration usingDIgSILENT PowerFactory one of the industry's most powerful and widely used simulation tools.
This course takes you on a step-by-step journey, starting with the fundamentals of reactive power control. You will clearly understand the critical differences between how conventional synchronous generators and modern power inverters manage reactive power a foundational concept that underpins grid stability. From there, we dive straight into practical, project-based learning.
You will learn how to build a completeDFIG (Doubly-Fed Induction Generator) wind turbine model in DIgSILENT PowerFactory across a series of detailed, hands-on tutorials. You won't just watch; you will follow along as we construct the model from scratch, run RMS load step tests, and analyze the dynamic responses of your wind turbine under various grid disturbances.
A major pillar of this course isgrid compliance. We will demystify the technical requirements of modern grid codes, with a specific focus on the UK'sG99 Issue 2 standard. You will learn exactly what reactive power capabilities are expected from generating plants and how to interpret and build theGenerator Reactive Power Capability Envelope inside DIgSILENT.
Furthermore, we will go deep into the control loops that make it all possible modeling and tuning theAVR (Automatic Voltage Regulator), the excitation system, and the all-important limiters that protect your equipment while ensuring the grid remains stable.
By the end of this course, you will have a rock-solid, practical skillset that you can immediately apply to real-world grid integration projects. Whether you are designing a new wind farm, planning a solar PV plant, or working in grid operations, this course will give you the confidence to simulate, analyze, and troubleshoot grid compliance issues like a seasoned professional. Join us and take your career in renewable energy to the next level!

Who this course is for

⭐ This course is designed for professionals and students who work at the intersection of renewable energy and power system stability. It will benefit: Power system engineers who want to master grid integration of wind farms using DIgSILENT PowerFactory. Renewable energy project developers looking to understand grid compliance

Requirements

(like G99) to ensure their projects meet utility standards. Electrical engineering students and researchers specializing in power systems, renewable energy, or wind turbine control who want hands-on simulation experience. Grid planning and operations engineers who need to assess the reactive power capability of generators and inverters connected to the grid. Control system designers working on excitation systems, AVRs, and limiters for synchronous generators and wind turbines. Anyone preparing for grid code certification tests or aiming to build a strong portfolio in renewable energy integration using industry-standard simulation tools.

Homepage

https://www.udemy.com/course/renewable-energy-integration-grid-compliance-in-digsilent

   
   
   

Forex Trading

Crypto Trading. 20 USD Bonus after KYC

We need your support!
Make a donation to help us stay online
        
Bitcoin (BTC)
bc1q08g9d22cxkawsjlf8etuek2pc9n2a3hs4cdrld
	
Bitcoin Cash (BCH)
qqvwexzhvgauxq2apgc4j0ewvcak6hh6lsnzmvtkem

Ethereum (ETH)
0xb55513D2c91A6e3c497621644ec99e206CDaf239

Litecoin (LTC)
ltc1qt6g2trfv9tjs4qj68sqc4uf0ukvc9jpnsyt59u

USDT (ERC20)
0xb55513D2c91A6e3c497621644ec99e206CDaf239

USDT (TRC20)
TYdPNrz7v1P9riWBWZ317oBgJueheGjATm

0 1 2 3 4 5

| Print version |

	Information
		Users of GUESTS are not allowed to comment this publication.