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Advanced Control & Coordination of DER for Future Power Grid
Published 8/2026
Created by Purankumar Gajera
MP4 | Video: h264, 3840x2160 | Audio: AAC, 44.1 KHz, 2 Ch
Level: All Levels | Genre: eLearning | Language: English | Duration: 17 Lectures ( 10h 26m ) | Size: 28 GB
Master DER Coordination, Smart Grid Integration, Voltage Control, Inverter-Based Control, Microgrids, and Energy Management
What you'll learn
Understand the fundamentals of Distributed Energy Resources (DERs) and their role in modern smart grids, microgrids, and renewable-energy-integrated power syste Analyze the challenges associated with high penetration of PV, EVs, energy storage, and other DERs, including power variability, voltage fluctuations, reverse p Apply decentralized, distributed, and hierarchical control strategies to coordinate multiple distributed energy resources effectively. Understand and implement Voltage/VAR Control (VVC) concepts using reactive-power control, PV inverters, OLTCs, capacitor banks, and other grid-support resourcesRequirements
This course is suitable for beginners, students, researchers, faculty members, and practicing electrical/power-system engineers who want to develop a structured understanding of DER coordination and control.Description
"This course contains the use of artificial intelligence."
The rapid growth of solar PV, battery energy storage, electric vehicles, microgrids, flexible loads, and otherDistributed Energy Resources (DERs) is transforming the traditional electrical power system. While DERs provide significant opportunities for cleaner, smarter, and more flexible energy systems, their increasing penetration also creates important challenges related tovoltage stability, power quality, renewable-energy variability, uncertainty, energy management, and coordinated control.
This course,"Advanced Coordination and Control of Distributed Energy Resources for Smart and Resilient Power Grids," provides a structured understanding of how multiple distributed resources can be coordinated to improve the reliability, efficiency, flexibility, and resilience of modern power systems.
You will begin by understanding the fundamentals of Distributed Energy Resources and their role in modern power grids and microgrids. The course then explores the challenges created by variable renewable generation, changing electrical and thermal loads, and the coupling between different energy resources.
A major focus of the course isintelligent coordination of DERs. You will learn how PV systems, battery energy storage, electric vehicles, flexible loads, thermal energy storage, and other resources can be coordinated rather than operated independently.
The course also introducesVoltage/VAR Control (VVC) and explains how conventional grid devices such as OLTCs and capacitor banks can be coordinated with fast-acting PV inverters. You will understand why different control resources should operate at different timescales and how inverter-based reactive-power control can help manage rapid voltage fluctuations caused by renewable-energy variability.
Another important area covered in the course ismicrogrid energy management. You will explore demand response, thermal flexibility, CCHP systems, thermal energy storage, and price-based demand response. These concepts demonstrate how electrical and thermal flexibility can be used to improve economic operation while maintaining customer comfort and system constraints.
The course also introducestwo-stage robust optimization and uncertainty-aware decision-making. You will understand the difference between day-ahead planning and intraday recourse and how these approaches can help a microgrid respond to uncertain renewable generation and load conditions.
You will further exploremulti-timescale coordination, where slow planning decisions are combined with faster recourse and inverter-based control. This approach helps reduce unnecessary mechanical switching, improve voltage stability, and make better use of the flexibility available within distributed resources.
By the end of the course, you will have a comprehensive understanding of how DERs can be coordinated as an integrated energy system rather than treated as independent devices.
What you will gain from this course
You will develop the ability to understand DER architectures and their applications, analyze renewable-energy integration challenges, explain distributed and hierarchical control strategies, understand Voltage/VAR Control and inverter-based grid support, analyze microgrid energy-management strategies, understand robust optimization under uncertainty, and evaluate multi-timescale coordination strategies for modern power systems.
Who should take this course?
This course is suitable forelectrical engineering students, postgraduate students, researchers, PhD scholars, faculty members, power-system engineers, renewable-energy professionals, microgrid engineers, and industry professionals interested in smart grids and distributed energy systems.
A basic understanding of electrical engineering and power-system concepts is recommended, but advanced prior knowledge of DER coordination is not required.
The course is designed to connectfundamental concepts with practical engineering applications, helping learners understand not only what Distributed Energy Resources are, but alsohow they can be coordinated to create smarter, more flexible, reliable, and resilient power grids.
Join the course and develop the knowledge needed to understand and contribute to thenext generation of intelligent and renewable-rich power systems.
Learn. Coordinate. Control. Innovate. Power the future.
Who this course is for
This course is especially valuable for learners who want to move beyond individual DER technologies and understand how PV, EVs, energy storage, flexible loads, and other distributed resources can be coordinated as an integrated and intelligent power-system resource.Homepage
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