15 Topics
10 Days
75 Sessions
Programme Overview
Training Description
Who Should Attend
This course is ideal for;
1. Power Systems Engineers
2. Grid Operators and Planners
3. Renewable Energy Project Developers
4. Electrical Engineers
5. Utility Professionals
6. Energy Policy Analysts
7. Researchers in Power Systems
8. Business Development Professionals
9. Energy Consultants
10. Graduate Students in Energy
Session Objectives
- Master the foundational principles of renewable energy integration into power systems.
- Learn about the key challenges and impacts of integrating variable renewables.
- Understand the role of advanced forecasting in managing intermittency.
- Grasp the complexities of grid stability and ancillary services.
- Develop proficiency in modeling and simulating high-renewables scenarios.
- Explore best practices in deploying energy storage for grid flexibility.
- Learn about robust approaches to demand-side management.
- Identify the critical legal, regulatory, and policy considerations for integration.
- Develop skills in using software tools for power system analysis.
- Formulate strategies for a resilient and sustainable grid.
About the Course
The global transition to a sustainable energy future hinges on our ability to effectively integrate variable and decentralized renewable energy sources into existing power grids. This is not a simple task; it requires sophisticated technical and operational strategies to manage the intermittency of sources like solar and wind, ensure grid stability, and maintain a reliable supply of electricity. A successful energy transition depends on a new generation of power systems professionals who understand the complexities of grid modernization, from advanced forecasting and smart grid technology to energy storage and flexible grid management. This course is designed to provide these critical skills, bridging the gap between renewable energy technologies and the practical challenges of their large-scale deployment.
This program provides a comprehensive and practical deep dive into the engineering and technical solutions that enable large-scale renewable energy integration. Participants will gain a fundamental understanding of how to manage variability and unpredictability, enhance grid flexibility, and leverage cutting-edge technologies. The course covers everything from advanced forecasting and control systems to the strategic deployment of energy storage and the development of new market designs. By focusing on real-world case studies and hands-on exercises, attendees will be equipped to design and implement effective integration strategies that not only support a high-renewables grid but also contribute to a more resilient, efficient, and secure power system for the future.
Curriculum & Topics
15 Topics | 75 Sessions
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Workshop 1.1:
The evolution of the power grid
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Workshop 1.2:
The impact of variable renewables (solar, wind)
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Workshop 1.3:
The key challenges: intermittency, location, and variability
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Workshop 1.4:
The need for a holistic, systems-level approach
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Workshop 1.5:
An overview of global renewable integration efforts
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Workshop 2.1:
The importance of accurate forecasting for grid stability
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Workshop 2.2:
Short-term vs. long-term forecasting
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Workshop 2.3:
Using meteorological data and satellite imagery
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Workshop 2.4:
Statistical and machine learning models for forecasting
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Workshop 2.5:
The role of probabilistic forecasting
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Workshop 3.1:
The concept of grid flexibility
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Workshop 3.2:
Different sources of flexibility (generation, storage, demand)
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Workshop 3.3:
The role of flexible conventional power plants
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Workshop 3.4:
Ancillary services for grid stability
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Workshop 3.5:
The importance of a clear and focused research question
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Workshop 4.1:
The role of energy storage in managing variability
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Workshop 4.2:
Different types of storage: batteries, pumped hydro, thermal
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Workshop 4.3:
Sizing and placing energy storage systems
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Workshop 4.4:
The economics of storage and its business models
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Workshop 4.5:
The importance of a clear and consistent reporting style
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Workshop 5.1:
Principles of a smart grid
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Workshop 5.2:
Advanced metering infrastructure (AMI)
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Workshop 5.3:
Real-time grid monitoring and control (SCADA)
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Workshop 5.4:
Distribution automation and smart inverters
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Workshop 5.5:
The role of a "risk and mitigation" plan
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Workshop 6.1:
The technical challenges to grid stability
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Workshop 6.2:
Voltage and frequency regulation
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Workshop 6.3:
Grid-forming and grid-following inverters
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Workshop 6.4:
The role of inertia in power systems
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Workshop 6.5:
The importance of a simple scorecard and a dashboard
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Workshop 7.1:
The need for new transmission lines
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Workshop 7.2:
Siting and permitting challenges
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Workshop 7.3:
Inter-regional and cross-border transmission
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Workshop 7.4:
High-voltage direct current (HVDC) technology
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Workshop 7.5:
Transmission planning for a renewables-heavy future
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Workshop 8.1:
The principles of demand response programs
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Workshop 8.2:
Shifting load to match renewable generation
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Workshop 8.3:
The role of smart appliances and home automation
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Workshop 8.4:
The economics of demand response
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Workshop 8.5:
The importance of a "data story map"
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Workshop 9.1:
The impact of renewables on wholesale electricity markets
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Workshop 9.2:
Designing markets to incentivize flexibility
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Workshop 9.3:
The role of capacity markets
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Workshop 9.4:
The value of a "data story map"
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Workshop 9.5:
New business models for energy markets
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Workshop 10.1:
Identifying cybersecurity threats to the grid
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Workshop 10.2:
Best practices for securing grid assets
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Workshop 10.3:
Protecting communication networks and data
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Workshop 10.4:
The role of a "stakeholder analysis"
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Workshop 10.5:
The future of grid security
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Workshop 11.1:
The concept of a microgrid
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Workshop 11.2:
Integrating multiple energy sources in one system
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Workshop 11.3:
The role of microgrids in resilience
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Workshop 11.4:
Designing and implementing a hybrid system
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Workshop 11.5:
The importance of a program's theory of change
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Workshop 12.1:
The economics of renewable integration
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Workshop 12.2:
Cost-benefit analysis of new technologies
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Workshop 12.3:
The role of government regulations and policy
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Workshop 12.4:
New business models for utilities
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Workshop 12.5:
The importance of a clear and compelling KPI
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Workshop 13.1:
An introduction to power system analysis software
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Workshop 13.2:
Simulating the impact of renewables on the grid
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Workshop 13.3:
Power flow and transient stability studies
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Workshop 13.4:
The role of a "data story map"
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Workshop 13.5:
Modeling for different planning horizons
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Workshop 14.1:
Case study: Germany's "Energiewende"
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Workshop 14.2:
Case study: Grid integration in a specific market
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Workshop 14.3:
Lessons learned from global successes and failures
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Workshop 14.4:
The future of grid technology
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Workshop 14.5:
The politics of renewable integration
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Workshop 15.1:
Corporate procurement of renewable energy
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Workshop 15.2:
The role of corporate power purchase agreements (PPAs)
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Workshop 15.3:
Investing in energy transition
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Workshop 15.4:
The importance of a "stakeholder analysis"
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Workshop 15.5:
Building a corporate sustainability strategy
