Renewable Integration & Grid Engineering

1. Training Introduction

With the global shift toward renewable energy, integrating variable energy sources into existing power grids is a critical challenge for utilities, operators, and planners. This programme equips participants with the technical, operational, and analytical skills required to design, operate, and optimize power systems with high renewable penetration.

Participants will learn grid engineering principles, system stability, power quality, control strategies, energy storage integration, and advanced simulation techniques. Hands-on exercises and case studies will ensure practical understanding of challenges and solutions for reliable, sustainable, and economically efficient power systems.

 

2. Training Objective

By the end of this programme, participants will be able to:

1. Understand renewable energy technologies and their impact on grid operations.
2. Analyze grid stability, reliability, and power quality in systems with high renewable penetration.
3. Apply grid integration techniques for solar, wind, and other distributed energy resources (DERs).
4. Design and optimize control strategies, storage solutions, and microgrids.
5. Evaluate economic and technical feasibility of renewable integration projects.
6. Utilize simulation tools for grid analysis and planning.
7. Recommend solutions for policy, planning, and operational challenges in renewable integration.

 

3. Targeted Group

This programme is suitable for:

• Power systems engineers and planners
• Grid operators and control room staff
• Renewable energy project developers
• Energy analysts and consultants
• Utility managers and technical decision-makers
• Policy and regulatory professionals in energy
• Graduate students specializing in power systems or renewable energy

 

4. Course Duration

• Total Duration: 2 Weeks
• Weekly Commitment: 16 Learning Hours (Sessions + Labs + Exercises)

Total Learning Hours: ~40–45 hours

 

5. Training Methodology

A blended learning approach combining:

• Instructor-led lectures and technical discussions
• Hands-on labs and simulation exercises
• Case studies from real-world power grids
• Group workshops and problem-solving exercises
• Practical assignments with renewable integration scenarios
• Interactive Q&A and peer learning sessions
• Capstone project applying all module concepts

Assessment includes quizzes, practical exercises, lab reports, and a final capstone project.

 

6. Course Modules & Content

Module 1 — Introduction to Renewable Energy & Grid Systems

• Overview of grid architecture and operation
• Renewable energy technologies: solar, wind, hydro, biomass
• Impact of variable generation on grid operations
• Grid interconnection requirements

Hands-on: Identify renewable integration points in a sample grid

 

Module 2 — Power System Fundamentals

• AC and DC system basics
• Load flow analysis
• System stability and reliability fundamentals
• Fault analysis and protection coordination

Workshop: Simulate basic load flow using grid software

 

Module 3 — Renewable Integration Techniques

• Grid connection standards and requirements
• Inverter-based generation challenges
• Balancing variable generation with conventional sources
• Grid codes and compliance for renewables

Activity: Case study of a solar PV integration project

 

Module 4 — Grid Stability & Power Quality

• Voltage and frequency stability
• Harmonics, flicker, and reactive power management
• Islanding detection and mitigation
• Control strategies for stable operation

Lab: Power quality monitoring with simulated data

 

Module 5 — Energy Storage & Microgrid Integration

• Battery storage systems and sizing
• Hybrid microgrid design
• Energy management and optimization
• Demand response integration

Exercise: Design a microgrid with renewable and storage components

 

Module 6 — Control, Monitoring & Automation

• SCADA systems and advanced monitoring
• Grid automation for renewable integration
• Forecasting renewable generation
• Real-time control strategies

Hands-on: Simulate renewable output and dispatch control

 

Module 7 — Economic & Technical Assessment

• Cost-benefit analysis for renewable projects
• Reliability vs. economic trade-offs
• Planning for grid expansion and flexibility
• Policy incentives and regulatory considerations

Workshop: Economic feasibility analysis of a wind-solar hybrid project

 

Module 8 — Capstone Project: Integrated Renewable Grid Solution

• Apply learned concepts to a practical scenario
• Develop a plan for renewable integration into an existing grid
• Perform simulations and evaluate technical/economic viability
• Present solutions to peers and facilitators

Deliverable: Capstone report and presentation

 

7. Expected Outcomes

Participants completing this programme will:

✔ Demonstrate understanding of grid engineering principles for renewable integration
✔ Analyze technical, operational, and economic impacts of variable generation
✔ Apply grid stability, control, and monitoring techniques
✔ Design microgrid and storage solutions
✔ Evaluate project feasibility and provide recommendations
✔ Use simulation tools to support planning and operational decisions
✔ Present data-driven solutions to stakeholders

 

8. Certificate of Completion

Participants who:

• Attend at least 80% of sessions
• Complete module assignments and exercises
• Submit and present the capstone project

will receive a Certificate of Completion issued by:

FOTADE Training, Research and Resource Development Centre

Certificate Details Include:

• Participant’s Full Name
• Programme Title: Renewable Integration & Grid Engineering
• Duration & Completion Date
• Summary of Skills Acquired
• Official Seal & Signature of Programme Director