15 Topics
5 Days
75 Sessions
Programme Overview
Training Description
Who Should Attend
This course is ideal for;
1. Electrical and Mechanical Engineers
2. Renewable Energy Technicians
3. Project Managers and Site Supervisors
4. Solar and Wind Installers
5. Utility and Power Generation Staff
6. Researchers and Academics
7. Students in Engineering
8. Technology Development Professionals
9. Consultants in Renewable Energy
10. Professionals transitioning into the energy sector
Session Objectives
- Master the foundational principles of solar, wind, and other renewable energy systems.
- Learn about the key components and architecture of different renewable energy systems.
- Understand the technical and engineering considerations for system design.
- Grasp the complexities of integrating renewable energy sources into the grid.
- Develop proficiency in assessing site-specific resource potential.
- Explore best practices in installation, operations, and maintenance.
- Learn about robust approaches to system performance monitoring and optimization.
- Identify the critical safety, electrical, and mechanical considerations.
- Develop skills in using software tools for system design and simulation.
- Formulate strategies for a data-driven approach to energy transition.
About the Course
The global energy transition is being built on a foundation of sophisticated renewable energy systems, which require a deep understanding of engineering principles, component interactions, and system-level design. Moving from conventional power generation to clean, decentralized sources is a complex technical challenge that demands specialized knowledge. Whether it is a small-scale solar installation or a large-scale wind farm, the success and efficiency of these projects depend on the ability of engineers and technicians to design, install, and operate them with precision and expertise. This course is designed to provide the core technical foundation required to master these systems.
This program provides a comprehensive and practical deep dive into the engineering of renewable energy systems. Participants will gain a fundamental understanding of the core components, design methodologies, and operational best practices for the most prevalent renewable technologies. The course covers everything from the physics behind solar PV and wind turbine aerodynamics to the intricacies of electrical systems and grid integration. By focusing on hands-on application and real-world system examples, attendees will be equipped to tackle the technical challenges of the clean energy industry and contribute to the development of robust, reliable, and high-performance renewable energy projects.
Curriculum & Topics
15 Topics | 75 Sessions
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Workshop 1.1:
The global energy landscape and the role of renewables
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Workshop 1.2:
The physics of energy conversion
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Workshop 1.3:
The concept of a renewable energy system
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Workshop 1.4:
Key system metrics: efficiency, capacity factor, and yield
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Workshop 1.5:
An overview of a renewable energy project lifecycle
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Workshop 2.1:
The science of solar PV cells and modules
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Workshop 2.2:
Components of a solar PV system: panels, inverters, racking
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Workshop 2.3:
Sizing and designing a solar system
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Workshop 2.4:
On-grid vs. off-grid PV systems
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Workshop 2.5:
System performance analysis and monitoring
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Workshop 3.1:
The role of inverters and charge controllers
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Workshop 3.2:
Different types of solar panels and their characteristics
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Workshop 3.3:
Battery storage systems for solar
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Workshop 3.4:
Mounting and tracking systems
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Workshop 3.5:
Electrical wiring and system protection
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Workshop 4.1:
The physics of wind power
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Workshop 4.2:
Components of a modern wind turbine
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Workshop 4.3:
Aerodynamics and blade design
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Workshop 4.4:
Onshore vs. offshore wind turbines
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Workshop 4.5:
Wind resource assessment and site analysis
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Workshop 5.1:
The drivetrain: gearbox and generator
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Workshop 5.2:
The role of a clear and focused research question
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Workshop 5.3:
The nacelle and its contents
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Workshop 5.4:
Tower, foundation, and electrical systems
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Workshop 5.5:
The importance of a clear and consistent reporting style
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Workshop 6.1:
The challenges of grid integration
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Workshop 6.2:
Grid-tie inverters and their function
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Workshop 6.3:
Grid codes and interconnection standards
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Workshop 6.4:
The impact of renewable systems on grid stability
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Workshop 6.5:
The role of smart grid technologies
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Workshop 7.1:
Performing a load assessment
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Workshop 7.2:
Matching system components for optimal performance
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Workshop 7.3:
Using software for system design (e.g., PVsyst, Helioscope)
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Workshop 7.4:
Layout considerations and shading analysis
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Workshop 7.5:
The importance of a simple scorecard and a dashboard
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Workshop 8.1:
The importance of O&M for system lifespan
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Workshop 8.2:
Preventive vs. corrective maintenance
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Workshop 8.3:
The role of a "risk and mitigation" plan
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Workshop 8.4:
Performance monitoring and troubleshooting
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Workshop 8.5:
Best practices for O&M
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Workshop 9.1:
Electrical circuits and system protection
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Workshop 9.2:
DC and AC wiring considerations
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Workshop 9.3:
Grounding and lightning protection
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Workshop 9.4:
Electrical safety procedures and standards
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Workshop 9.5:
The importance of a "data story map"
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Workshop 10.1:
The role of energy storage in renewable systems
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Workshop 10.2:
Different types of batteries
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Workshop 10.3:
Designing a hybrid solar-wind system
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Workshop 10.4:
The concept of a microgrid
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Workshop 10.5:
The importance of a program's theory of change
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Workshop 11.1:
The principles of hydropower
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Workshop 11.2:
Small-scale hydro systems
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Workshop 11.3:
The basics of geothermal energy systems
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Workshop 11.4:
Direct use vs. power generation
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Workshop 11.5:
The role of a "stakeholder analysis"
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Workshop 12.1:
Factors affecting system performance
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Workshop 12.2:
The importance of data analytics
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Workshop 12.3:
Using real-time data for optimization
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Workshop 12.4:
Predictive maintenance strategies
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Workshop 12.5:
The importance of a clear and compelling KPI
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Workshop 13.1:
The project lifecycle for renewable systems
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Workshop 13.2:
Cost estimation and budgeting
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Workshop 13.3:
Permitting and regulatory compliance
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Workshop 13.4:
Managing construction and installation
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Workshop 13.5:
Quality control and assurance
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Workshop 14.1:
Case study: A large-scale utility solar project
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Workshop 14.2:
Case study: An offshore wind farm
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Workshop 14.3:
Case study: An off-grid solar system for a community
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Workshop 14.4:
Lessons learned from the field
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Workshop 14.5:
The future of renewable energy systems
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Workshop 15.1:
Government policies that support renewables
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Workshop 15.2:
The role of incentives and subsidies
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Workshop 15.3:
The legal and regulatory environment
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Workshop 15.4:
Navigating the permitting process
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Workshop 15.5:
The importance of a clear and focused research question
