Course Overview
Water-based renewable energy systems—hydropower and wave energy—are vital components of the global clean energy transition. This course provides a comprehensive introduction to the technologies, design principles, operational considerations, and environmental impacts associated with wave and hydro power systems.
Participants will explore the fundamentals of energy capture from moving water, including the physics of wave and hydraulic energy, system types and components, site selection criteria, integration with grids, and performance evaluation. Special attention is given to both traditional hydroelectric power and emerging marine energy technologies.
Course Objectives
By the end of this course, participants will be able to:
- Understand the physical principles behind wave and hydropower generation.
- Identify and describe various hydro and wave energy systems and technologies.
- Evaluate site selection factors, energy potential, and environmental considerations.
- Analyze system design, component functionality, and performance metrics.
- Explore the regulatory, economic, and operational aspects of project development.
- Review case studies highlighting global deployments and innovations.
Who Should Attend
This course is suitable for:
- Renewable energy engineers and project developers
- Civil, mechanical, and electrical engineers
- Environmental and marine consultants
- Utility and power system planners
- Government officials and energy regulators
- Energy investors and financing professionals
- Technical educators and students in renewable energy
Course Outline
- Introduction to Water-Based Renewable Energy
- Global overview of wave and hydropower
- Comparison of hydro, tidal, and wave energy systems
- Role in global and regional renewable energy strategies
- Key benefits and challenges of water-based power
- Fundamentals of Hydro Power
- Basic hydrology and the water cycle
- Head, flow rate, and power output calculations
- Types of hydroelectric systems:
- Run-of-the-river
- Reservoir-based (dam) systems
- Pumped storage hydro (PSH)
- Small hydro vs. large hydro technologies
- Components of Hydro Power Systems
- Intake structures and penstocks
- Turbines: Kaplan, Francis, Pelton, crossflow
- Generators, transformers, and control systems
- Civil works and dam engineering basics
- Transmission and grid connection considerations
- Wave Energy Conversion
- Ocean wave mechanics and energy potential
- Types of wave energy converters (WECs):
- Oscillating water column
- Point absorbers
- Attenuators and overtopping devices
- Offshore vs. nearshore deployment options
- Mooring, anchoring, and marine engineering considerations
- Site Assessment and Resource Evaluation
- Tools and methods for hydrological and marine data analysis
- Site selection for hydropower: elevation, river flow, land use
- Site selection for wave energy: wave height, period, direction
- Environmental impact assessments and mitigation strategies
- Social and community considerations
- System Design and Integration
- Power system modeling and layout planning
- Electrical systems and energy storage integration
- Hybrid systems: wave-wind, hydro-solar, etc.
- Load following and grid balancing with hydropower
- Remote and off-grid applications
- Economic, Policy, and Regulatory Aspects
- Capital and operational cost drivers
- Financial viability and levelized cost of electricity (LCOE)
- Regulatory frameworks and licensing procedures
- Incentives, subsidies, and power purchase agreements (PPAs)
- Risk management and insurance in water-based energy projects
- Innovations, Case Studies, and Future Outlook
- Advances in wave energy materials and design
- Digital monitoring and automation in hydropower
- Environmental innovations: fish-friendly turbines, sediment control
- Global case studies from Norway, Scotland, China, Canada, and others
- Future prospects: floating hydro, modular marine energy parks, and R&D directions