INTRODUCTION FOR RENEWABLE ENERGY
Renewable energy is energy derived from natural sources that are replenished faster than they are consumed, such as sunlight, wind, water, biomass, and geothermal heat.
Renewable energy, also called green energy, comes from natural resources that are virtually inexhaustible on a human timescale. The most widely used types include solar energy, wind power, and hydropower, while bioenergy and geothermal power are significant in certain regions. Other emerging sources include tidal and wave energy, which harness the ocean’s natural rhythms. Renewable energy can be deployed in both large-scale installations like dams and wind farms, and small-scale systems suitable for urban or rural areas
This course is designed to provide a broad understanding of the improvement methodology, concepts, and process. The methodology is presented with case studies and examples drawn from service, business process and applications. With a heavy practice orientation, as much as a third of your time will be spent working through interactive practice exercises and assessments. This course is designed as an introduction to concepts and methodology.
COURSE OBJECTIVES
This training program is designed to provide an understanding of engineering related problems related to industry globally and a clear sense of what is required to effectively structure, establish measurements and solve the said problems. Participants will learn the goals and deliverables behind the solutions. Methodology as well as the most commonly used tools within each phase will be discussed. Participants will also learn how to support a problem solving initiative within their organization.
LEARNING OUTCOMES
On successful completion of this course, the participant should be able to:-
- Identify and describe the functioning of different forms of renewable energy.
- Perform economical and technical feasibility assessment on renewable energy.
- Propose basic design, operational, and maintenance works related to renewable energy.
TRAINING METHODOLOGY
- The latest educational methods and strategies will be utilized.
- The course is designed to maximize delegate participation.
- Questions and answers are encouraged throughout and at the daily wrap-up sessions. This gives participants the opportunity to discuss with others and the presenter their specific problems and appropriate solutions.
- The course shall be conducted through lectures, case studies, group discussions and exercises to reinforce participant’s learning.
WHO SHOULD ATTEND
This course is designed for professionals including engineers, managers, quality assurance, manufacturing and sales personnel desiring to build upon a solid foundation in the area of facility equipment maintenance etc.
COURSE CONTENT
Day1
Module 1 (Hydrogen Technology)
Introductory remarks on hydrogen
- Key properties of hydrogen
- Phase diagram & Major forms
- Flammability of hydrogen
Hydrogen generation
- Electrolysis
- Syngas production
- Steam reforming/Super-critical water reforming
Hydrogen transport
- Gas transport – pipeline
- Liquid transport – pipeline
- Tankers
Hydrogen storage
- Gas storage
- Cryogenic storage
- Metal hydride storage
Hydrogen utilization
- Fuel cell system (hybrid)
- Hydrogen/NH3 engine
- Hydrogen-fueled Free-piston Linear Generator
Module 2 (Solar Energy)
Introductory remarks on sun and solar
- Introduction to Sun and Solar Radiation
- Major definitions
- Sun and the earth
- Solar angles
Legal requirements/governance (MIGHT, SIRIM for PV)
- Scenario of solar energy and Greenhouse phenomena
- Solar constants and basic relations
- Solar energy scenario
- Solar radiation scenario
- Greenhouse phenomena.
Solar conversion technologies
- Classification of solar conversions
- Solar radiation-to-thermal energy
- Solar radiation-to-electric energy
- Solar radiation-to-Bioenergy
Design consideration of solar technologies
- Factors to be considered in solar system design
- Challenges of Designing with Solar Technology
- Solar PV System Design Considerations
- Design considerations for “Solar Heated” homes.
- Design Considerations for Concentrating Solar Power Tower Systems
Operational and maintenance considerations of solar technologies
- Operation and Maintenance of Photovoltaic projects
- Operation and maintenance of solar heating systems
- Operation and maintenance of solar Energy Storage Systems
Feasibility evaluation of solar technologies
- Energy storage
- Technologies of solar energy storage
- Solar Thermal storage
- Solar electric storage
Day2
Module 3 (Wind, Tidal, Oceanic Energy & Geothermal Energy)
Introduction to Wind Power
- Design consideration in Wind Power Operation
- Installation to Commissioning and Maintenance & Troubleshooting
- Risk and safety
- Future of Wind Energy
- Design: The Malaysian context
Introduction to Ocean Energy
- Wave and tidal techniques
- Design considerations in Wave and tidal Energy Operations
- Wave and tidal techniques
- Basic design in Wave and tidal Energy Operations
- Wave and tidal techniques
- Maintenance & Troubleshooting
Geothermal Energy
- Overview of geothermal energy
- Available technology for geothermal energy utilization
- Feasibility assessment for geothermal energy
- Operational consideration for geothermal power plant
- Maintenance considerations for geothermal power plant
Module 4 (Biomass Energy)
Introduction
- Prospect of biofuel in Malaysia
- Renewable energy policy in Malaysia
- Sources of potential biomass
Type of first & second biofuels, processing & design
- Biodiesel
- Bioethanol
- Biogas
- Third generation- Microalgae biomass and biofuel
Cultivation
- Harvesting & drying
- Potential biofuel production
- Integration of wastewater and flue gases
- Energy balance & carbon cycle & economic considerations
Question &Answer Session
End of Workshop
