Electricity and Power Production from Renewable Energy Technologies
Description
This course is dedicated in communicating the fundamentals of electricity production technologies from renewable energy and design principles of such systems, including the challenges of integrating renewables and other technologies into the distribution network and transmission network (bulk-power system) while maintaining safe, efficient, and cost-effective grids. The course provides an understanding to renewable sources and technologies such as solar energy, photovoltaics, concentrating solar power systems, wind and wind converters, hydro, geothermal, biomass, wave and tidal power, smart grid and microgrids and electricity storage. The course will also provide an understanding of the concepts of sustainability, systems thinking and Life Cycle Analysis (LCA) and incorporation of these concepts into renewable energy systems. The class will explore the potential advantages of low-carbon energy in developing a low-carbon economy and society.
Learning objectives
This course will be focused on academic achievement, acquisition of knowledge and enhancement of comprehension of information regarding renewable energy sources and technologies for electricity production and their sustainable applications. Students will practice knowledge-based critical thinking and solution offering about established and emerging innovative technologies for electricity production. Students completing this course will be able to:
- Identify renewable energy sources and estimate their potential;
- Have an understanding of the existing and emerging RET for electricity production;
- Understand the different components and main configurations of RET;
- Analyze components and configurations of renewable power generation, energy storage, distribution and transmission networks for renewable energy systems;
- Have an understanding of the needs of the EU network and understand the challenges for the development and operation of renewable energy systems;
- Have an understanding of LCA and applications;
- Develop a critical thinking about sustainability & resilience; and
- Determine potential solutions for energy needs and problems by incorporating renewable energy technologies for electricity production.
| WEEK | Lectures |
| 1ST | The EU electric power industry and grid – (Karavas) |
| 2ND | The solar resource, solar geometry and panel orientation and tracking – (Papadakis) |
| 3RD | Photovoltaic materials and electrical characteristics – (Papadakis) |
| 4TH | Photovoltaic modules and systems (grid connected & standalone) – (Papadakis) |
| 5TH | Concentrating solar power systems – (Papadakis) |
| 6TH | The wind resource – (Papadakis) |
| 7TH | Energy and power in the wind – Estimating wind turbine energy production – (Papadakis) |
| 8TH | Wind turbine types, generators and basic wind turbine rotor aerodynamics – (Papadakis/Karavas) |
| 9TH | Hydroelectric power – Biomass – Geothermal energy – Wave energy conversion – Tidal power (Papadakis/invited) |
| 10TH | Smart grid – Microgrids – Electricity storage – Electric vehicles (Karavas/Kyriakarakos) |
| 11TH | Hydrogen production from renewable energy – Fuel cells (Kyriakarakos) |
| 12TH | Economics of renewable energy – (Kyriakarakos) |
| 13TH | Renewable energy and the environment and sustainable development – (Papadakis) |
Assignments – indicative
1. Design and estimation of yearly energy production of fixed, one axis and two axis tracking photovoltaic park (Karavas)
2. Design and modelling of a large-scale photovoltaic plant (Karavas/Kyriakarakos)
3. Estimation of yearly energy production of a wind turbine/park at a location with given wind potential (Papadakis)
4. An assignment on Life-Cycle Environment Impact of renewables (Papadakis/Kyriakarakos)
Exams, marking and student assessment
Assignments: 60%, Written exam(s): 40%