Programme Description
Bachelor of Science in Renewable Energy Engineering is a four years programme with 493 minimum credits of which 450.5 are credits of core courses, 20 credits of elective courses, and 22.5 credits of industrial practical trainings. In the first two years, students will concentrate on foundation courses in Engineering, Science, Mathematics, Computer, and Technical Communications and the last two years will concentrate on core renewable energy issues, economics, environment and managerial courses. In this programme, coursework, which covers theoretical and laboratory sessions, provides a unique background for science, engineering, and management positions in the industry and government, as well as for the continuation of specialized graduate studies. The laboratory sessions expose students to laboratory practices which involve conducting experiments as the base of research and development. The practical training plays a vital part in most courses to combine theory and practice , and it is a mandatory requirement by the Engineers Registration Board (ERB) which is a regulatory body for all practicing engineers in the country. In this programme, it is envisaged that first, second, and third-year students will have practical training sessions where they will be attached to a particular 63 industry/company. They are expected to solve or work on specific problems in the industry and submit a report. During this practical training session, a student is also expected to identify a project, especially during the 3rd year of studies, which will be submitted as an independent project during the final year. The strength of this programme is that it is geared towards Outcomes-Based Training (OBT) which differs substantially from many university trainings which are classical knowledge- based and content-driven format. It is driven by the acquisition of skills. Most of the contents of the courses are seen as a tool whereby life -skills and competencies can be enhanced; in other words, students will be taught how to think, rather than what to think. The overall intention is to get competent staff in this fast-growing industry who can be absorbed by the labor market both locally and internationally.
Learning Outcomes
- Solve renewable energy engineering problems based on fundamental principles of science, Mathematics, and engineering using available tools.
- Follow and utilize the technological developments that may occur during their careers and recognize the needs of an environmentally sensitive society.
- Practice the aspects of the energy industry and possess an appreciation for the industry as a business opportunity.
- Function professionally and ethically, and understand the social, environmental, regulatory, and safety considerations of the Renewable Energy Engineering profession.
- Implement energy strategies and policies for leading manufacturers, innovative start- ups, and public organisations.
- Effectively communicate, lead, and engage in life-long learning and professional development.
- Design and manage renewable energy systems and related technologies.
Programme Structure
Year 1
Semester One
| Code |
Course Title |
Status |
Credits |
| MN 111 |
Engineering Mathematics I |
Core |
1E+1 |
| MN 112 |
Engineering Drawings |
Core |
1E+1 |
| RE 111 |
Engineering Mechanics I |
Core |
7.5 |
| DS 104 |
Development Perspectives for Earth Sciences |
Core |
7.5 |
| LG 104 |
Communication Skills for Earth Sciences |
Core |
1E+1 |
| RE 112 |
Fundamentals of Electrical Engineering |
Core |
7.5 |
| PE 111 |
Introduction to Computers and Programming I |
Core |
1E+1 |
Semester Two
| Code |
Course Title |
Status |
Credits |
| MN 121 |
Engineering Mathematics II |
Core |
1E+1 |
| MN 122 |
Computer Aided Drafting |
Core |
1E+1 |
| RE 121 |
Electronics and Instrumentation |
Core |
7.5 |
| RE 122 |
Electrical Engineering |
Core |
1E+1 |
| RE 123 |
Introduction to Renewable Energy |
Core |
7.5 |
| PE 125 |
Introduction to Computers and Programming II |
Core |
1E+1 |
| RE 124 |
Industrial Practical Training I |
Core |
7.5 |
Year 2
Semester One
| Code |
Course Title |
Status |
Credits |
| RE 211 |
Engineering Mechanics II |
Core |
7.5 |
| MN 213 |
Engineering Mathematics III |
Core |
1E+1 |
| MP 211 |
Fluid Mechanics |
Core |
1E+1 |
| RE 212 |
Design Methodology and Practice |
Core |
1E+1 |
| RE 213 |
Strength of Materials I |
Core |
1E+1 |
| RE 214 |
Hydropower |
Core |
1E+1 |
| RE 215 |
Marine Energy |
Core |
7.5 |
Semester Two
| Code |
Course Title |
Status |
Credits |
| RE 221 |
Combustion and Heat Transfer |
Core |
1E+1 |
| MN 226 |
Engineering Mathematics IV |
Core |
1E+1 |
| MN 224 |
Engineering Thermodynamics |
Core |
1E+1 |
| AG 224 |
Research Methodology in Earth Sciences |
Core |
1E+1 |
| RE 222 |
Strength of Materials II |
Core |
7.5 |
| RE 224 |
Machine Elements and Design |
Core |
7.5 |
| RE 225 |
Industrial Practical Training 2 |
Core |
7.5 |
Year 3
Semester One
| Code |
Course Title |
Status |
Credits |
| RE 311 |
Computer Aided Design and Simulation |
Core |
7.5 |
| RE 312 |
Energy and Building |
Core |
7.5 |
| RE 313 |
Corrosion Principle and Control |
Core |
7.5 |
| RE 314 |
Control Engineering |
Core |
1E+1 |
| RE 315 |
Solar Photovoltaic Conversion |
Core |
1E+1 |
| RE 316 |
Testing of Materials |
Core |
7.5 |
| RE 317 |
Solar Thermal Conversion |
Core |
1E+1 |
Semester Two
| Code |
Course Title |
Status |
Credits |
| RE 322 |
Turbomachinery |
Core |
7.5 |
| RE 323 |
Bio-energy Technology |
Core |
1E+1 |
| RE 324 |
Power Systems |
Core |
7.5 |
| RE 325 |
Wind Energy |
Core |
1E+1 |
| RE 326 |
Energy Laboratory |
Core |
7.5 |
| RE 328 |
Industrial Practical Training 3 |
Core |
7.5 |
| RE 327 |
Solar Cell Design |
Core |
1E+1 |
Year 4
Semester One
| Code |
Course Title |
Status |
Credits |
| RE 411 |
Energy Storage |
Core |
1E+1 |
| RE 412 |
Energy Policy, Planning, and Economics |
Core |
1E+1 |
| RE 413 |
Energy Systems Modelling |
Core |
7.5 |
| RE 414 |
Geothermal Energy |
Core |
7.5 |
| RE 415 |
Final Year Project I |
Core |
7.5 |
| MN 415 |
Entrepreneurship and Management for Engineers |
Core |
1E+1 |
Semester Two
| Code |
Course Title |
Status |
Credits |
| RE 421 |
Industrial Safety and Maintenance |
Core |
7.5 |
| RE 422 |
Final Year Project II |
Core |
13 |
| RE 423 |
Project Management |
Core |
1E+1 |
| RE 424 |
Energy Efficiency, Management and Audit |
Core |
1E+1 |
| MN 421 |
Engineering Procedures, Ethics, and Professional Conduct |
Core |
7.5 |
| RE 418 |
Mechatronics |
Elective |
1E+1 |
| RE 419 |
Power Electronics and Drive Systems |
Elective |
1E+1 |
| RE 420 |
Vibration |
Elective |
1E+1 |
| RE 425 |
Computational Fluid Dynamics |
Elective |
1E+1 |
| RE 426 |
Industrial Energy Management |
Elective |
1E+1 |
| RE 427 |
Material Science and Engineering |
Elective |
1E+1 |