The Energy Engineering curriculum is designed to produce graduates equipped to function in entry level Energy Engineering positions with a strong basis for continued career growth. The curriculum reflects input from both industry and universities. It responds to industry requests for both increased emphasis in technical orientation and improved skill in individual and group interactions. The curriculum requires an embedded problem solving and critical thinking framework in all courses. The exit characteristics of Energy Engineering graduates are defined in the report. The curriculum has formal Energy Engineering courses but also assumes use of prerequisite courses in communications, fundamentals of electric-electronics, mathematics and statistics, business functions and technical drawing. The communications prerequisite courses should provide students with listening skills and the knowledge to be effective in written and oral communication. The fundamentals of electric-electronics should provide basic knowledge about electrical, electronics and control engineering. The mathematics and statistics prerequisites should provide basic quantitative and qualitative techniques. The business courses should cover common business functions, economics, and international considerations.
Semester 1 | ||||
Nr | Modules | |||
1 | Fundamental Energy Resources | |||
2 | Technical Drawing / CAD … | |||
3 | Academic and Social Orientation | |||
4 | Fundamentals of Electric-Electronics | |||
5 | Information and Communication Technologies I | |||
6 | Mathematics I | |||
7 | English I | |||
8 | Communication | |||
9 | Job Security | |||
Nr | Modules | |||
10 | Scientific Principles of Energy Technology | |||
11 | Solar Energy Systems | |||
12 | Electrical Control Circuits | |||
13 | Measurement Techniques | |||
14 | Computer Aided Design I | |||
15 | Information and Communication Technologies II | |||
16 | Mathematics II | |||
17 | English II | |||
18 | Business Management | |||
19 | Job Ethics | |||
Semester 3
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Nr | Modules | |||
20 | Power Electronics and Power Supplies | |||
21 | Heat Transfer and Thermodynamics | |||
22 | Energy Storage | |||
23 | Electric Production with Solar Energy | |||
24 | Computer Aided Design II | |||
25 | Location and Map Information | |||
26 | Biomass Energy Production | |||
27 | Energy Economy | |||
28 | Internship (15 work days) | |||
Semester 4 | ||||
Nr | Modules | |||
29 | Electric Production with Wind Power | |||
30 | Project Management | |||
31 | Hydro Energy | |||
32 | Industrial Ecology | |||
33 | Heat Pumps and Geothermal Energy | |||
34 | Microcontrollers / Smart Grids | |||
35 | Energy Management and Policies | |||
36 | Quality Assurance and Standards | |||
37 | Internship (15 work days) | |||
Semester 5 | ||||
Nr | Modules | |||
38 | Sustainability of Buildings | |||
39 | Energy-efficient Building | |||
40 | Light and Lightning Technology | |||
41 | Acoustics + Acoustics Laboratory Practise | |||
42 | Energy Performance Improvement, Structural Damage incl. Practical Thermo-hygric training | |||
43 | Ecology in Building and Construction | |||
44 | Electives (student pick four) | |||
Structural Reliability | ||||
Material Flow Management | ||||
Facade and Window Construction | ||||
Urban ecology and energy | ||||
Reinvigorating existing Buildings | ||||
Trigeneration | ||||
Aerodynamics of Buildings and Structures | ||||
Building Envelopes and Building Climatology | ||||
Urbanism | ||||
Semester 6
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Nr | Modules | |||
53 | Systems Engineerng / Sustainable System Design | |||
54 | Life-Cycle Assessement | |||
55 | Project in Smart Solutions (Haus, Grids, Transport, etc.) | |||
56 | Internship (15 work days) / Project with Industry | |||
60 | Bachelor Thesis |