| Course | Number of hours | ECTS points | Form of verification | Obligatory |
|---|---|---|---|---|
Advanced Building and Urban Engineering
|
Tutorials: 15 Laboratory classes: 30 Lecture: 15 |
5 | Exam | Obligatory |
|
Tutorials: 15 Laboratory classes: 30 Lecture: 15 |
5 | Exam | Obligatory |
Conventional and Future Energy Sources
|
Tutorials: 15 Laboratory classes: 30 Lecture: 15 |
5 | Graded assignment | Obligatory |
Principles of Sustainable Design
|
Tutorials: 30 Lecture: 15 |
4 | Graded assignment | Obligatory |
Electrical Power System
|
Tutorials: 15 Laboratory classes: 30 Lecture: 15 |
5 | Graded assignment | Obligatory |
|
Tutorials: 30 Lecture: 10 |
4 | Graded assignment | Obligatory group |
|
Tutorials: 20 |
2 | Graded assignment | Obligatory group |
| Sum | 345 | 30 |
Study programme Energy Systems in the Built Environment (in English)
Graduates of the Energy Systems in the Built Environment study are interdisciplinary specialists in energy and building performance. Their professional activities stem from acquired expertise and are primarily focused on the built environment, including single buildings, building complexes, housing estates, and entire cities, with integrated energy infrastructure. During their studies, students acquire advanced, interdisciplinary knowledge of the engineering of physical processes in the built environment, enabling them to analyse, assess, and improve energy efficiency towards reduce environmental impact. They are familiar with modern methods for assessing building energy efficiency (building performance), techniques and tools for analysing cities, buildings, and building technical systems (building performance simulation), city and building solutions (smart cities and sustainable buildings), and broadly defined energy management methods in the built environment (energy management). They possess the skills to apply advanced methods and tools, including programs for building performance simulation and interactions in the built environment. They can pursue professional careers in areas related to energy efficiency, environmental certification, and environmental
protection, requiring knowledge of simulation tools, the latest technologies, and environmental assessment methods. They can serve as energy experts, advisors and coordinators for all types of engineering projects, requiring knowledge of process engineering, environmental engineering, building physics, electrical engineering, and automation. Graduates are prepared to work in industry, public administration, consulting companies, design offices, and any field of the modern energy sector. They can also work as independent energy specialists, serving as consultants, auditors, or certification experts in the broadly defined construction industries.
Chair of the Programme Board: prof. dr hab. inż. Dariusz Heim
View full programme description
The programme was approved by Senate Resolution No. 34/2026 of 25 February 2026.
| Course | Number of hours | ECTS points | Form of verification | Obligatory |
|---|---|---|---|---|
Building Energy Performance
|
Project work: 150 |
14 | Graded assignment | Obligatory subjects to choose from |
Smart Buildings and Cities
|
Project work: 150 |
14 | Graded assignment | Obligatory subjects to choose from |
English for Science Communication
|
Tutorials: 45 |
2 | Graded assignment | Obligatory |
| Sum | 345 | 30 |
| Course | Number of hours | ECTS points | Form of verification | Obligatory |
|---|---|---|---|---|
Best Practice in Building and System Design
|
Seminar: 30 Project work: 45 |
6 | Graded assignment | Obligatory |
Seminar & Competency Exam
|
Seminar: 15 |
4 | Graded assignment + exam | Obligatory |
Diploma Thesis
|
Diploma Thesis: 0 |
20 | Pass | Obligatory subjects to choose from |
| Sum | 90 | 30 |