Course Details

Building Acoustics and Daylighting

Academic Year 2026/27

BHA063-A course is part of 1 study plan

BPA-SIS Summer Semester 3rd year

The course focuses on branches of building physics, namely building acoustics and daylighting. With the acquired knowledge the student will be able to evaluate the internal and external environment of buildings in relation to legislative requirements concerning noise, daylighting and sunlight. Furthermore, the student will be able to correctly evaluate the impact of the proposed buildings on the existing surrounding buildings.

Credits

4 credits

Language of instruction

English

Semester

summer

Course Guarantor

Institute

Forms and criteria of assessment

course-unit credit and examination

Aims

Professional knowledge
  • The student understands fundamental principles of building physics, particularly in areas of building acoustics and daylighting.
  • The student understands the legislative requirements related to the fields building acoustics.
  • Knows the assessment methods to determine sound insulation capabilities of structures to achieve acoustic comfort and indoor environmental quality.
  • Is familiar with software tools used for the simulation and analysis of acoustic parameters.
Professional skills
  • Can carry out basic analyses of building structures and objects (acoustic analysis and daylighting).
  • Can identify critical details in terms of building acoustics (for structures) and daylighting (orientation of openings, dimensions of openings, spacing distances).
  • They can propose measures to improve acoustic comfort and the quality of daylight in buildings.
  • Do have the ability to independently use appropriate software tools for the simulation and evaluation of physical properties of buildings.
  • Can interpret the results of analyses and apply them to the design.
Qualifications
  • The student can independently design and evaluate building structures and details in terms of acoustic and lighting technical requirements. The student can evaluate a building as a whole, including its relationship to surrounding buildings.
  • Can come up with appropriate solutions to meet the required physical parameters of the building.
  • Is able to translate the results to the professional and wider public.

Basic Literature

Laws and standards if English translation is available. (en)
KUTTRUFF, Heinrich. Room acoustics. Sixth edition. Boca Raton: CRC Press, 2019. ISBN 9780367870997. (en)
BARRON, Randall F. Industrial noise control and acoustics. New York: Dekker, c2003. ISBN 0-8247-0701-X. (en)
PATEL, Raj. Architectural acoustics: a guide to integrated thinking. London: RIBA Publishing, [2020]. ISBN 978-1-85946-636-0. (en)
DILAURA, David L.; HOUSER, Kevin W.; MISTRICK, Richard G. a STEFFY, Gary R. (ed.). The lighting handbook: reference and application. Tenth edition. New York.: Illuminating Engineering Society, [2011]. ISBN 978-0-87995-241-9. (en)
SLL Lighting Handbook. CIBSE Chartered Institution of Building Services Engineers. 2018. 519 s. ISBN 9781912034413 (en)
KITTLER, Richard; KOCIFAJ, Miroslav a DARULA, Stanislav. Daylight science and daylighting technology. New York: Springer, [2012]. ISBN 978-1-4419-8815-7. (en)

Recommended Reading

DARULA, Stanislav. Daylighting in the exterior and interior. Edícia skrípt. Bratislava: Publisher STU, 2011. ISBN 978-80-227-3553-7. (en)
PORCELLO, Thomas a PATCH, Justin. Re-making sound: an experiential approach to sound studies. New York: Bloomsbury Academic, 2022. ISBN 978-1-5013-5473-1. (en)

Offered to foreign students

To offer to students of all faculties

Course on BUT site

Lecture

13 weeks, 2 hours/week, elective

Syllabus

  1. Introduction to daylight in buildings. Solar radiation. Exposure to sunlight with relation to the interior of proposed building.
  2. Light and photometry. Daylight in buildings with relation to the interior of proposed object.
  3. Available methods of evaluation daylight in buildings.
  4. Shading of surrounding buildings caused by proposed object. Importance of volumetric studies.
  5. Fundamentals of acoustics from viewpoint of physics, Propagation of sound in open environments - sound field.
  6. Acoustic resistance of structures. Airborne noise resistance. Evaluation methods.
  7. Impact noise resistance of structures. Methods of determination and evaluation of impact noise resistance.
  8. Urban acoustics. Attenuation of noise. Computer tools for assessment of urban acoustics.
  9. Legislation and urban acoustics.
  10. Noise resistance of peripheral structures.
  11. Fundamentals of spatial acoustic. Acoustic field, reverberation time. Evaluation methods.
  12. Materials used in spatial acoustics. Absorbers and reverberators.
  13. Showcase – monitoring of acoustics and optical quantities.

Exercise

13 weeks, 2 hours/week, compulsory

Syllabus

  1. Daylight in buildings: Exposure to sunlight.
  2. Daylight in buildings: Daylight.
  3. Building acoustics: Noise resistance of structures.
  4. Building acoustics: Urban acoustics.
  5. Building acoustics: Noise resistance of peripheral structures.
  6. Summary.

Self-study

26 weeks, 1 hours/week

Individual preparation for an ending of the course

39 weeks, 1 hours/week