Energy Sustainability, Resilience, and Climate Adaptability of Modular and Panelized Buildings with a Lightweight Envelope Integrating Active Thermal Protection: Part 2—Design and Implementation of an Experimental Prototype of a Building Module for Modular Buildings
Source abstract
Abstract
The integration of energy-active elements into the building envelope in the form of large-area heating/cooling, active thermal protection (ATP), thermal barriers (TB), and TABS represents a technical solution that is consistent with the principles of energy sustainability, resilience, and adaptability to climate change and ensures affordable and clean energy for all while protecting the climate in the context of the UN Sustainable Development Goals. The aim and innovation of our research is to develop energy multifunctional facades (EMFs) that are capable of performing a dual role, which includes the primary known energy functions of end elements and the additional innovative ability to serve as a source of heat/cooling/electricity. This new function of EMFs will facilitate heat dissipation from overheated facade surfaces, preheating of hot water, and electricity generation for the operation of building energy systems through integrated photovoltaic components. The theoretical assumptions and hypotheses presented in our previous research work must be verified by experimental measurements with predictions of the optimal operation of building energy systems. Most existing studies on thermal barriers are based on calculations. However, there are few empirical measurements that quantify the benefits of ATP in real operation and specify the conditions under which different types of ATP are feasible. In this article, we present the development, design, and implementation of an experimental prototype of a prefabricated building module with integrated energy-active elements. The aim is to fill the knowledge gaps by providing a comprehensive framework that includes the development, research, design, and implementation of combined energy systems for buildings. The design of energy systems will be developed in BIM. An important result of this research is the development of a technological process for the implementation of a contact insulation system with integrated ATP in modular and panel buildings with a lightweight envelope.
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Research context
OpenAlex topics: Building Energy and Comfort Optimization · Architecture and Computational Design
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
Affiliations
Department of Building Services, Faculty of Civil Engineering, Slovak University of Technology in Bratislava, Radlinského 11, 810 05 Bratislava, Slovakia
Funding
EHBconsulting Ltd.
References (61)
Show source-provided references
1. Kalús, D., Šimko, M., and Galváneková, M. (2014). Intelligent Facade System with Active Thermal Protection, Scholars’ Press.
2. Kalús, D., Gašparík, J., Janík, P., Kubica, M., and Šťastný, P. (2021). Innovative building technology implemented into facades with active thermal protection. Sustainability, 13.10.3390/su13084438 ↗
3. Krecké, E.D. (2005). Energetické Zariadenie Budov. Energy Equipment of Buildings. In Vestník ÚPV SR č.: 11/2005. (Patent SK 284 751).
4. ISOMAX (2025, June 16). Available online: https://www.solinterra.si/en/history.html.
5. ISOMAX (2025, June 16). Available online: https://mojdom.zoznam.sk/nezaradene/byvanie-za-tepelnou-barierou-2-cast/.
6. Cvíčela, M. (2011). Analysis of Wall Energy Systems. [Master’s Thesis, Faculty of Civil Engineering, Slovak University of Technology in Bratislava]. SVF-13422-17675.
7. Janík, P. (2013). Optimization of Energy Systems with Long-Term Heat Accumulation. [Master’s Thesis, Faculty of Civil Engineering, Slovak University of Technology in Bratislava]. SvF-13422-16657.
8. (2025, March 23). UTILITY MODEL SK 5749 Y1 (UTILITY MODEL): Method of Operation of a Combined Construction-Energy System of Buildings and Equipment. Date of Entry into Force of the Utility Model: 1.4.2011. In Vestník ÚPV SR č.: 5/2011, 23p. Spôsob Prevádzky Kombinovaného Stavebno-Energetického Systému Budov a Zariadenie: Číslo Prihlášky 5027-2010, Zverejnená 8. 11. 2010 vo Vestníku ÚPV SR č. 11/2010; Úrad Priemyselného Vlastníctva Slovenskej Republiky: Banská Bystrica, Slovakia, 2011; 23p, Available online: https://wbr.indprop.gov.sk/WebRegistre/UzitkovyVzor/Detail/5027-2010.
9. (2025, March 23). UTILITY MODEL SK 5729 Y1 (UTILITY MODEL): Samonosný Tepelnoizolačný Panel pre Systémy s Aktívnym Riadením Prechodu Tepla. [Self-Supporting Thermal Insulation Panel for Systems with Active Heat Transfer Control]. Date of Entry into Force of the Utility Model: 28.2.2011. In Vestník ÚPV SR No. 4/2011, Banská Bystrica, Slovak Republic, 32 p. Samonosný Tepelnoizolačný Panel pre Systémy s Aktívnym Riadením Prechodu Tepla: Číslo Prihlášky UV 5030-2010, Zverejnená 7. 10. 2010 vo Vestníku ÚPV SR č. 10/2010; Úrad Priemyselného Vlastníctva Slovenskej Republiky: Banská Bystrica, Slovakia, 2011; 32p, Available online: https://wbr.indprop.gov.sk/WebRegistre/UzitkovyVzor/Detail/5030-2010.
10. (2025, March 23). UTILITY MODEL SK 5725 Y1 (UTILITY MODEL): Tepelnoizolačný Panel pre Systémy s Aktívnym Riadením Prechodu Tepla: Číslo Prihlášky UV 5031-2010, Zverejnená 7.10. 2010 vo Vestníku ÚPV SR č. 10/2010; Úrad Priemyselného Vlastníctva Slovenskej Republiky: Banská Bystrica, Slovakia, 2011; 63p, Available online: https://wbr.indprop.gov.sk/WebRegistre/UzitkovyVzor/Detail/5031-2010.
11. (2025, March 23). EUROPEAN PATENT EP 2 572 057 B1. Heat Insulating Panel with Active Regulation of Heat Transition. International Application Number: PCT/SK2011/000004, International Publication Number: WO 2011/146025 (24.11.2011 Gazette 2011/47). 15 October 2014. 67p. Available online: https://register.epo.org/application?number=EP11716446&tab=main&lng=en10.
12. Insulation panels for active control of heat transfer in walls operated as space heating or as a thermal barrier: Numerical simulations and experiments10.1016/j.enbuild.2017.10.019 ↗
13. Experimental house EB2020–Research and experimental measurements of an energy roof10.1016/j.enbuild.2021.111172 ↗
14. Energy Balance of a Low Energy House with Building Structures with Active Heat Transfer Control10.3311/PPme.17462 ↗
15. Combined Building-Energy Systems with Heat Transfer Control by Building Constructions using RES10.1088/1757-899X/1203/3/032091 ↗
16. Contribution to research on ground heat storages as part of building energy systems using RES10.1016/j.enbuild.2022.112125 ↗
17. (2025, March 23). SIP-EUROPE Group–Company Website. Available online: https://www.sipeurope.eu/sipeurope-group/.
18. Assessment of effect of climate change on hygrothermal performance of cross-laminated timber building envelope with modular construction10.1016/j.csite.2021.101703 ↗
19. Volpe, S., Sangiorgio, V., Petrella, A., Coppola, A., Notarnicola, M., and Fiorito, F. (2021). Building envelope prefabricated with 3D printing technology. Sustainability, 13.10.3390/su13168923 ↗
20. Improving the livability of lightweight emergency architectures: A numerical investigation on a novel reinforced-EPS based construction system10.1016/j.buildenv.2021.108601 ↗
21. Wood building construction: Trends and opportunities in structural and envelope systems10.1007/s40725-023-00196-z ↗
22. Energy efficiency in modular emergency shelters: Impact of envelope finishings and shadowing10.1016/j.jobe.2024.110029 ↗
23. Thermal performance study on the outer wall of a new ultra-low energy modular wall prefabricated building10.1016/j.jobe.2024.111382 ↗
24. Analyzing the impact of design factors on external walls in lightweight modular construction based on life-cycle analysis: Energy, economic, and environmental trade-offs10.1016/j.jobe.2025.112090 ↗
25. Zhang, Y., Chen, T., Gasparri, E., and Lucchi, E.A. (2025). Modular Agrivoltaics Building Envelope Integrating Thin-Film Photovoltaics and Hydroponic Urban Farming Systems: A Circular Design Approach with the Multi-Objective Optimization of Energy, Light, Water and Structure. Sustainability, 17.10.3390/su17020666 ↗
26. Parracho, D.F., Nour El-Din, M., Esmaeili, I., Freitas, S.S., Rodrigues, L., Poças Martins, J., Corvacho, H., Delgado, J.M., and Guimarães, A.S. (2025). Modular Construction in the Digital Age: A Systematic Review on Smart and Sustainable Innovations. Buildings, 15.10.3390/buildings15050765 ↗
27. Multi-objective Optimization Framework for the Building Envelope of Public Rental Housing in China’s Cold Regions10.1016/j.jobe.2025.112261 ↗
28. A study on database of modular façade retrofitting building envelope10.1016/j.enbuild.2020.109826 ↗
29. Fabrication and energy efficiency of translucent concrete panel for building envelope10.1016/j.energy.2022.123635 ↗
30. Pless, S., Podder, A., Kaufman, Z., Klammer, N., Dennehy, C., Muthumanickam, N.K., Rothgeb, S., Louis, J., Swanson, C., and Wallace, H. (2022). The Energy in Modular (EMOD) Buildings Method: A Guide to Energy-Efficient Design for Industrialized Construction of Modular Buildings, National Renewable Energy Lab. (NREL).10.2172/1875070 ↗
31. Kysela, P., Ponechal, R., and Michálková, D. (2023). Airtightness of a critical joint in a timber-based building affected by the seasonal climate change. Buildings, 13.10.3390/buildings13030698 ↗
32. Prefabricated concrete sandwich and other lightweight wall panels for sustainable building construction: State-of-the-art review10.1016/j.jobe.2024.109391 ↗
33. Mohammed, M.A., Budaiwi, I.M., Al-Osta, M.A., and Abdou, A.A. (2024). Thermo-Environmental Performance of Modular Building Envelope Panel Technologies: A Focused Review. Buildings, 14.10.3390/buildings14040917 ↗
34. Building energy simulation and its application for building performance optimization: A review of methods, tools, and case studies10.1016/j.adapen.2023.100135 ↗
35. Alhammad, M., Eames, M., and Vinai, R. (2024). Enhancing building energy efficiency through building information modeling (BIM) and building energy modeling (BEM) integration: A systematic review. Buildings, 14.10.3390/buildings14030581 ↗
36. UAV-BIM-BEM: An automatic unmanned aerial vehicles-based building energy model generation platform10.1016/j.enbuild.2024.115120 ↗
37. Coupled simulation of thermally active building systems to support a digital twin10.1016/j.enbuild.2019.07.015 ↗
38. Krušinský, P., Kysela, P., and Pisca, P. (2021). Simulations of airflow in the roof space of a gothic sanctuary using cfd models. Energies, 14.10.3390/en14123694 ↗
39. Ponechal, R., Barňák, P., and Ďurica, P. (2022). Comparison of simulation and measurement in a short-term evaluation of the thermal comfort parameters of an office in a low-carbon building. Buildings, 12.10.3390/buildings12030349 ↗
40. Chinese prototype building models for simulating the energy performance of the nationwide building stock10.1007/s12273-023-1058-5 ↗
41. Advanced controls on energy reliability, flexibility and occupant-centric control for smart and energy-efficient buildings10.1016/j.enbuild.2023.113436 ↗
42. The Conceptual Model of the BIM4NZEB-DS System for Selecting Technological Variants of Rational Passive Energy Efficiency Measures for a Sustainable Building10.15388/VGISC.2023.6 ↗
43. Zhang, Z., Yao, J., and Zheng, R. (2024). Multi-Objective optimization of building energy saving based on the randomness of energy-related occupant behavior. Sustainability, 16.10.3390/su16051935 ↗
44. Muhič, S., Čikić, A., and Perić, M. (2024, January 25–28). Building with an Active Thermal Protection in Combination with High Share of Renewable Energy Sources Use. Proceedings of the 2024 9th International Conference on Smart and Sustainable Technologies (SpliTech), Bol and Split, Croatia.10.23919/SpliTech61897.2024.10612420 ↗
45. Kozlovska, M., Petkanic, S., Vranay, F., and Vranay, D. (2023). Enhancing energy efficiency and building performance through BEMS-BIM integration. Energies, 16.10.3390/en16176327 ↗
46. Analytical and computer modelling of a thermo-mechanical vapour compression system for space air conditioning in buildings10.1016/j.enconman.2024.119252 ↗
47. Simulation study of dynamic building insulation with transpired solar collectors10.1016/j.egyr.2024.07.018 ↗
48. Zhangabay, N., Oner, A., Rakhimov, M., Tursunkululy, T., and Abdikerova, U. (2025). Thermal Performance Evaluation of a Retrofitted Building with Adaptive Composite Energy-Saving Facade Systems. Energies, 18.10.3390/en18061402 ↗
49. Prediction and strategies of buildings’ energy consumption: A review of modeling approaches and energy-saving technologies
50. (2019). Tepelná Ochrana Budov. Tepelnotechnické Vlastnosti Stavebných Konštrukcií a Budov Časť 2 Funkčné Požiadavky. (Thermal Protection of Buildings. Thermal Performance of Building Structures and Buildings Part 2 Functional Requirements) (Standard No. STN 73 0540-2+Z1+Z2:2019).
51. (2016). Quality Management Systems. Requirements (Standard No. STN EN ISO 9001:2016). and its amendments (2018 and 2025).
52. Sacks, R., Eastman, C., Lee, G., and Teicholz, P. (2018). BIM Handbook, a Guide to Building Information Modeling for Owners, Managers, Designers, Engineers, and Contractors, John Wiley & Sons Inc.. [3rd ed.].10.1002/9781119287568 ↗
53. Funtík, T., Pasiar, M., Erdélyi, J., Hlavatá, J., Kaleja, P., and Mayer, P. (2018). Building Information Modeling, Eurostav.
54. Traditional design versus BIM based design10.1016/j.proeng.2014.12.048 ↗
55. Funtík, T., Makýš, P., Ďubek, M., Erdélyi, J., Honti, R., and Cerovšek, T. (2023). The Status of Building Information Modeling Adoption in Slovakia. Buildings, 13.10.3390/buildings13122997 ↗
56. Erdélyi, J., Honti, R., Funtík, T., Mayer, P., and Madiev, A. (2022). Verification of Building Structures Using Point Clouds and Building Information Models. Buildings, 12.10.3390/buildings12122218 ↗
57. (2019). Energetická Hospodárnosť Budov. Metóda Výpočtu Projektovaného Tepelného Príkonu. Časť 1: Tepelný Príkon, Modul M3-3. (Energy Performance of Buildings. Method of Calculation of Design Heat Input. Part 1: Heat Input, Module M3-3) (Standard No. STN EN 12831-1 (060210)).
58. (2020). Potrubné Systémy Diaľkového Vykurovania a Diaľkového Chladenia. Termíny a Definície. (Piping Systems for District Heating and District Cooling. Terms and Definitions) (Standard No. STN EN 17248 (383350)).
59. A New Perspective on Residential Building Ventilation from the Point of View of Achieving the Desired Indoor Air Quality Using Different Ventilation Systems10.2478/sjce-2023-0005 ↗
60. Strenk, T., and Straková, Z. (2022). Assessment of the quality of the indoor environment in flats after complex renovation of the building. Indoor Climate of Buildings 2022, Proceedings of the ICB 2022, 33rd Annual and 11th International Conference, Nový Smokovec, Slovakia, 4–6 December 2022, SSTP.
61. Impact of sound insulation quality in dwellings on its financial value10.1121/1.4988891 ↗