Preserving the historical value and thermal properties of renovated buildings: The case of reconstructed town houses in Kosice, Slovakia

Abstract

The restoration of monuments is of great interest, leading to more architecturally significant designs. Many promising approaches to building design foster a symbiosis of the old and the new. The paper examines the compromises between the structural and physical properties of a historic building intended for renovation, which has already undergone several renovations. Due to the limited optimization possibilities at specific levels of the renovation project, diagnostics were used during the examination of proposals. Part of the diagnostics involves measuring thermal conditions, as well as temperatures on the internal and external surfaces of the building envelopes. The study demonstrates how the properties of the outer shell affect thermal insulation and suggests methods for architects, planners and preservationists to preserve the structural forms of the facade. The goal was to show that, despite the absence of a new thermal insulation layer on the outside of the building, the standard requirements are not violated. On the inner surface of the envelope walls, the temperature does not drop below the critical value for mould growth. Additionally, there are examples of modifications to the original details and their shape after the restoration of this building.

Keywords

Historic building / Reconstruction / Building restoration / Historical monument / Historical survey

References

[1] Akcay, C. , Korkmaz, N.M. , Sayin, B. , 2022. An approach for the reconstruction of a traditional masonry-wooden building located in an archeological area. Part I: methodology. Herit. Sci. 10 (1), 1- 25.

[2] Alkadri, M.F. , Agung, M.R.C. , De Luca, F. , 2024. An integrated computational method for calculating dynamic thermal bridges of building facades in tropical countries. Front. Architect. Res. 13 (1), 201- 218.

[3] Bullová, I. , Kapalo, P. , Katunský, D. , 2021. Quantification of air change rate by selected methods in a typical apartment building. Buildings 11 (4), 174.

[4] Carbonara, G. , 2012. An Italian contribution to architectural restoration. Front. Architect. Res. 1 (1), 2- 9.

[5] Cárdenes, V. , Rubio-Ordóñez, Á. , Monterroso, C. , Mateos, F.J. , 2014. Guidelines for selecting roofing slate for the restoration of historical buildings and monuments: two case studies. J. Cult. Herit. 15 (2), 203- 208.

[6] Ciulla, G. , Galatioto, A. , Ricciu, R. , 2016. Energy and economic analysis and feasibility of retrofit actions in Italian residential historical buildings. Energy Build. 128, 649- 659.

[7] Čurović, Ž. , Čurović, M. , Spalević, V. , Janic, M. , Sestras, P. , Popović, S.G. , 2019. Identification and evaluation of landscape as a precondition for planning revitalization and development of mediterranean rural settlements-case study: Mrkovi Village, Bay of Kotor, Montenegro. Sustainability 11 (7), 2039.

[8] Fais, S. , Casula, G. , Cuccuru, F. , et al., 2018. An innovative methodology for the non-destructive diagnosis of architectural elements of ancient historical buildings. Sci. Rep. 8, 4334.

[9] Ferretti, V. , Bottero, M. , Mondini, G. , 2014. Decision making and cultural heritage: an application of the Multi-Attribute Value Theory for the reuse of historical buildings. J. Cult. Herit. 15 (6), 644- 655.

[10] Galatioto, A. , Ricciu, R. , Salem, T. , Kinab, E. , 2019. Energy and economic analysis on retrofit actions for Italian public historic buildings. Energy 176, 58- 66.

[11] Ivashko, O. , 2019. The issues of conservation and revitalization of the monuments of industrial architecture. Wiadomości Konserwatorskie 58, 113- 117.

[12] Kalousek, M. , Mohelníková, J. , 2014. Influence of window on solar gains and daylight level. Envibuild 1041, 175- 179.

[13] Katunská, J. , Katunský, D. , Labovská, V. , 2019. Selected problems of thermal insulation of historical buildings. Sel. Sci. Pap. J. Civ. Eng. 14 (1), 67- 74.

[14] Katunsky, D. , Katunska, J. , 2020. Assessment of thermal insulation properties of envelope structures of a Burgher house in Kosice. In: International Scientific Conference EcoComfort and Current Issues of Civil Engineering. Springer, Cham, pp. 166-173.

[15] Katunský, D. , Nemec, M. , Kamenský, M. , 2013. Airtightness of buildings in Slovakia. In: Advanced Materials Research (Vol. 649). Trans Tech Publications Ltd., Switzerland, pp. 3-6.

[16] Kolcun, M. , Jiroušek, A. , Jiroušek, S. , 2018. Potulky mestom Košice 1+2 (2018) Editorship JES, Martinus, p. 288. ISBN 978-808-9936-083 (in Slovak).

[17] Künzel, H. , 2002. Bauphysik: Geschichte und Geschichten von Helmut Künzel, 2002. Fraunhofer IRB Verlag, Stuttgart. ISBN 978-3-8167-8716-7.

[18] Künzel, H. , 2009. Bauphysik und Denkmalpflege. 2., erw. Aufl, 2009. Fraunhofer-IRB-Verl, Stuttgart, p. 147. ISBN 978-381-6780-472.

[19] Labovská, V. , Katunský, D. , 2016. In situ monitoring of internal surface temperature of the historic building envelope. Sel. Sci. Pap. J. Civ. Eng. 11 (1), 77- 84.

[20] Latham, D. , 2016. Creative Reuse of Buildings: Volume One. Routledge.

[21] Lee, J.Y. , An, D.W. , 2019. Selecting the restoration period and source material in the restoration of early Joseon Buddhist temples in Korea. J. Asian Architect. Build Eng. 18 (6), 554- 574.

[22] Mazzarella, L. , 2015. Energy retrofit of historic and existing buildings. The legislative and regulatory point of view. Energy Build. 95, 23- 31.

[23] Mehdinezhad, J. , Sharghi, A. , Asadpour, F. , 2021. Integration of architectural form and structure in the formation of physical structure of historical buildings using Iranian Arches. J. Architect. Thought 5 (10), 10.

[24] Milone, D. , Peri, G. , Pitruzzella, S. , Rizzo, G. , 2015. Are the Best Available Technologies the only viable for energy interventions in historical buildings? Energy Build. 95, 39- 46.

[25] Milosz, M. , Kęsik, J. , Montusiewicz, J. , 2020. 3D scanning and visualization of large monuments of Timurid architecture in central Asia-a methodical approach. J. Comput. Cult. Herit. (JOCCH) 14 (1), 1- 31.

[26] Mine, T.Z. , 2013. Adaptive re-use of monuments “restoring religious buildings with different uses”. J. Cult. Herit. 14 (3), S14-S19.

[27] Morrish, S.W. , Laefer, D.F. , 2010. Web-enabling of architectural heritage inventories. Int. J. Architect. Herit. 4 (1), 16- 37.

[28] Mosoarca, M. , Gioncu, V. , 2013. Historical wooden churches from Banat Region, Romania. Damages: modern consolidation solutions. J. Cult. Herit. 14 (3), e45-e59.

[29] Murgul, V. , 2014. Solar energy systems in the reconstruction of heritage historical buildings of the northern towns (for example Saint-Petersburg). J. Appl. Eng. Sci. 12 (2), 121- 128.

[30] Němec, Z. , Duchoň, J. , Rybárová, K. , 1994. In: Kosice 1780-1918, Pergamen Sečovce.

[31] Omishore, A. , Kalousek, M. , Mohelník, P. , 2019. Thermal testing of the light pipe prototype. Eng. Rev. 39 (3), 283- 291.

[32] Penića, M. , Svetlana, G. , Murgul, V. , 2015. Revitalization of historic buildings as an approach to preserve cultural and historical heritage. Proc. Eng. 117, 883- 890.

[33] Pisello, Anna Laura , et al., 2014. Energy refurbishment of historical buildings with public function: pilot case study. Energy Proc. 61, 660- 663.

[34] Pracchi, V. , 2014. Historic buildings and energy efficiency. Hist. Environ.: Policy Pract. 5 (2), 210- 225.

[35] Radziszewska-Zielina, E. , Śladowski, G. , Sibielak, M. , 2017. Planning the reconstruction of a historical building by using a fuzzy stochastic network. Autom. ConStruct. 84, 242- 257.

[36] Ribera, F. , Nesticò, A. , Cucco, P. , Maselli, G. , 2020. A multicriteria approach to identify the Highest and Best Use for historical buildings. J. Cult. Herit. 41, 166- 177.

[37] Ruiz-Jaramillo, J. , Muñoz-González, C. , Joyanes-Díaz, M.D. , Jiménez-Morales, E. , López-Osorio, J.M. , Barrios-Pérez, R. , Rosa-Jiménez, C. , 2020. Heritage risk index: a multi-criteria decision-making tool to prioritize municipal historic preservation projects. Front. Architect. Res. 9 (2), 403- 418.

[38] Saba, M. , Quiñones-Bolaños, E.E. , López, A.L.B. , 2018. A review of the mathematical models used for simulation of calcareous stone deterioration in historical buildings. Atmos. Environ. 180, 156- 166.

[39] Šahmenko, G. , Aispurs, S. , Krasnikovs, A. , 2015. The use of high performance cement composite in renovation and restoration of architectural elements of buildings facades. Proc. Eng. 117, 317- 324.

[40] STN 730450 , 2019. Thermal performance of buildings and components. Thermal protection of buildings. Part 1: terminology, Part 2: functional requirements, Part 3: properties of environments and building products, Slovak Office of Standards. Metrol. Test. Bratislava.

[41] Taylor, K. , 2004. Cultural heritage management: a possible role for charters and principles in Asia. Int. J. Herit. Stud. 10 (5), 417- 433.

[42] Ucer, D. , Ulybin, A. , Zubkov, S. , Elias-Ozkan, S.T. , 2018. Analysis on the mechanical properties of historical brick masonry after machinery demolition. Construct. Build. Mater. 161, 186- 195.

[43] Valluzzi, M.R. , Modena, C. , de Felice, G. , 2014. Current practice and open issues in strengthening historical buildings with composites. Mater. Struct. 47 (12), 1971- 1985.

[44] Webb, A.L. , 2017. Energy retrofits in historic and traditional buildings: a review of problems and methods. Renew. Sustain. Energy Rev. 77, 748- 759.

[45] Weiler, K. , Gutschow, N. (Eds.), 2017. Authenticity in Architectural Heritage Conservation: Discourses, Opinions, Experiences in Europe, South and East Asia. Springer.

[46] Yazgan, I.O. , Unay, A.I. , 2020. Planning a relocation method to preserve structural integrity during the holistic relocation of historical buildings. J. Architect. Eng. 26 (4), 04020038.

[47] Zhou, W. , Song, S. , Feng, K. , 2022. The sustainability cycle of historic houses and cultural memory: controversy between historic preservation and heritage conservation. Front. Architect. Res. 11 (6), 1030- 1046.

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