Vydavateľstvo SPEKTRUM

Vydavateľstvo SPEKTRUM

Mahas N. a kol. - RESEARCH ON THE TEMPERATURE - HUMIDITY EFFECTS ON THE TECHNICAL CONDITION OF BRICK-WALLED BUILDINGS

Research on the Temperature-Humidity Effects on the Technical Condition of Brick-Walled Buildings

Nataliia MAHAS, Assoc. Prof., CSc (PhD)
Department of Building Construction,
Faculty of Civil Engineering,
Slovak University of Technology in Bratislava
nataliia.mahas@stuba.sk

Roman RABENSEIFER, Assoc. Prof. Dr.-techn. Ing. arch.
Department of Building Construction,
Faculty of Civil Engineering,
Slovak University of Technology in Bratislava
roman.rabenseifer@stuba.sk

Oleksandr SEMKO, Professor, DrSc
Department of Construction and Civil Engineering,
Educational and Research Institute of Architecture,
Civil Engineering and Land Management,
National University «Yuri Kondratyuk Poltava Polytechnic»
ab.semko_ov@nupp.edu.ua

Olena FILONENKO, Professor, DrSc
Department of Construction and Civil Engineering,
Educational and Research Institute of Architecture,
Civil Engineering and Land Management,
National University «Yuri Kondratyuk Poltava Polytechnic»
ab.filonenko_oi@nupp.edu.ua

Oleg YURIN, CSc (PhD)
Department of Construction and Civil Engineering,
Educational and Research Institute of Architecture,
Civil Engineering and Land Management,
National University «Yuri Kondratyuk Poltava Polytechnic»
ab.yurin_oi@nupp.edu.ua

Volodymyr SEMKO, Professor, DrSc
Department of Structural Engineering,
Institute of Building Engineering,
Faculty of Civil and Transport Engineering,
Poznan University of Technology
volodymyr.semko@put.poznan.pl

Abstract:

The monograph is dedicated to the study of temperature-humidity effects on the technical condition of buildings with brick walls. It analyzes moisture-related damage that affects the durability of structures and the causes of its occurrence. The work is based on the authors’ previously published scientific studies, which included field surveys and modeling of temperature-humidity regimes in building structures. The proposed practical solutions aim to improve the operational reliability of buildings.                                                         

DOI: 10.61544/FHEJ4298

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  112. Semko V. O. (2006) Revised calculation of steel beams with one-sided cutouts in the shelf. ACADEMIC JOURNAL Industrial Machine Building, Civil Engineering 18:122-128. (in Ukrainian).
  113. Pichugin S.F., Semko V.O. (2007) Calculation procedure for steel beams with one-sided notches in the flange. Modern building constructions from metal and wood. Collection of scientific works. 1:165-169. (in Russian)
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  117. Semko O.V. (2004) Probabilistic aspects of calculation of composite steel and concrete structures. Steel, Kyiv. (in Ukrainian).
  118. Korolov V., Gibalenko O., Korolov P., Sujarko V. (2010) Assessment and management of corrosion hazard risks based on the data of monitoring the state of corrosion protection of structures of buildings and structures. Problems of corrosion and corrosion protection of materials. Physical and chemical mechanics of materials 8(2):575-580 (in Ukrainian).
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  120. Pashynskyi V.A., Farenyuk G.G. (2010) Assessment of the probability of thermal failures of structures. Construction, Material Science, Engineering: Collection of scientific works 56:305 – 310. (in Ukrainian).
  121. Semko V. O., Leshсhenko M. V., Rud A. G. (2016) Experimental study of variability of thermal conductivity of insulation materials. ACADEMIC JOURNAL Industrial Machine Building, Civil Engineering 1(46):60–67
  122. Leshсhenko M. V., Semko V. O. (2015) Thermal characteristics of the external walling made of cold-formed steel studs and polystyrene concrete. Magazine of Civil Engineering 8(60):44-55 (in Russian) http://dx.doi.org/10.5862/MCE.60.6
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  124. Semko V.O. (2016) Methodology for determining the probability of thermal failure of enclosing structures made of cold-formed steel elements by thermal performance. Construction, Material Science, Engineering: Collection of scientific works 91:140-147. (in Ukrainian).
  125. Pichugin S.F., Semko V. O., Leshсhenko M. V. (2017) Probabilistic analyses of thermal performance of the wall from light-gauge thin-walled steel structures. ACADEMIC JOURNAL Industrial Machine Building, Civil Engineering 1(48):144-155. https://doi.org/10.26906/znp.2017.48.788
  126. Semko V., Leshchenko M., Cherednikova O. (2018) Standardization of Required Level Probability of No-Failure Operation of the Building Envelopes by the Criterion of Total Thermal Resistance. International Journal of Engineering & Technology 7(3.2):382–387. https://doi.org/10.14419/ijet.v7i3.2.14557
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