[1]
A. Trabelsi, R. Belarbi, K. Abahri, M. Qin, Assessment of temperature gradient effects on moisture transfer through thermogradient coefficient, Building Simulation, 3 (2012) 107-115.
DOI: 10.1007/s12273-012-0063-x
Google Scholar
[2]
C. Siligardi, P. Miselli, E. Francia, et al., Temperature-induced microstructural changes of fiber-reinforced silica aerogel (FRAB) and rock wool thermal insulation materials: A comparative study, Energy and Buildings, 138 (2017) 80-87.
DOI: 10.1016/j.enbuild.2016.12.022
Google Scholar
[3]
F. Roberz, R.C.G.M. Loonen, P. Hoes, et al., Ultra-lightweight concrete: Energy and comfort performance evaluation in relation to buildings with low and high thermal mass, Energy and Buildings, 138 (2017) 432-442.
DOI: 10.1016/j.enbuild.2016.12.049
Google Scholar
[4]
M. Alam, H. Singh, S. Suresh, et al., Energy and economic analysis of Vacuum Insulation Panels used in non-domestic buildings, Applied Energy, 188 (2017) 1-8.
DOI: 10.1016/j.apenergy.2016.11.115
Google Scholar
[5]
O.G. Chesnokova. The use of the superfine insulation to prevent freezing of the steel window lintels, ,Bulletin of Volgograd state university of architecture and construction. Series: Construction and architecture, 45(64) (2016) 94-101.
Google Scholar
[6]
A.N. Zhukov, A.G. Perekhojentsev, V.A. Vlasov, The application of liquid ceramic insulation to improve thermal parameters of existing plots walling, Vestnik of Volgograd state university of architecture and construction, Series: Construction and architecture, 21 (2011).
Google Scholar
[7]
A.N. Zhukov, A.G. Perekhojentsev, The experimental determination of the coefficient of permeability liquid ceramic insulation of the type Korund classic,, Bulletin of the Volgograd state university of architecture and construction, Series: Construction and architecture, 26 (2012).
Google Scholar
[8]
O.G. Chesnokova, А.G. Grigorov, The analysis of the distribution of temperature fields of the upper slope of the window depending on the construction of steel lintels, International center for innovative research, Omega Science,, Ufa. (2016).
Google Scholar
[9]
O.G. Chesnokova, А.G. Grigorov, The analysis of the distribution of temperature fields of boundary areas of the frame with the external insulation, Science in the modern world: theory and practice, Ufa. 1(4) (2016) 14-18.
Google Scholar
[10]
A.G. Perekhojentsev, O.G. Chesnokova, The possibility of using hyperfine thermal insulation to improve the thermal properties of enclosing structures, Internet-Vestnik VolgGASU. Ser. Polythematic, 2 (38) (2015).
Google Scholar
[11]
O.G. Chesnokova, А.G. Grigorov. The comparative analysis of the distribution of temperature fields of the upper slope of the window depending on the insulation method, International centre for innovative research, Omega Science,, Ufa. (2016).
Google Scholar
[12]
O.G. Chesnokova, V.D. Tukharely, A.V. Tukharely, The possibility of using the ultrafine liquid thermal insulation to protect the load-bearing reinforced concrete elements in multi-layered outer wall, Engineering journal of Don, 2(9) (2017).
Google Scholar
[13]
O.G. Chesnokova, The use of ultra-thin insulation to avoid freezing of the steel window lintels, Scientific centre Olympus,, Moscow. (2016) 306-307.
Google Scholar
[14]
K. Menyhart, M. Krarti, Potential energy savings from deployment of dynamic insulation materials for US residential buildings, Building and Environment. 114 (2017) 203-218.
DOI: 10.1016/j.buildenv.2016.12.009
Google Scholar
[15]
A. Lakatos, Comprehensive thermal transmittance investigations carried out on opaque aerogel insulationblanket, Materials and Structures. 1(50) (2017) UNSP 2.
DOI: 10.1617/s11527-016-0876-7
Google Scholar
[16]
The method of the statement of the experience and calculation of heat transfer coefficient for the hyperfine thermal insulation materials: guidelines for thermal calculations MPO 001/2003, OGUP Institute of Plumbing,, Moscow. (2003).
Google Scholar
[17]
Y.A. Velikorodny, A.F. Zharkov, O.G. Chesnokova, The engineering method of calculation of the thermal resistance of multilayer constructions with heterogeneous inclusions, Internet-Vestnik VolgGASU, Ser. Polythematic. 1(31) (2014) 10.
Google Scholar
[18]
M. Krus, Moisture transport and storage coefficient of porous mineral building materials: theoretical principles and new test methods, Stuttgart: IRB-Verlag. (1996).
Google Scholar
[19]
H. Janssen, A comment to Assessment of temperature gradient effects on moisture transfer through thermogradient coefficient,, Building Simulation. 6 (2013) 103-108.
DOI: 10.1007/s12273-012-0099-y
Google Scholar
[20]
N. Williams Portal, A. Sasic Kalagasidis, A.W.M. van Schijndel, Evaluation of heat and moisture induced stress and strain of historic building materials and artefacts, Building Simulation. 3(7) (2014) 217-227.
DOI: 10.1007/s12273-013-0153-4
Google Scholar
[21]
O.G. Chesnokova, The comparative analysis of moisture accumulation in the building envelope depending on the location of the insulation layer, Vestnik of Volgograd state architectural.-builds. Univ. Ser. Construction and architecture. 47(66) (2017).
Google Scholar
[22]
V. Kočí, J. Maděra, R. Černý, Exterior thermal insulation systems for AAC building envelopes: Computational analysis aimed at increasing service life, Energy and Buildings. 47 (2012) 84-90.
DOI: 10.1016/j.enbuild.2011.11.030
Google Scholar
