Optimization Models of Heat Treatment Process of Masonry in the Winter due to a Stationary Heating System Constructed Buildings Oil Production Complex

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In this work we propose a new method of heat treatment of the masonry in the winter and the algorithm flow management masonry that reduces overall construction time of the building. Under the proposed algorithm calculating the heat treatment of masonry in winter conditions with stationary heating house developed software that automates the thermal engineering calculations and the necessary organizational and technological parameters of the organization of building flow, which greatly optimizes the performance of the project

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January 2015

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[1] Fedortsev I. V., Khusnutdinov R. F. Methods and technology in-situ concrete in winter conditions: Monograph, (2006) 348 p.

Google Scholar

[2] Building Ruils II-22-81. Kamennyye i armokamennyye konstruktsii [Masonry and reinforced masonry structures] Moscow, Russian State Committee for Construction, (1995).

Google Scholar

[3] Fedortsev I. V., Sultanova E. A. Sposob vozvedenya kirpichnykh sten mnogoetazhnogo zhilogo zdaniya v zimnikh usloviyakh [Method of building brick walls of multi-storey residential building in winter conditions] Patent RF no. 2498028, 2013. (rus).

Google Scholar

[4] Sultanova E.A. Monolit-Zima Svidetel'stvo o sertifikatsii programmnogo obespecheniya [Monolith-Winter: Certificate of registration of computer program] Patent RF no. 2014610712, 2012. (rus).

Google Scholar

[5] Siemes, A.J.M., Vrouwenvelder, A.C.W.M., van den Beukel, A. Durability of buildings: a reliability analysis (1985) Heron, 30 (3), 48 p.

Google Scholar

[6] Stammers R.B., Carey M.S., Astley J.A. Task Analysis In Evaluation of Human Work (1990) A practical ergonomics methodology 2 ed., pp.134-160.

Google Scholar

[7] Galiyev M.A., Sharetdinov E.F. Ufa Publishing House of the National Educational Scientific Methodological Center of the State Committee of Science of Belarus, higher and secondary vocational education, (2001) 174 p.

Google Scholar

[8] Filippov V.N., Sultanova E.A., Mehrdad Hadji Mirarab. Method of wastewater treatment oil fields (2013) Topical areas of fundamental and applied research II. Vol. 4. Proceedings of the Conference pp.133-135.

Google Scholar

[9] Cook, D.J., Chindaprasirt, P. A mathematical model for the prediction of damage in concrete (1981) Cement and Concrete Research, 11 (4), pp.581-590.

DOI: 10.1016/0008-8846(81)90088-0

Google Scholar

[10] Corrosion of Steel in Concrete. State of the art report RILEM Technical Committee 60-CSC (1996) Corros. Of Steel in Concr. 4 (2), pp.135-142.

Google Scholar

[11] Mehta, P.K. Mechanism of sulfate attack on portland cement concrete - Another look (1983) Cement and Concrete Research, 13 (3), pp.401-406.

DOI: 10.1016/0008-8846(83)90040-6

Google Scholar

[12] Müller, K.F. The possibility of evolving a theory for predicting the service life of reinforced concrete structures (1985) Materials and Structures, 18 (6), pp.463-472.

DOI: 10.1007/bf02498752

Google Scholar

[13] Panarese W.C., Kosmatka S.H., Randall F.A. Jr. Concrete Masonry Handbook for Architects, Engineers, Builders. (2001) 5th ed., 247 p.

Google Scholar

[14] Grinfeldi, G.I., Gorshkov, A.S., Vatin, N.I. Tests results strength and thermophysical properties of aerated concrete block wall samples with the use of polyurethane adhesive (2014) Advanced Materials Research, 941-944, pp.786-799.

DOI: 10.4028/www.scientific.net/amr.941-944.786

Google Scholar

[15] Shishkin, A., Shishkina, A., Vatin, N. Low-shrinkage alcohol cement concrete (2014) Applied Mechanics and Materials, 633-634, pp.917-921.

DOI: 10.4028/www.scientific.net/amm.633-634.917

Google Scholar

[16] Ponomarev, A., Knezević, M., Vatin, N., Kiski, S., Ageev, I. Nanosize scale additives mix influence on the properties of the high performance concretes (2014) Journal of Applied Engineering Science, 12 (3), pp.227-231.

DOI: 10.5937/jaes12-6161

Google Scholar

[17] Kovacic B., Kamnik R., Premrov M. Deformation measurement of a structure with calculation of intermediate load phases (2011) Survey Review, 43 (320), pp.150-161.

DOI: 10.1179/003962611x12894696204902

Google Scholar

[18] Cosic M., Brcic S. Iterative Displacement Coefficient Method: Mathematical formulation and numerical analyses (2013) Gradjevinar, 65 (3), pp.199-211.

Google Scholar

[19] Vatin N.I., Pestryakov I.I., Kiski S.S., Teplova Z.S. Influence of the geometrical values of hollowness on the physicotechnical characteristics of the concrete vibropressed wall stones (2014).

DOI: 10.4028/www.scientific.net/amm.584-586.1381

Google Scholar

[20] Borodinecs, A., Gaujena, B. The implementation of building envelopes with controlled thermal resistance (2012) 10th International Conference on Healthy Buildings 2012, 2, pp.1715-1722.

Google Scholar

[21] Barabanshchikov Yu.G., Komarinskiy M.V. Influence of superplasticizer S-3 on the technological properties of concrete mixtures (2014) Advanced Materials Research, 941-944, pp.780-785.

DOI: 10.4028/www.scientific.net/amr.941-944.780

Google Scholar