New Industrial Energy and Resource Saving Structural Solutions for Public Buildings

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The paper presents new structural solutions for industrial energy and resource saving structures of public buildings with predetermined level of structural safety. The basis of the solutions is pre-cast (with cast-in-place concrete) bearing structures of internal longitudinal and transverse bearing walls of panel members, interconnected floor slabs and exterior self-bearing walls supported on straight or curved L-girders with thermal insulation holes The stiffness of a building with proposed solutions is provided by all structural elements connected in a special way. The authors also present some results of experimental and theoretical studies, pilot design projects, real construction and feasibility assessment of public buildings with proposed solutions.

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1423-1429

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January 2015

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© 2015 Trans Tech Publications Ltd. All Rights Reserved

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[1] Katalog proyektov povtornogo primeneniya dlya zhilishchnogo stroitelstva/ T. 5: Zhilyye doma svyshe 5 etazhey so smeshannym karkasom s razlichnogo tipa ograzhdayushchimi konstruktsiyami [Re-use design projects catalog for residential buildings Vol. 5: Residential buildings higher than 5 storeys with mixed structural scheme and with different types of external structures] (2008).

Google Scholar

[2] Katalog proyektov povtornogo primeneniya dlya obyektov sotsialnoy i inzhenernoy infrastruktur [Re-use design projects catalog for social and engineering infrastructure facilities] (2011).

Google Scholar

[3] Under the editorship of Yu.A. Dykhovichny and V.I. Kolchunov. Zhilyye i obshchestvennyye zdaniya: kratkiy spravochnik inzhenera-konstruktora [Residential and social buildings: concise structural engineer handbook] (2011) Vol. II, 400 p. (rus).

Google Scholar

[4] Nikolaev, S.V. Panel and frame buildings of a new generation (2013) Housing construction, 8, pp.2-9. (rus).

Google Scholar

[5] Matveev, A.V., Ovchinnikov A.A. Development of Energy-Efficient Large-Panel Enclosing Structures (2014) Housing construction, 10, pp.19-23. (rus).

Google Scholar

[6] Popova, E.A. The use of Modules when Designing and Constructing Children's Educational Institutions (2014) Housing construction, 5, pp.9-19. (rus).

Google Scholar

[7] Bolotin, S., Dadar A., Ptukhina, I. Construction work tasks duration: pessimistic scenarios based on PERT method (2014) Advanced Materials Research, Vols. 945-949, pp.3026-3031.

DOI: 10.4028/www.scientific.net/amr.945-949.3026

Google Scholar

[8] Magay, A.A., Minashkin, V.I., Zyryanov, V.S. Modern Trends in Designing Series of Large-Panel Buildings (2014) Housing construction, 5, pp.26-29. (rus).

Google Scholar

[9] Marszal A.J., Heiselberg P., Bourrelle J.S., Musall E., Voss K., Sartori I., Napolitano A. Zero еnergy building a review of definitions and calculation methodologies (2011) Energy and Buildings, 43, pр. 971–979.

DOI: 10.1016/j.enbuild.2010.12.022

Google Scholar

[10] Hui, S.C. M Low energy building design in high density urban cities (2001) Renewable Energy, 24 (3-4), pp.627-640.

DOI: 10.1016/s0960-1481(01)00049-0

Google Scholar

[11] Abel, E. Low-energy buildings (1994) Energy and Buildings, 21 (3), pp.169-174.

DOI: 10.1016/0378-7788(94)90032-9

Google Scholar

[12] Clarke, J.A., Grant, A.D., Johnstone, C.M., Macdonald, I. Integrated modelling of low energy buildings (1998) Renewable Energy, 15 (1-4), pp.151-156.

DOI: 10.1016/s0960-1481(98)00168-2

Google Scholar

[13] Karpenko, N.I., Yarmakovsky, V.N. Main Ways of Resource-Energy Saving at Construction and Operation of Buildings. Part 1. Resource-Energy Saving at the Stage of Producing of Building Materials, Wall Products and Enclosing Structures (2013).

Google Scholar

[14] Yarmakovsky, V.N., Kostin, A.N., Fotin, O.V., Kondyurin, A.E. Thermal Efficient External Walls of Buildings Built with the Use of Monolithic Polysterene Concrete with High-Porous and Plasticized Matrix (2014).

Google Scholar

[15] Rakhmanov, V.A. Energy Saving in Construction on the Basis of Innovative Developments of JSC VNIIzhelezobeton, (2011) Industrial and Civil Engineering, 8, pp.61-62. (rus).

Google Scholar

[16] Kolchunov, V.I., Osovskikh, E.V., Fomochev, S.I. Durability of Reinforced Concrete Platform Joints of Residential Building with Crossing-Wall Systems of Panel Elements (2009) Housing construction, 12. - pp.12-16. (rus).

Google Scholar

[17] Kolchunov V.I., Petrov V.N., Kljueva N.V., Meleshkova E.A. Platformennyy sborno-monolitnyy styk [Platform composite joint. ] Patent RF, no. 2276712, 2006. (rus).

Google Scholar

[18] Kolchunov V.I., Petrov V.N., Kljueva N.V., Meleshkova E.A. Platformennyy sborno-monolitnyy styk [Platform composite joint. ] Patent RF, no. 2276238, 2006. (rus).

Google Scholar

[19] Il'ichev V.A., Kolchunov V.I., Kljueva N.V., Bukhtijarova A.S. Zdaniye iz panelnykh elementov [Building of panel elements. ] Patent RF, no. 2506385, 2014. (rus).

Google Scholar

[20] Tekhnicheskiy reglament o bezopasnosti zdaniy i sooruzheniy [Technical Regulations Safety of buildings and structures, ] Federal Law № 384-FL dated 30. 12. 09. (rus).

Google Scholar

[21] Kolchunov, V.I., Klueva, N.V., Androsova, N.B., Bukhtiyarova, A.S. Zhivuchest zdaniy i sooruzheniy pri zaproyektnykh vozdeystviyakh [Survivability of buildings and structures beyond design actions] (2010), 208 p. (rus).

Google Scholar

[22] Klyueva, N.V., Bukhtiyarova, A.S., Kolchunov, Vl.I. Research in Durability of Reinforced Concrete Frame-Core Spatial Structures Under Supercritical Conditions (2012) Industrial and Civil Engineering, 12, pp.55-59. (rus).

Google Scholar