THERMAL SCIENCE

International Scientific Journal

ENVIRONMENTALLY-BASED STRUCTURAL DESIGN CRITERIA FOR BUILDINGS

ABSTRACT
Activities related to buildings contribute to a large degree to environmental degradation. It is necessary to reduce the negative environmental impact and resource consumption throughout the life cycle of the building. The aim is to optimize building performances in accordance with the integrated design objectives. The building structure, along with other elements of architectural space, deter-mines the performances of the building. The building structure should be designed and evaluated as a sub-system of the building, whose behaviour is directed towards the aim of system-building – ecological quality. This paper deals with the analysis of structural design in accordance with integrated design objectives, which are derived from quantitative and qualitative indicators of ecological quality of building, within the criteria of environmental protection throughout the life cycle of the building. The overall objective is to reduce harmful emissions to the air, water and soil, as well as to increase the efficiency of resource use, that is, to reduce the intensity of their use. Based on subject analysis, the environmentally-based criteria for the design and evaluation of building structures are derived, in the function of creating the environmentally acceptable building solutions. The present analysis points to the necessity of applying a complex and systemic approach to structural design, in function of achieving the ecological quality of buildings.
KEYWORDS
PAPER SUBMITTED: 2017-05-25
PAPER REVISED: 2017-12-08
PAPER ACCEPTED: 2017-12-11
PUBLISHED ONLINE: 2018-04-28
DOI REFERENCE: https://doi.org/10.2298/TSCI170525132N
CITATION EXPORT: view in browser or download as text file
THERMAL SCIENCE YEAR 2018, VOLUME 22, ISSUE Supplement 4, PAGES [S1047 - S1058]
REFERENCES
  1. European Committee for Standardization, EN 15978:2011 - Sustainability of construction works - Assessment of environmental performance of buildings - Calculation method, CEN, Brussels, 2011
  2. Nenadović, A., Integrated design of structural systems based on the application of ferrocement, Ph. D. thesis, University of Belgrade, Belgrade, Serbia, 2014 (in Serbian language)
  3. Mehta, K., Meryman, H., Tools for Reducing Carbon Emissions Due to Cement Consumption, STRUCTURE magasine, January (2009), pp. 11-15
  4. Pérez-Lombard, L., et al., A review on buildings energy consumption information, Energy and Buildings, 40 (2008), pp. 394-398
  5. Europe's buildings under the microscope: A country-by-country review of the energy performance of buildings, Report (eds Atanasiu, B., Despret, C., Economidou, M., Maio, J., Nolte, I., Rapf, O.), Buildings Performance Institute Europe, 2011
  6. Jock, M., et al., The European environment - state and outlook 2010: Synthesis, Report, EEA European Environment Agency, Copenhagen, 2010
  7. Sev, A., Özgen, A., Space efficiency in High-rise Office Buildings, METU JFA 26, no.2 (2009), pp. 69-89
  8. Sandaker, B., On Span and Space: Exploring structures in architecture, Routledge, London, 2000
  9. John, V.M., Zordan, S.E., Research and development methodology for recycling residues as building materials, Waste Management, 21 (2001), pp. 213-219
  10. Gorgolewski, M., et al., Facilitating Greater Reuse and Recycling of Structural Steel in the Construction and Demolition Process, Project final report, Ryerson University, 2006
  11. Nakajima, S., Futaki, M., National R&D project to promote recycle and reuse of timber constructions in Japan - the second year's results, Paper presented at the CIB Task Group 39 - Deconstruction Meeting, Karlsruhe, 2002
  12. Cooper, D.R., Allwood, J.M., Reusing Aluminium and Steel Components at End of Product Life, Environmental Science and Technology, 46 (2012), 18, pp. 10334-10340
  13. Addis, B., Building with Reclaimed Components and Materials: A Design Handbook for Reuse and Recycling, Routledge, 2006
  14. Khalaf, F.M., DeVenny, A.S., Proporeties of New and Recycled Clay Brick Aggregate for Use in Concrete, Journal of Material in Civil Engineering, 17 (2004), pp. 456-464
  15. Malhotra, V.M., Mehta, P.K., High-Performance, High-Volume Fly Ash Concrete, WOC, 2010
  16. Naik, T. R., Ramme, B.W., High Strength Concrete containing large quantity of fly ash, ACI Material Journal, 86 (1989), 2, pp. 111-116
  17. ACI Committee 232, Use of Fly Ash in Concrete, American Concrete Institute, Farmington Hills, 2004
  18. Wang, Y., The effect of Bond Characteristics Between Steel Slag Fine Aggregate and Cement Paste on Mechanical Properties of Concrete and Mortar, Bonding in Cementitious Composities (eds Mindess, S. and Shah, S.P.), Materials Research Society, 1988, vol. 114, pp. 49-51
  19. Danish Technological Institute, Icelandic Building Research Institute, NCC, Franzefoss, and ERGO Engineering Geology Ltd., Baseline Report for the Aggregate and Concrete Industries in Europe, ECO-SERVE Network, Cluster 3: Aggregate and Concrete Production, 2004
  20. Dražić, D., et al., Rehabilitation of Landscapes Degraded by Stone, Clay and Sand Exploitation - Case Studies from Serbia, Paper presented at the SARM Conference, Ljubljana, 2011
  21. Hanna, A., Concrete Formwork Systems, Marcel Dekker, New York, 2004
  22. Joshi, R.C., and R.P. Lohtia., Fly ash in concrete: production, properties and uses, CRC Press, 1997
  23. Use of Recycled Water in Concrete Production, Report, Cement Concrete and Aggregates Australia, 2007

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