International Scientific Journal


The goal of this research is to analyse the possibility of using vegetation walls in order to improve the thermal characteristics of office buildings in Belgrade’s climatic conditions. The study analyses the possibility of integrating vegetation modules into the façades of office buildings. The paper shows the potential of vegetation technologies in the realisation of façade coverings of architectural buildings with a goal to reduce heat gained during summer time. The use of vegetation walls in architecture has opened up new planning possibilities and created planning conditions for reducing the energy necessary for cooling office buildings. Considering that interaction between the outer environment and inner solving the dependency between comfort, outer look and building’s energy balance. This paper is presenting the possibility of using sustainable technologies for solving the problem of overheating in Belgrade’s climatic conditions. The research considers the possibilities of using vertically greening systems in planning façade coverings, with an analysis of their thermal characteristics for climatic conditions in Belgrade.
PAPER REVISED: 2018-01-09
PAPER ACCEPTED: 2018-01-15
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THERMAL SCIENCE YEAR 2018, VOLUME 22, ISSUE Supplement 3, PAGES [S945 - S955]
  1. Olivieri, et al., Experimental studi of the thermal-energy performance of an insulated vegetal façade under summer conditions in a continental Mediterranean climate. Building and Environment 2004; 77:61-76.
  2. Wong NH, et al., Energy simulation of greenery systems. Energy Build 2009;41:1401-8.
  3. Kumar R., et al., Performance evaluation of green roof and shading for thermal protection of buildings. Building and Environment, Volume 40, Issue 11, November 2005, Pages 1505 - 1511.
  4. Bartfelder,F., M. Köhler.: Experimentelle untersuchungen zur function von fassadenbegrünungen, Dissertation TU Berlin 612S, 1987.
  5. Perini K., et al., The use of vertical greening systems to reduce the energy damand for air conditioning. Field monitoring in Mediterranean climate. Energy and Buildings 2017; 143:35-42.
  6. Fjeld, T., et al., The effect of plants and artificial day-light on the well-being and health of office workers, school children, and health care personnel, in International Horticultural Exhibtion Floriade 2002.
  7. Salisbury FB, et al., Plant physiology. 4th ed. Wadsworth Publishing Company; 1992.
  8. Stec WJ, et al., Modelling the double skin façade with plants. Energy and Buildings 2005; 37(5):419-427.
  9. Papadakis, G., et al., An experimental investigation of the effect of shading with plants for solar control of buildings. Energy and Buildings, 33, 2001. pp. 831-836.
  10. Ochoa JM.: La vegetación como instrumento para el control bioclimàtico. PhD thesis, Universitat Politècnica de Catalunya, Barcelona, Spain; 1999.
  11. Pejic, P., et al., The effect of architectural façade design on energy savings in the student dormitory, Thermal Science, vol. 18 (2014), No 3, pp. 979-988
  12. Harmati, N., et al., Building envelope influence on the annual energy performance in office buildings, Thermal Science, vol.20 (2016), No 2, pp. 679-693
  13. Santamouris M., et al., Investigating and analysing the energy and environmental performance of an experimental green roof system installed in a nursery school building in Athens, Greece. Energy, Volume 32, Issue 9, September 2007, Pages 1781 - 1788.
  14. Saelens,D., et al., Optimization of the energy performance of multiple-skin facades, in: Ninth International IBPSA Conference, Montreal, Canada, August 15-18, 2005.
  15. Sunakorn P, et al., Performance of facade greening in the tropical region. Journal of Energy 2007. Bangkok: Energy Research Institute, Chulalongkorn University; vol.9/2551: 50-64
  16. Attia, S., et al. Architect Friendly: a comparison of ten different building performance simulation tools. in IBPSA Conference. 2009. Glasgow, Scotland: International Building Performance Simulation Association.
  17. Parker JH.: The use of shrubs in energy conservation in plantings. Landscape Journal 1987;6:132-9.
  18. Peck, S.W. et al., Greenbacks from Green Roofs: Forging a New Industry in Canada, Status Report on Benefits, Barriers and Opportunities for Green Roof and Vertical Garden Technology Diffusion, Environmental Adaptation Research Group, Canada, 1999.
  19. Todd JJ. :Urban air quality. Environmental Design Guide by the Royal Australian Institute of Architects. Gen 2000;34:1-8.
  20. Dinsdale S, Pearen B, Wilson C.: Feasibility study for green roof application on Queen's University campus. Queen's Physical Plant Services; 2006.
  21. Dimitrijevic, D., et al., Green living roof implementation and influences of the soil layer on its properties, Thermal Science, vol.20 (2016), Suppl 5, pp. S1511-S1520
  22. Wolverton BC, et al., Plants and soil microorganisms: removal of formaldehyde, xylene and ammonia from the indoor environment. Journal of the Mississippi Academy of Sciences 1993;38(2):11-5.
  23. Tudiwer D, et al., The effect of living wall systems on the thermal resistance of the facade. Energy and Buildings 2017; 135:10-19.
  24. Cuce, E., Thermal regulation impact of green walls: An experimental and numerical investigation. Applied Energy 2017; 194:247-254.

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