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Abstract

 Passive cooling is an ancient technique used in air reconditioning and ventilation. Despite its historical use, its relevance in building design has never ceased. To be sure, with the increasing interest in saving energy and preserving the environment, passive cooling stands out as a sustainable possibility. However, this is not always a viable option, and its practicality is determined mainly by the system's functionality, the type of activities involved in the space to be cooled, and the surrounding area's bioclimatic variables (i.e. temperature, humidity, and diurnal temperature differences). In areas under consideration for passive cooling systems, bioclimatic charts are helpful. Comprehensive charts, in which yearlong hourly meteorological data are projected on a psychrometric chart, help to determine the fits required by a particular location. In this paper, psychrometric charts were developed for eight locations in Oman, and a systematic procedure on the selection and viability of using passive cooling techniques is provided through meteorological data. Givoni's passive cooling zones are used and the applicability of each technique is quantified. The eight study locations are widely scattered around and Oman, and possess great geographical diversity. The presented results can help delineate the applicability of each passive cooling technique for residential buildings at each of the study locations and their proximities.

 

Keywords

Thermal comfort zone Bioclimatic chart Evaporative cooling Ventilation High mass

Article Details

How to Cite
Al-Azri, N., Zurigat, Y., & Al-Rawahi, N. (2013). Selection and Assessment of Passive Cooling Techniques for Residential Buildings in Oman Using a Bioclimatic Approach. The Journal of Engineering Research [TJER], 10(2), 52–68. https://doi.org/10.24200/tjer.vol10iss2pp52-68

References

  1. Authority for Electricity Regulation, Oman (AEROman) (2008), Study on renewable energy resources. Final Report AER, Muscat, Oman.
  2. Artmann N, Manz H, Heiselberg P (2007), Climatic potential for passive cooling of buildings by nighttime ventilation in Europe. Applied Energy 84:187-201.
  3. Auliciems A (1981), Towards a psychophysiological model of thermal perception. Int. J. Biometer 25:109-122.
  4. Breesch H, Janssens A (2007), Reliable design of natural night ventilation using building simulation. Proceedings of the Thermal Performance of the Exterior Envelopes of Whole Buildings X International Conference 1-14, Clearwater Beach, Florida.
  5. Breesch, H, Janssens A (2010), Performance evaluation of passive cooling in office buildings based on uncertainty and sensitivity analysis. Solar Energy 84:1453-1467.
  6. Givoni B (1992), Comfort, climate analysis and building design guidelines. Energy and Buildings 1:11- 23.
  7. Givoni B (1994), Passive and low energy cooling of buildings. Van Nostrand Reinhold, New York.
  8. Givoni B (2009), Indoor temperature reduction by passive cooling systems. Solar Energy 85:1692- 1726.
  9. Fanger PO (1972), Thermal confort: analysis and applications in environmental engineering. MaGraw-Hill, New York.
  10. Haase M, Amato A (2009), An investigation of the potential for natural ventilation and building orientation to achieve thermal comfort in warm and humid climates. Solar Energy 83:389-399.
  11. Humphreys MA (1978), Outdoor temperature and comfort indoors. Building Research and Practice 6:92-105.
  12. International Energy Agency (IEA) (2006), World energy outlook: 2006 report. IEA, Paris.
  13. Kolokotroni M (1995), Night ventilation in commercial buildings. In: Annex 28: Review of Low Energy Cooling Technologies Subtask 1, 7-11. International Energy Agency, Ottawa.
  14. Lomas KJ, Fiala D, Cook MJ, Copper PC (2004), Building bioclimatic charts for non-domestic buildings and passive downdraught evaporative cooling. Building and Environment 39:661-676.
  15. MacPherson RK (1973), Thermal stress and thermal comfort. Ergonomics 16:1366-5847.
  16. MNE, Ministry of National Economy (2007, Statistical Year Book, MNE, Muscat, Oman.
  17. Olgyay V (1963), Design with climate, bioclimatic approach and architectural regonalism. Princeton University Press, Princeton, New Jersey.
  18. Reardon C (2010), Home technical manual. From: http://www.yourhome.gov.au/technical/. Accessed: January 20, 2013.
  19. Santamouris M, Asimakopoulos D (1996), Passive Cooling of Buildings. Routledge, London, UK.
  20. Sayigh A, Marafia AH (1998), Thermal comfort and the development of bioclimatic concept in building design. Renewable and Sustainable Energy Reviews 2:3-24.
  21. Shaviv E, Yezioro A, Capeluto IG (2001), Thermal mass and night ventilation as passive cooling design strategy. Renewable Energy 24:445-452.
  22. Szoloky SV (1986), Climate analysis based on psychometric chart. Ambient Energy 7:171-181.
  23. Szokolay SV (2004), Introduction to Architectural Science: The basis of sustainable design. Architectural Press, Oxford, UK.
  24. The American Society of Heating, Refrigerating and Air Conditioning Engineers (ASHRAE) (2009), ASHRAE Handbook Fundementals. ASHRAE, Atlanta, GA.
  25. United Nations Environment Program (UNEP) (2011), Global trends in renewable energy investment. Bloomberg New Energy Finance, Frankfurt, Germany.
  26. Watson D (1981), Analysis of weather data for determinimg appropriate climate control strategies in archetectural design. Proceedings of the International Passive and Hybrid Cooling Conference. Haisley R., Miami Beach, Florida.
  27. Zurigat YH, Sawaqed N, Al-Hinai H, Jubran B (2003), Development of typical meteorological years for different climatic regions in Oman. Final Report, Petroleum Development Oman, Muscat, Oman.