CHALLENGES OF PASSIVE COOLING TECHNIQUES IN BUILDINGS: A CRITICAL REVIEW FOR IDENTIFYING THE RESILIENT TECHNIQUE

Authors

  • Abbas M. Hassan aDepartment of Architecture, Faculty of Engineering, Al-Azhar University, Qena 83513, Egypt
  • Hyowon Lee School of Architecture, Chonnam National University, 77 Yongbongro, Bukgu, Gwangju 500-757, Republic of Korea
  • Segyu Oh School of Architecture, Chonnam National University, 77 Yongbongro, Bukgu, Gwangju 500-757, Republic of Korea

DOI:

https://doi.org/10.11113/jt.v78.5748

Keywords:

Passive cooling technologies, hot arid regions, thermal comfort, Hassan Fathy, Egypt

Abstract

Although many studies have investigated the potential of passive cooling technologies in hot and arid areas, an important question remains. Why did architects ignore the passive cooling technologies in new buildings despite their sustainability? This study is based on this pivotal question. This study aims to review and explore the impediments that undermine the use of these technologies in hot, arid areas; moreover it intends to determine the most resilient passive cooling technique which may be used as a master technique in buildings by architects. The study focuses on twelve of a proposed passive technologies. These techniques are reviewed according to their potentials and challenges. Hence, the drawbacks of each passive technique will be identified in order to recognize the most resilient passive technology. This study suggests that spatial limitations are the most salient challenges facing architects when they attempt to utilize passive cooling technologies. This study also concludes that the openings created in the upper parts of external walls is the most flexible technique that can be implemented in new and existing buildings, without any of the aforementioned impediments. 

References

Houda, M. Djamel, A. Fayçal, L. 2015. An Assessment Of Thermal Comfort And Users’ “Perceptions†In Office Buildings-Case Of Arid Areas With Hot And Dry Climate. Energy Procedia. 74: 243-250.

Al-temeemi, A. A., Harris, D. J. 2004. A Guideline For Assessing The Sustainability Of Earth-Sheltered Mass-Housing In Hot-Arid Climates. Energy and Buildings. 36: 251-260.

IEA. 2007. Renewables For Heating And Cooling. International Energy Agency. Available online at www.iea.org. 25.

Aldossary, N. A. Rezgui, Y. Kwan, A. 2014. Domestic Energy Consumption Patterns In A Hot And Arid Climate: A Multiple-Case Study Analysis. Renewable Energy. 62: 369-378.

Samuel, D. G. L. Nagendra, S. M. S. Maiya, M. P. 2013. Passive Alternatives To Mechanical Air Conditioning Of Building: A Review. Building And Environment. 66: 54-64.

Santamouris, M. Kolokotsa, D. 2013. Passive Cooling Dissipation Techniques For Buildings And Other Structures: The State Of The Art. Energy and Buildings. 57: 74-94.

Hamza, N. 2008. Double Versus Single Skin Facades In Hot Arid Areas. Energy and Buildings. 40: 240-248.

Lombard, L. P., Ortiz, C., Pout, C. 2008. A Review On Buildings Energy Consumption Information. Energy and Buildings. 40: 394-398.

Sadineni, S. B. Madala, S. Boehm, R. F. 2011. Passive Building Energy Savings: A Review Of Building Envelope Components. Renewable and Sustainable Energy Reviews. 15: 3617-3631.

Al-Temeemi, A. 1995. Climatic Design Techniques For Reducing Cooling Energy Consumption In Kuwait Houses. Energy and Buildings. 23: 41-48.

Roodgar, M. Mahmoudi, M.M. Ebrahimi, P. Molaei, D. 2011. Sustainability, Architectural Topology And Green Building Evaluations Of Kashan-Iran As A Hot-Arid Region. Procedia Engineering. 21: 811-819.

Porta-Gandara, M. A. Rubio, E. Fernandez, J. L. Munoz, V. G. 2002. Effect Of Passive Techniques On Interior Temperature In Small Houses In The Dry, Hot Climate Of Northwestern Mexico. Renewable Energy. 26: 21-135.

Sozen, M. S. Gedik, G. Z. 2007. Evaluation Of Traditional Architecture In Terms Of The Building Physics: Old Diyarbakir Houses. Building and Environment. 42: 1810-1816.

Alnaser, N. W. Flanagan, R. 2007. The Need Of Sustainable Buildings Construction In The Kingdom Of Bahrain. Building and Environment. 42: 495-506.

Kharrufa, S. N. Adil, Y. 2012. Upgrading The Building Envelope To Reduce Cooling Loads. Energy and Buildings. 55: 389-396.

Ealiwa, M. A. Taki, A. H. Howarth, A. T. Seden, M. R. 2001. An Investigation Into Thermal Comfort In The Summer Season Of Ghadames, Libya. Building and Environment. 36: 231-237.

Hassan, A. M. Lee, H. 2015. The Paradox Of The Sustainable City: Definitions And Examples. Environ Dev Sustain. 17: 1267-1285.

Hassan, A. M. Lee, H. Yoo, U. 2014. Evaluation Of The Contemporary Urban Design Through The Classic Urban Theories: Cairo And Gwangju Downtown As A Case Study. HBRC Journal. 10(3): 327-338.

Waqas, A. Din, Z.U. 2013. Phase Change Material (PCM) Storage For Free Cooling Of Buildings – A Review. Renewable and Sustainable Energy Reviews. 18: 607-625.

Foruzanmehr, A. Nicol, F. 2008. Towards New Approaches For Integrating Vernacular Passive-Cooling Systems Into Modern Buildings In Warm-Dry Climates Of Iran. Air Conditioning and the Low Carbon Cooling Challenge Conference, 2008. Cumberland Lodge, Windsor, UK, 27-29 July 2008. http://nceub.org.uk.

Geetha, N. B. Velraj, R. 2012. Passive Cooling Methods For Energy Efficient Buildings With And Without Thermal Energy Storage–A Review. Energy Education Science and Technology Part A: Energy Science and Research. 29(2): 913-946

European Commission. 1994. The European Renewable Energy Study. Altener Programme. Rectorate General Energy.

Santamouris, M. Kolokotsa, D. 2013. Passive Cooling Dissipation Techniques For Buildings And Other Structures: The State Of The Art. Energy and Buildings. 57: 74-94.

Givoni, B. 2007. Cooling Soil As A Cooling Source For Buildings. Solar Energy. 81: 316-328.

Dronkelaar, C.V. Cóstola, D. Mangkuto, R. A. Hensen, J. L. M. 2013. Heating And Cooling Energy Demand In Underground Buildings: Potential For Saving In Various Climates And Functions. Energy And Buildings. 71: 129-136.

Durmisevic, S. 1999. The Future of The Underground Space, Cities. 16(4): 233-245.

Khair-El-Din, A. 1990. Energy Conservation And Its Implication For Architectural Design And Town Planning In The Hot-Arid Areas Of Saudi Arabia And The Gulf States. Solar & Wind Technology. 7(2-3): 131-138.

Zinzi, M. Agnoli, S. 2012. Cool And Green Roofs. An Energy And Comfort Comparison Between Passive Cooling And Mitigation Urban Heat Island Techniques For Residential Buildings In The Mediterranean Region. Energy and Buildings. 55: 66-76.

Saeli, M. Saeli, E. 2015. Analytical Studies Of The Sirocco Room Of Villa Naselli-Ambleri: A XVI Century Passive Cooling Structure In Palermo (Sicily). Journal of Cultural Heritage. 16: 344-351.

Zaki, A. K. Amjad, A. Almssad, A. 2007. Cooling By Underground Earth Tubes. 2nd PALENC Conference and 28th AIVC Conference on Building Low Energy Cooling and Advanced Ventilation Technologies in the 21st Century, 2007 Crete island, Greece, September 2007. 517-520.

Benardos, A. Athanasiadis, I. Katsoulakos, N. 2014. Modern Earth Sheltered Constructions: A Paradigm Of Green Engineering. Tunnelling and Underground Space Technology. 41: 46-52.

Hassan, A. M. Lee, H. 2014. A Theoretical Approach To The Design Of Sustainable Dwellings In Hot Dry Zones: A Toshka Case Study. Tunnelling and Underground Space Technology. 40: 251-262.

Da-yong, X. Cun-feng, Z. Ke, Y. Xu-hai, P. 2014. Feasibility Analysis On Natural Ventilation Scheme For Large Underground Spaces Based On The Top Cover Design. Tunnelling and Underground Space Technology. 44: 23-32.

Sheweka S. 2011. Using Mud Bricks As A Temporary Solution For Gaza Reconstruction. Energy Procedia. 6: 236-240.

Danby, M. 1973. The Design of Building in Hot-dry Climates and the Internal Environment. Building International. 6(1): 67.

Jiao, F. Xu, P. 2015. Simulation And Feasibility Analysis Of PCM Based Passive Cooling Technique In Residential House. 9th International Symposium On Heating, Ventilation and Air Conditioning (ISHVAC) and the 3rd International Conference on Building Energy and Environment (COBEE). Procedia Engineering. 121: 1969-1976.

Al-Saffar, M. 2015. Passive Cooling Strategies in Greening Existing Residential Building in Hot Dry Climate: Case Study in Bahrain. Journal of Environmental Science and Engineering A. 4: 233-240.

Hashemi, N. Fayaz, R. Sarshar, M. 2010. Thermal Behaviour Of A Ventilated Double Skin Façade In Hot Arid Climate. Energy and Buildings. 42: 1823-1832.

Poirazis, H. 2004. Double Skin Façades for Office Buildings. Literature Review. Report EBD-R--04/3. Division of Energy and Building Design. Department of Construction and Architecture. Lund Institute of Technology. Sweden

Ridouane, E. Bianchi, M. 2011. Thermal Performance of Uninsulated and Partially Filled Wall Cavities. ASHRAE Annual Conference, 2011 Montreal, Quebec. 25–29June.

Chan, H., Riffat S. B. Zhu, J. 2010. Review Of Passive Solar Heating And Cooling Technologies. Renewable and Sustainable Energy Reviews. 14: 781-789.

Markus, T. A. Morris, E. N. 1980. Building, Climate and Energy. London: Spottiswoode Ballantyne Ltd. 373-374.

Dabaieh, M. Wanas, O. Hegazy, M. A. Johansson, E. 2015. Reducing Cooling Demands In A Hot Dry Climate: A Simulation Study For Non-Insulated Passive Cool Roof Thermal Performance Inresidential Buildings. Energy and Buildings. 89: 142-152.

Ali-Toudert, F. Mayer, H. 2006. Numerical Study On The Effects Of Aspect Ratio And Orientation Of An Urban Street Canyon On Outdoor Thermal Comfort In Hot And Dry Climate. Building and Environment. 41: 94-108.

Kruger, E. Pearlmutter, D. Rasia, F. 2010. Evaluating The Impact Of Canyon Geometry And Orientation On Cooling Loads In A High-Mass Building In A Hot Dry Environment. Applied Energy. 87: 2068-2078.

Bouchahm, Y. Bourbia, F. Belhamri, A. 2011. Performance Analysis And Improvement Of The Use Of Wind Tower In Hot Dry Climate. Renewable Eneregy. 36: 898-906.

Kalantar, V. 2009. Numerical Simulation Of Cooling Performance Of Wind Tower (Baud-Geer) In Hot And Arid Region. Renewable Energy. 34: 246-254.

Hosseinnia, S. M. Saffari, H. Abdous, M. A. 2013. Effects Of Different Internal Designs Of Traditional Wind Towers On Their Thermal Behavior. Energy and Buildings. 62: 51-58.

Chávez, J. R. G. 2014. Application of Combined Passive Cooling and Passive Heating Techniques to Achieve Thermal Comfort in a Hot Dry Climate. Energy Procedia. 57: 1669-1676.

Benhammou, M. Draoui, B. Zerrouki, M. Marif, Y. 2015. Performance Analysis Of An Earth-To-Air Heat Exchanger Assisted By A Wind Tower For Passive Cooling Of Buildings In Arid And Hot Climate. Energy Conversion and Management. 91: 1-11.

Santamouris, M. Pavlou, K. Synnefa, A. Niachou, K. Kolokotsa, D. 2007. Recent Progress On Passive Cooling Techniques Advanced Technological Developments To Improve Survivability Levels In Low-Income Households. Energy and Buildings. 39: 859-866.

Bahadori, M. N. 1994. Variability Of Wind Tower In Achieving Summer Comfort In The Hot Arid Regions Of The Middle East. Renewable Energy. 5(2): 879-892.

Soutullo, S. Olmedo R. Sanchez, M. N. Heras, M. R. 2011. Thermal Conditioning For Urban Outdoor Spaces Through The Use Of Evaporative Wind Towers. Building and Environment. 46: 2520-2528.

Kubota, T. Toe, D. H. C. 2015. Application Of Passive Cooling Techniques In Vernacular Houses To Modern Urban Houses: A Case Study Of Malaysia. Procedia – Social and Behaviour Science. 179: 29-39.

Toe, D. H. C., Kubota, T. 2015. Comparative Assessment Of Vernacular Passive Cooling Techniques For Improving Indoor Thermal Comfort Of Modern Terraced Houses In Hot–Humid Climate Of Malaysia. Solar Energy. 114: 229-258.

Johansson, E. 2006. Influence Of Urban Geometry On Outdoor Thermal Comfort In A Hot Dry Climate: A Study In Fez, Morocco. Building and Environment. 41: 1326-1338.

Aldawoud A. 2008. Thermal Performance Of Courtyard Buildings. Energy and Buildings. 40: 906-910.

Cantón, M. A., Ganem, C., Barea, G., Llano, J. F. 2014. Courtyards As A Passive Strategy In Semi Dry Areas. Assessment Of Summer Energy And Thermal Conditions In A Refurbished School Building. Renewable Energy. 69: 437-446.

Bourbia, F. Awbi, H. B. 2004. Building Cluster And Shading In Urban Canyon For Hot Dry Climates – Part 2: Shading Simulations. Renewable Energy. 29: 291-301.

Meir, I. A. 1995. Pearlmutter D, Etzion Y. On The Microclimatic Behavior Of Two Semi-Enclosed Attached Courtyards In A Hot Dry Region. Building and Environment. 30(4): 563-572.

Rudofsky B. 1990. Architecture Without Architect: A Short Introduction To Non–Pedigreed Architecture (Third Printing, New York :university of New Mexico. 146-148.

Thambidurai, M. Panchabikesan, K. N, K. M., Ramalingam, V. 2015. Review On Phase Change Material Based Free Cooling Of Buildings—The Way Toward Sustainability. Energy Storage. 4: 74-88.

Nahar, N. M. Sharma, P. Purohit, M. M. 1999. Studies On Solar Passive Cooling Techniques For Arid Areas. Energy Conversion & Management. 40: 89-95.

Campaniço, H. Soares, P. M. M. Hollmuller, P. Cardoso, R. M. 2016. Climatic Cooling Potential And Building Cooling Demand Savings: High Resolution Spatiotemporal Analysis Of Direct Ventilation And Evaporative Cooling For The Iberian Peninsula. Renewable Energy. 85: 766-776.

Cruz, E. G. Krüger, E. 2015. Evaluating The Potential Of An Indirect Evaporative Passive Cooling System For Brazilian Dwellings. Building and Environment. 87: 265-273.

Tsoar, E. E. H. 1997. An Experimental Evaluation Of Strategies For Reducing Airborne Dust In Desert Cities. Building and Environment. 32(3): 225-236.

Guan, L. Bennett, M. Bell, J. 2015. Evaluating The Potential Use Of Direct Evaporative Cooling In Australia. Energy and Buildings. 108: 185-194.

Nahar, N. M. Sharma P. Purohit, M. M. 2003. Performance Of Different Passive Techniques For Cooling Of Buildings In Arid Regions. Building and Environment. 38(1): 109-116.

IEA. 1995. Annex 28 - Low Energy Cooling: Review of Low Energy Technologies. Report for Energy Conservation in Buildings and Community Systems Programme, Natural Resources Canada I CANMET: Canada.

Sharifi, A. Yamagata, Y. 2015. Roof Ponds As Passive Heating And Cooling Systems: A Systematic Review. Applied Energy. 160: 336-357.

Nix, E. Das, P. Jain, N. Davies, M. 2015. Strategies For Reducing Poor Indoor Air Quality And Adverse Temperature Exposure In Delhi’s Households: A Multi-Objective Assessment. Building Serv. Eng. Res. Technol. 36(2): 230-246.

Gupta, R., Gregg, M., Williams, K. 2015. Cooling The UK Housing Stock Post-2050s. Building Serv. Eng. Res. Technol. 36(2): 196-220.

Dabaieh, M., Wanas, O., Hegazy, M. A., Johansson, E. 2015. Reducing Cooling Demands In A Hot Dry Climate: A Simulation Study For Non-Insulated Passive Cool Roof Thermal Performance Inresidential Buildings. Energy and Buildings. 89: 142-152.

Aboulnaga, M. 2013. Sustainable Building For A Green And An Efficient Built Environment: New And Existing Case Studies In Dubai. Sustainability, Energy and Architecture. 131-170.

Jayswal, M. 2012. To Examine The Energy Conservation Potential Of Passive & Hybrid Downdraught Evaporative Cooling: A Study For Commercial Building Sector In Hot And Dry Climate Of Ahmedabad. Energy Procedia. 30: 1131-1142.

Al-Sallal, K. A., Al-Rais, L. 2011. Outdoor Airflow Analysis And Potential For Passive Cooling In The Traditional Urban Context Of Dubai. Renewable Energy. 36: 2494-2501.

Milner, J. Hamilton, I. Shrubsole, C. Das, P. Chalabi, Z. Davies, M. Wilkinson, P. 2015. What Should The Ventilation Objectives Be For Retrofit Energy Efficiency Interventions Of Dwellings? Building Serv. Eng. Res. Technol. 36(2): 221-229.

Steele J. 1997. An Architecture For People: The Complete Works Of Hassan Fathy. New York: Whitney Library of Design. 85-93.

Fekry, A.A. El-zafarany, A. 2002. Quantitative Evaluation of Shading Patterns of Domes And Its Impact on Roof Solar Gain. Symposium on Urban Development in Arid Regions and Associated Problems, Riyadh. [online] Available: http://ipac.kacst.edu.sa/edoc/1423/139582.1-423300638.pdf; 2013 [accessed 17/01/2013].

Serageldin, I. 2007. Hassan Fathy. Egypt: Alexandria: The bibliotheca. Egypt.

Kamal, M. A. 2012. An Overview of Passive Cooling Techniques in Buildings: Design Concepts and Architectural Interventions. Acta Technica Napocensis: Civil Engineering & Architecture. 55(1): 84-97.

Foruzanmehr, A. 2015. People’s Perception Of The Loggia: A Vernacular Passive Cooling System In Iranian Architecture. Sustainable Cities and Society. 19: 61-67.

Smith, D. A. 2015. Affordable housing in Egypt. Report to Affordable Housing Institute Developing Affordable Housing Ecosystems Worldwide. Available online at: < http://affordablehousinginstitute.org/blogs/us/2012/06/affordable-housing-in-egypt.html>, access date: March, 18th, 2015.

Akdn. 2015. Aga Khan Award for Architecture. Available online at: <http://www.akdn.org/architecture/project.asp?id=60>, access date: March, 18th, 2015.

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Published

2016-05-30

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Science and Engineering

How to Cite

CHALLENGES OF PASSIVE COOLING TECHNIQUES IN BUILDINGS: A CRITICAL REVIEW FOR IDENTIFYING THE RESILIENT TECHNIQUE. (2016). Jurnal Teknologi, 78(6). https://doi.org/10.11113/jt.v78.5748