THERMAL SCIENCE

International Scientific Journal

Sidi Mohammed El Amine Bekkouche

,

Tayeb Benouaz

,

Mohamed Kamel Cherier

,

Maamar Hamdani

,

Rédha Mohamed Yaiche

,

Rachid Khanniche

INFLUENCE OF BUILDING ORIENTATION ON INTERNAL TEMPERATURE IN SAHARAN CLIMATES, BUILDING LOCATED IN GHARDAïA REGION (ALGERIA)

ABSTRACT
In desert regions, the orientation of buildings has an important influence in the inside air temperature. In the present work, we carry out a study on the influence of the buildings orientation as well as the thermal insulation on the internal temperature. To do so, we have considered the case where only the exposed walls are isolated. The main objective of the current work is to determine the temperatures of the building in question with and without thermal insulation. This study aims at assessing also the geographic parameter enhancing or damping the role of thermal inertia, providing a variety of results. As result, this work proves that stones play a contradictory role on thermal comfort. We have verified that thermal insulation is specified to reduce heat transfer through the building. Concerning the orientation, results indicates that the variation in orientation does not influence significantly the internal air temperature of a well thermally insulated building. Moreover, in hot period, whatever orientation considered, the phenomenon of overheating presents a serious problem to minimize consumption of energy and control of indoor temperature in case of building without insulation. The numerical data was compared to the experimental measurements in order to validate the mathematical model. In conclusion, to achieve a better thermal comfort arid and semi arid regions, the habitation will have to be situated in south flan of a hill to satisfy the two strategies (hot and cold).
KEYWORDS
temperature, solar irradiation, thermal inertia, orientation, thermal insulation, mathematical model
PAPER SUBMITTED: 2011-01-21
PAPER REVISED: 2011-08-05
PAPER ACCEPTED: 2011-09-02
DOI REFERENCE: https://doi.org/10.2298/TSCI110121112B
CITATION EXPORT: view in browser or download as text file
THERMAL SCIENCE YEAR 2013, VOLUME 17, ISSUE Issue 2, PAGES [349 - 364]
REFERENCES
  1. A. Mingozzi; S. Bottiglioni and M. Medola, Passive cooling of a bioclimatic building in the continental climate of the padan plain: analysing the role of thermal mass with dynamic simulations, International Journal of Sustainable Energy, Volume 28, Issue 1 - 3 March 2009 , pages 141 - 156
  2. A. Mingozzi and S. Bottiglioni, Bioclimatic architecture, the case study of the sustainable residential settlement in pieve Di cento, 2nd PALENC Conference and 28th AIVC Conference on Building Low Energy Cooling and Advanced Ventilation Technologies in the 21st Century, September 2007, Crete Island, Greece.
  3. L. Wang, J. Gwilliam and P. Jones, Case study of zero energy house design in UK, Energy and Buildings 41, 2009 pp 1215 - 1222
  4. J. Yu, C. Yang and L. Tian, Low-energy envelope design of residential building in hot summer and cold winter zone in China, Energy and Buildings 40, 2008 pp 1536 - 1546.
  5. A.F. Tzikopoulos, M.C. Karatza and J.A. Paravantis, Modeling energy efficiency of bioclimatic buildings, Energy and Buildings 37 (2005) 529 - 544.
  6. F.F. Al-Ajmi and V.I. Hanby, Simulation of energy consumption for Kuwaiti domestic buildings, Energy and Buildings 36, 2004 710 - 719.
  7. E. Gratia and A.D. Herde, Greenhouse effect in double-skin facade, Energy and Buildings 39 (2007) 199 - 211. L. Buzzoni, R. Dall Olio and M. Spigab, Energy analysis of a passive solar system, Rev Gén. Therm (1998) 37, 411 - 416 Elsevier, Paris.
  8. Snežana M. Dragicevic and Miroslav R. Lambic, Numerical study of a modified trombe wall solar collector system, Thermal science: Vol. 13 (2009), No. 1, pp. 195 - 204.
  9. Mikhail V. Diomidov, Mikhail I. Nizovtsev, and Viktor I. Terekhov, Ventilation of window interpane cavity aimed at a higher temperature of the inner pane, Thermal science: vol. 6 (2002), No. 1, pp. 15 - 22.
  10. Angela Sasic Kalagasidis, The efficiency of a dynamically insulated wall in the presence of air leakages, Thermal science. vol. 8 (2004), No. 1, pp. 83 - 94.
  11. Ioan V. Luminosu, Experimental Studies and Economic Considerations on a Thermosolar Pilot System Destined for House Temperature Maintenance, Thermal science: vol. 7 (2003), no. 1, pp. 47 - 61.
  12. Ioan luminous, Experimental studies and economic considerations on a living space heated through passive solar gain and through electric power, Thermal science: vol. 7 (2003), No. 2, pp. 89 - 104.
  13. Biljana vucicevic, Valentina turanjanin, Vukman bakic, Marina jovanovic, and Zana stevanovic, Experimental and numerical modelling of thermal performance of a residential building in belgrade , Thermal science: vol. 13 (2009), No. 4, pp. 245-252
  14. N. Fezzioui1, B. Droui, M. Benyamine et S. Larbi, Influence des caractéristiques dynamiques de l'enveloppe d'un bâtiment sur le confort thermique au Sud Algérien. Revue des Energies Renouvelables, 2008, Vol 11 N°1 p 25 - 34.
  15. Z. Chelghoum et A. Belhamri, Habitat a bas profil énergétique, Revue des Energies Renouvelables, Journées de Thermique 2001, p 59 - 64.
  16. S.M.A Bekkouche, T Benouaz and A Cheknane, Simulation and experimental studies of an internal thermal insulation of tow pieces of rooms located in Ghardaia (Algeria). IJACE International Journal of Advanced Computer Engineering, June 2009, Volume 2 Issue 1 pp 1 - 9.
  17. S.M.A. Bekkouche, T. Benouaz and A. Cheknane, A modelling approach of thermal insulation applied to a Saharan building. Thermal Science, Vol 13 (2009), No. 4, pp. 233 - 244
  18. M. Capderou, Modeles théoriques et expérimentaux, Atlas solaire de l'Algérie, Office des Publications Universitaires, Algérie 1987. Tome 1 Vol 1 et 2.
  19. A Mefti, M.Y Bouroubi et A Khellaf, Analyse critique du modèle de l'atlas solaire de l'Algérie, Revue des Energies Renouvelables, 1999. Vol 2 N°2 p 69 - 85.
  20. F. Kasten and A.T Young, Revised optical air mass tables and approximation formula, Applied Optics 1989 Vol 28 N°22 p 4735 - 4738.
  21. F. Kasten, A simple parameterization of two pyrheliometric formulae for determining the Linke turbidity factor. Meteorology Rdsch, 1980. Vol 33 p 124 - 127.
  22. F. Kasten, The Linke turbidity factor based on improved values of the integral Rayleigh optical thickness, Solar Energy, 1996. Vol 56 N°3 p 239 - 244.
  23. J. A. Orosa and T. Carpente, Thermal inertia effect in old buildings, European Journal of Scientific Research, Vol.27 No.2 (2009), pp.228-233
  24. S. V. G. Goulart, Thermal inertia and natural ventilation - Optimisation of thermal storage as a cooling technique for residential buildings in southern Brazil, A Thesis Submitted in Partial Fulfillment of the Requirements of the Open University for the Degree of Doctor of Philosophy, October 2004.
  25. K.A. Dornelles and M. Roriz, Thermal inertia, comfort and energy consumption in buildings: A case study in sao paulo state- Brasil, International Journal for Housing Science and its Applications, 2004, 28, part 2, pp. 153-162.
  26. A. Noren, J. Akander, E. Isfät and O. Söderström, The effect of thermal inertia on energy requirements in a Swedish buildingresults obtained with three calculation Swedish building results obtained with three calculation models, International Journal of Low Energy and Sustainable Buildngs, 1999, 1.1999.
  27. E. Gratia and A.D. Herde, Design of low energy office buildings, Energy and Buildings 35 (2003) 473 - 491.
  28. Y Jannot, Thermique Solaire, Cours et exercices, Chapitre: l'Energie solaire, Chapitre: Bibliographie: Facteurs de forme géométrique de rayonnement, Octobre 2003.
  29. G. Ritoux, Evaluation numérique des facteurs de forme, Revue Phys, Appl, 17 (1982) 503-515.
  30. J.F Sacadura, Initiation aux transferts thermiques, Technique et documentation, Chapitre 4: Transfert de chaleur par convection, Paris 1978.
  31. J. A Duffie and W. A Beckman, Solar energy thermal processes, Second edition, Wiley interscience, New York, 1974
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Influence of building orientation on internal temperature in saharan climates, building located in Ghardaïa region (Algeria)

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