Orientation and Climatic Consideration in Building

Abstract

An optimization of solar gains reduces the required heating demand, however too high solar gains can lead to overheating issues. Most methods for building energy ratings and building energy. To incorporate shading by fixed elements as an influence on solar gains into those methods, some simplifications are necessary. Shading devices reduce solar radiation transmission into the space by absorbing and reflecting radiation rays. This study investigates the effect of shading and day-lighting controls when applied on fully-glazed facades on the annual energy savings in hot climates. This paper discusses Improve internal temperature of buildings at Hyderabad to reduce energy consumption by designing proper projections according to the need researcher. Furthermore, study also highlights energy crises in our country, hence it is must to reduce the load on energy sources for such purposes and reduce the needs of energy in terms of electricity, gas, and such other fuels.

Country : Pakistan

1 Architect Moazam Ali Pathan2 Prof. Dr Sabeen Qureshi3 Architect Jam Zeeshan Ali4 Architect Muhammad Afzal Brohi5 Architect Abdul Waheed Memon

  1. Department of Architecture, Mehran U.E.T., Jamshoro, Sindh, 76062, Pakistan
  2. Department of Architecture, Mehran U.E.T., Jamshoro, Sindh, 76062, Pakistan
  3. Department of Architecture, Mehran U.E.T., Jamshoro, Sindh, 76062, Pakistan
  4. Department of Architecture, Mehran U.E.T., Jamshoro, Sindh, 76062, Pakistan
  5. Department of Architecture, Mehran U.E.T., Jamshoro, Sindh, 76062, Pakistan

IRJIET, Volume 2, Issue 7, September 2018 pp. 8-11

References

  1. Arif, Sabahat Khan, Arif and Alamgir, Khali.D., Modelling the Temperature Effect of Orientations in Residential Buildings. Mehran University Research Journal of Engineering & Technology, 31(3), pp.371-378.
  2. Adenuga O, Building maintenance in Nigeria; structural deterioration, recognition and diagnosis of causes and remedies. Shelter watch 1 (001) 2012.
  3. Fadzil, S.F.S. and Sia, S.J., 2004. Sunlight control and daylight distribution analysis: the KOMTAR case study. Building and Environment, 39(6), pp.713-717, The Royal Institution of Chartered Surveyors, 2008.
  4. Jorge, J., Puigdomenech, J. and Cusido, J.A., 1993. A practical tool for sizing optimal shading devices. Building and Environment, 28(1), pp.69-72.
  5. Kensek, K., Noble, D., Schiler, M. and Setiadarma, E., 1996. Shading Mask: a teaching tool for sun shading devices. Automation in Construction, 5(3), pp.219-231.
  6. Khan, A., Arif, S. and Alamgir, K., Comparison of Buildings' Thermal Loads against Building Orientations for Sustainable Housing in Pakistan.
  7. Kuhn, T.E., Bühler, C. and Platzer, W.J., 2001. Evaluation of overheating protection with sun-shading systems. Solar Energy, 69, pp.59-74.
  8. Sun, B., Luh, P.B., Jia, Q.S., Jiang, Z., Wang, F. and Song, C., 2013. Building energy management: Integrated control of active and passive heating, cooling, lighting, shading, and ventilation systems. IEEE Transactions on automation science and engineering, 10(3), pp.588-602.
  9. Sun, B., Luh, P.B., Jia, Q.S., Jiang, Z., Wang, F. and Song, C., 2010, August. An integrated control of shading blinds, natural ventilation, and HVAC systems for energy saving and human comfort. In Automation Science and Engineering (CASE), IEEE Conference on (pp. 7-14). IEEE.2010.
  10. Olgyay, A., 1957. Solar control and shading devices.
  11. Taleb, H.M. Using passive cooling strategies to improve thermal performance and reduce energy consumption of residential buildings in UAE buildings. Frontiers of Architectural Research, 3(2), pp.154-165, 2014.