Low energy building design: heating, ventilation and air conditioning

Authors

  • A. M. Omer Forest Road West, Nottingham NG7 4EU, UK

Keywords:

Built environment,Energy efficient comfort,Ventilation,Sustainable environmental impact

Abstract

The move towards a de-carbonised world, driven partly by climate science and partly by the business opportunities it offers, will need the promotion of environmentally friendly alternatives, if an acceptable stabilisation level of atmospheric carbon dioxide is to be achieved. This requires the harnessing and use of natural resources that produce no air pollution or greenhouse gases and provides comfortable coexistence of human, livestock, and plants. This study reviews the energy-using technologies based on natural resources, which are available to and applicable in the farming industry. Integral concept for buildings with both excellent indoor environment control and sustainable environmental impact are reported in the present communication. Techniques considered are hybrid (controlled natural and mechanical) ventilation including night ventilation, thermo-active building mass systems with free cooling in a cooling tower, and air intake via ground heat exchangers. Special emphasis is put on ventilation concepts utilising ambient energy from air ground and other renewable energy sources, and on the interaction with heating and cooling. It has been observed that for both residential and office buildings, the electricity demand of ventilation systems is related to the overall demand of the building and the potential of photovoltaic systems and advanced co-generation units. The focus of the world’s attention on environmental issues in recent years has stimulated response in many countries, which have led to a closer examination of energy conservation strategies for conventional fossil fuels. One way of reducing building energy consumption is to design buildings, which are more economical in their use of energy for heating, lighting, cooling, ventilation and hot water supply. Passive measures, particularly natural or hybrid ventilation rather than air-conditioning, can dramatically reduce primary energy consumption. However, exploitation of renewable energy in buildings and agricultural greenhouses can, also, significantly contribute towards reducing dependency on fossil fuels. This article describes various designs of low energy buildings. It also, outlines the effect of dense urban building nature on energy consumption, and its contribution to climate change. Measures, which would help to save energy in buildings, are also presented.

References

Anne, G., Michael, S., 2005. Building and land management. 5th edition. Oxford: UK.

ASHRAE., 1993. Energy efficient design of new building except new low-rise residential buildings. BSRIASHRAE proposed standards 90-2P-1993, alternative GA. American Society of Heating, Refrigerating. Air Condit. Eng., Inc., USA.

Awbi, H., 1991. Ventilation of buildings. Spon Publisher. London: UK. p. 9-13.

Bahadori, M., 1988. A passive cooling/heating system for hot arid regions. In: Proceedings of the American Solar Ener. Soc. Confer., Cambridge. Massachusetts, p.364-367.

Borda-Daiz, N., Mosconi, P., Vazquez, J., 1989. Passive cooling strategies for a building prototype design in a warm-humid tropical climate. Solar Wind Technol., 6, p.389-400.

Boulet, T., 1987. Controlling air movement: a manual for architects and builders. McGraw-Hill, p.85-138, New York: USA.

BS 5454., 1989. Storage and exhibition archive documents. British Standard Inst., London.

Crisp, V., Cooper, I., McKennan, G., 1988. Daylighting as a passive solar energy option: an assessment of its potential in non-domestic buildings., Report BR129-BRE. Garston. UK.

David, E., 2003. Sustainable energy: choices, problems and opportunities. Roy. Soc. Chem., 19, 19-47.

Dieng, A., Wang, R., 2001. Literature review on solar absorption technologies for ice making and air conditioning purposes and recent development in solar technology. Renewable Susta. Ener. Rev., 5 (4), 313-42.

EIBI (Energy in Building and Industry). 1999. Constructive thoughts on efficiency, building regulations, inside committee limited, Inside Energy. magaz. ener. profess., UK: KOPASS, p.13-14.

Erlich, P., 1991. Forward facing up to climate change, in Global Climate Change and Life on Earth. R.C. Wyman (Ed), Chapman and Hall, London.

Fanger, P., 1970. Thermal comfort: analysis and applications in environmental engineering. Danish Techn. Press.

Fordham, M., 2000. Natural ventilation. Renewable Ener., 19, 17-37.

Givoni, B., 1965. Laboratory study of the effect of window sizes and location on indoor air motion. Arch. Sci. Rev., 8, 42-46.

Givoni, B., 1976. Man climate and architecture. Appl. Sci. Publ., Ltd, p.289-306. London: UK.

Givoni, B., Man climate and architecture. Appl. Sci. Publ., Ltd, p.289-306. London: UK. 1976.

Horning, M., Skeffington, R., 1993. Critical loads: concept and applications. Institute of Terrestrial Ecology. HMSO Publishers Ltd. London: UK. p. 23-27.

Humphrey’s, M., 1978. Outdoor temperatures and comfort indoor. Build. Res. Pract., 6 (2).

Jeremy, L., 2002. The positive solution: Solar Century. Ener. Env. Manag., p.4-5.

Jeremy, L., 2005. The energy crisis, global warming and the role of renewables. Renewable Ener. World., 8 (2).

Koenigsberger, O., Ingersoll, T., Mayhew, A., 1973. Szokolay S. Manual of tropical housing and building. Part 1. Clim. design. Longmas, p.119-130. London: UK.

Lam, J.C., 2000. Shading effects due to nearby buildings and energy implications. Ener. Conservat. Manag., 47 (7), 647-59.

Lazzarin, R., D’Ascanio, A., Gaspaella, A., 2002. Utilisation of a green roof in reducing the cooling load of a new industrial building. In. Proc.1st Inter. Confer. Sust. Ener. Technolog., (SET), p. 32-37, Porto: Portugal. 12-14 June

Limb, M.J., 1995. Air intake positioning to avoid contamination of ventilation. AIVC.

Lobo, C., 1998. Defining a sustainable building. In: Proceedings of the 23rd National Passive Conference. Amer. Solar Ener. Soc., (ASES’98). Albuquerque: USA.

Miller, G., 1990. Resource conservation and management. Wadsworth Publishers. California: USA, p.51-62.

Molla, M., 1997. Air pollutants and its probable transmutation in the ionosphere. Renewable Ener., 10 (2/3),327-329.

Omer, A., 2003. Low energy building materials: an overview. In: Proceedings of the Environment 2010. Situat. Perspect. Eur. Union. p. 16-21. Porto: Portugal. 6-10 May.

Raja, J., Nichol, F., McCartney, K., 1998. Natural ventilated buildings use of controls for changing indoor climate. In. Proceed. World Renewable Ener. Congr., V. p. 391-394. Florence: Italy. 20-25 September .

Randal, G., Goyal, R., 1998. Greenhouse technology. New Delhi: Narosa Publ. House.

Szokolay, S., 1990. Design and research issues: passive control in the tropic. Proceedings First World Renewable Ener. Congr., p.2337-2344, Reading: UK.

UNEP., 2003. Handbook for the international treaties for the protection of the ozone layer. United Nat. Env. Prog. Nairobi: Kenya.

Viktor, D., 2002. Ventilation concepts for sustainable buildings. In: Proceedings of the World Renewable Ener. Congr. VII, p. 551, Cologne: Germany. 29 June – 5 July.

Yadav, I., Chauadhari, M., 1997. Progressive floriculture. Bangalore: The house of Sarpan, p.1-5.

Zuatori, A., 2005. An overview on the national strategy for improving the efficiency of energy use. Jordan. Ener. Abstr., 9 (1), 31-32.

Published

2015-02-28

How to Cite

M. Omer, A. (2015). Low energy building design: heating, ventilation and air conditioning. Scientific Journal of Review, 4(2), 30-46. Retrieved from http://sjournals.com/index.php/sjr/article/view/442

Issue

Section

Environmental Sciences