A Review on Embodied Energy Through Industrialised Building System Implementation in Construction Industries

Authors

  • Zaini N. Department of Civil Engineering, Faculty of Engineering, Universiti Malaysia Sarawak, 94300 Kota Samarahan, Sarawak, Malaysia
  • Ibrahim S. H. Department of Civil Engineering, Faculty of Engineering, Universiti Malaysia Sarawak, 94300 Kota Samarahan, Sarawak, Malaysia
  • Baharun A. Department of Civil Engineering, Faculty of Engineering, Universiti Malaysia Sarawak, 94300 Kota Samarahan, Sarawak, Malaysia
  • Nawi M. N. M. School of Technology Management and Logistic, Universiti Utara Malaysia, 06010 Sintok, Kedah, Malaysia

DOI:

https://doi.org/10.11113/sh.v6n1.521

Keywords:

Industrialised Building System (IBS), conventional building system, embodied energy, co2 emission, environmental impacts, malaysian construction industry

Abstract

In Malaysia, the implementation of Industrialised Building System (IBS) has been recommended as one of the alternative to minimize the quantity of material used and reduce the construction time and wastage. However, the implementation of this approach still remains in doubt because the benefits have not been fully recognised and well defined in the construction industry. Other factors that contribute to save cost and energy should be investigated in order to popularized other alternative of construction method.The process of the material’s production, transportation, erection and installation at construction site consume embodied energy and emit carbon dioxide (CO2) that gives negative impacts on the environment. Therefore, it is necessary to consider embodied energy and CO2 amongst other factors in selecting building materials to be used in construction projects. The aim of this paper is to explore the significance in assessing energy consumption through application of IBS construction technique in order to evolve stakeholder perspective towards the application of IBS during the stage of decision making.

References

Abanda F.Henry, Nkeng G.Elambo, Tah J. H. M., Ohandja E. N.Fabrice, and Manjia M.Blanche (2014). Embodied Energy and CO2 Analyses of Mud-brick and Cement-block Houses. AIMS Energy, 2, 18–40. doi:10.3934/energy.2014.1.18

Airaksinen, M. & Matilainen, P., 2011. A Carbon Footprint Of An Office Building. Energies, 4, 1197–1210. Available At: Http://Www.Mdpi.Com/1996-1073/4/8/1197 [Accessed April 4, 2015].

Azman, M., Ahamad, M. & Hussin, W. (2012). Comparative Study On Prefabrication Construction Process. Surveying Research Journal, 45–58. Available At: Http://Www.Rism.Org.My/Ismdoc/Isrj/Vol-2.1/Full-2.1.Pdf#Page=45 [Accessed April 13, 2015].

Baba, A.O., Joseph, R. & Shamil, N. (2005). Off Site Production And Benefits In The UK Construction Industry : Theoretical Approach. , 2002, 195–206.

Bari, N.A.A. et al. (2012). Environmental Awareness And Benefits Of Industrialized Building Systems (IBS). Procedia - Social And Behavioral Sciences, 50(July), 392–404. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S1877042812031825 [Accessed January 29, 2014].

Chen, T.., Burnett, J. & Chau, C.. (2001). Analysis Of Embodied Energy Use In The Residential Building Of Hong Kong. Energy, 26(4), 323–340. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S0360544201000068.

Ding, G.K.C. & Shen, L.Y. (2010). Assessing Sustainability Performance Of Built Projects: A Building Process Approach. International Journal Of Sustainable Development, 13(3), 267. Available At: Http://Www.Inderscience.Com/Link.Php?Id=37558.

Dixit, M.K. et al. (2010). Identification Of Parameters For Embodied Energy Measurement: A Literature Review. Energy And Buildings, 42(8), 1238–1247. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S0378778810000472 [Accessed January 22, 2014].

F.Henry, A. et al. (2014). Embodied Energy And CO2 Analyses Of Mud-Brick And Cement-Block Houses

Hamid, Z.A., Anuar, K. & Kamar, M. (2011). Aspects Of Off-Site Manufacturing Application Towards Sustainable Construction In Malaysia., 12.

Hammond, G.P. & Jones, C.I. (2008). Embodied Energy And Carbon In Construction Materials. ,161,.87–98.

Haynes, R. (2013). Embodied Energy Calculations Within Life Cycle Analysis Of Residential Buildings. Etet1812.Staging-Cloud.Netregistry. 2010(Revised),.1–16. Available At: Http://Etet1812.Staging-Cloud.Netregistry.Net/Wp-Content/Uploads/2012/10/Embodied-Energy-Paper-Richard-Haynes.Pdf [Accessed January 29, 2014].

Henry, A., Elambo, N. & Tah, J. (2014). Embodied Energy And CO2 Analyses Of Mud-Brick And Cement-Block Houses. Aimspress.Com, 2(1), 18–40. Available At: Http://Www.Aimspress.Com/AGS8.Pdf [Accessed November 24, 2014].

Hossaini, N. & Hewage, K. (2011). Sustainable Materials Selection For Canadian Construction Industry: An Emergy-Based Life-Cycle Analysis (Em-LCA) Of Conventional And LEED Suggested Construction Materials. Journal Of Sustainable Development, 5(1), 2–12. Available At: Http://Www.Ccsenet.Org/Journal/Index.Php/Jsd/Article/View/12722 [Accessed January 29, 2014].

Jayasinghe, C., 2013. Embodied Energy Of Alternative Building Materials And Their Impact On Life Cycle Cost Parameters. In International Conference On Structural Engineering Construction And Management, 1–20. Available At: Http://Www.Civil.Mrt.Ac.Lk/ICSECM_2011/SEC-11-166.Pdf [Accessed January 29, 2014].

Kamar, K. A. M. & Hamid, Z. A. (2011). Sustainable Construction And Green Building: The Case Of Malaysia, 15–22. Available At: Http://Library.Witpress.Com/Viewpaper.Asp?Pcode=ST11-002-1.

Kamarul Anuar Mohd Kamar, Zuhairi Abd Hamid, Mohamed Nor Azhari Azman, M.S.S.A., (2011). Industrialized Building System (IBS): Revisiting Issues Of Definition And Classification. International Journal of Emerging Sciences, 1(June), 120–132. Available At: Http://Ijes.Info/1/2/7.Html [Accessed April 13, 2015].

Manish K., H., C. & Fernández-Solís, J.L., (2013). System Boundary For Embodied Energy In Buildings: A Conceptual Model For Definition. Renewable And Sustainable Energy Reviews, 21, .153–164. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S1364032112007423 [Accessed January 23, 2014].

Mazzuana, S. et al. (2013). Social And Economic Sustainable Attributes Implies In Industrialised Building System In Malaysia. , 00.

Milutienė, E., 2011. House Embodied Energy And Zero Energy Building Concept. Environmental Research, Engineering and Management, 4(4),.62–71. Available At: Http://Eis.Ktu.Lt/Index.Php/Erem/Article/View/101 [Accessed April 4, 2015].

Mohamed Nor Azhari Azman, Kamarul Anuar Mohamad Kamar, M.N.M.N., 2013. Industrialised Building System In Reducing Waste Of Construction Industry. JSTE, 2(February), 96–103.

Mohammad, M.F., 2013. Construction Environment: Adopting IBS Construction Approach Towards Achieving Sustainable Development. Procedia - Social And Behavioral Sciences, 85, 8–15. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S1877042813024592 [Accessed January 29, 2014].

Nawi, M., Lee, A. & Nor, K., 2011. Barriers To Implementation Of The Industrialised Building System (IBS) In Malaysia. The Built & Human Environment Review, 4, .22–35. Available At: Http://Tbher.Org/Index.Php/Tbher/Article/View/64 [Accessed January 29, 2014].

Nawi, M.N.M., Lee, A., K. A. M. Kamar And Hamid, Z. A. (2012) Critical Success Factors For Improving Team Integration In IBS Construction Projects: The Malaysian Case. Malaysia Construction Research Journal (MCRJ), 10(1).

Nawi, M.N.M., Osman, W. N., Che Ani, A.I. (2014). Adv. In Environmental Biology, 8(5), 1868–1872.

Omar, S.W. & Doh, J., (2013). Assessment Of Embodied Energy And Carbon Emission Of Building And Construction Processes In Malaysia Using Process-Based Hybrid Analysis. The Australasia and South East Asia Conference in Structural Engineering and Construction ( ASEA-SEC-1). Available At: Http://Macha.Itc.Griffith.Edu.Au/Dspace/Handle/10072/52386 [Accessed January 29, 2014].

Roadmap, I.B.S. (2010). IBS Towards Sustainable Construction : Key Milestones From 1999 To 2010. , (July).

S.H. Ibrahim, A. Baharun, M.D. Abdul Mannan, D.A.A.A. (2013). Importance Of Thermal Comfort For Library Building In Kuching, Sarawak. International Journal Of Energy And Environment, 4(6),.1003–1012.

Samari, M. et al., (2013). The Investigation Of The Barriers In Developing Green Building In Malaysia. Modern Applied Science, 7(2), 1–10. Available At: Http://Www.Ccsenet.Org/Journal/Index.Php/Mas/Article/View/22854 [Accessed January 29, 2014].

Tiong, P. et al. (2011). Performance Of IBS Precast Concrete Beam-Column Connections Under Earthquake Effects : A Literature Review. , 4(1),.93–101.

Venkatarama Reddy, B.. & Jagadish, K. (2003). Embodied Energy Of Common And Alternative Building Materials And Technologies. Energy And Buildings, 35(2), 129–137. Available At: Http://Linkinghub.Elsevier.Com/Retrieve/Pii/S0378778801001414.

Yahya, M.A., Nur, M. & Shafie, S. (2012). Level Of Acceptance Towards Industrialised Building System ( Ibs ) In Malaysia Literature Review The Usage Of Industrialised Building System ( Ibs ) In., 3(1), 96–103.

Yeen, L.P. (2012). Carbon Footprint Assessment on Industrialised Building System Housing Construction. Degree Thesis, University Teknologi Malaysia (UTM).

Downloads

Published

2015-06-30

How to Cite

N., Z., S. H., I., A., B., & M. N. M., N. (2015). A Review on Embodied Energy Through Industrialised Building System Implementation in Construction Industries. Sains Humanika, 6(1). https://doi.org/10.11113/sh.v6n1.521

Issue

Section

Articles