SOFTWARE APPLICATION FOR EMBODIED ENERGY BUILDING CALCULATION: A REVIEW
DOI:
https://doi.org/10.9744/dimensi.49.1.53-64Keywords:
Calculation, embodied, energy, review, softwareAbstract
There are two types of building energy consumption, namely embodied energy and building operational energy. Studies on operational energy have been widely discussed, while studies on building embodied energy are still quite rare to be studied, especially in Indonesia. In fact, the calculation of embodied energy, especially on embodied energy material, is important in the design phase of the building because it can be used as the basis for various determinations of building energy values and carbon emissions generated by buildings due to construction activities. By using the right tools in the embodied energy calculation, the building planner can determine the right embodied energy value so that it can support the building energy mitigation. This paper aims to explain the use of embodied energy building calculation software that have been developed with the aim of providing an overview and supporting research development of embodied energy building in Indonesia.
References
---------. (2010): UNEP 2010 Annual Report, United Nation Environment Programme.
---------. (2018): Achievement 2018, Green Building Council Indonesia.
Azhar, Salman., Brown, Justin. (2009): BIM for Sustainability Analyses, International Journal of Construction Education and Research 5(4):276-292.
Chastas, P., Theodosiou, T., Bikas, D., Kontoleon, K. (2017): Embodied Energy and Nearly Zero Energy Buildings: A Review in Residential Buildings. Procedia Environmental Sciences, 38, 554 – 561.
Dixit, Manish K., Fernández-Solís, Jose L., Lavy, Sarel., Culp, Charles H. (2012): State of Standardization in Embodied Energy Computation: The need for a Protocol, CIB W070 international conference in facilities management.
Dixit, Manish K. (2016): A BIM-based Embodied Energy Calculation Prototype for Life Cycle Energy Analysis of Buildings, Proceedings of the 20th CIB World Building Congress - Intelligent Built Environment for Life.
Eastman, Chuck., Teichloz, Paul., Sacks, Rafael., Liston, Kathleen. (2011): BIM Handbook: A Guide to Building Information Modeling for Owners, Managers, Designers, Engineers, and Contractors, John Wiley & Sons, Inc.
Farzaneh, Aida., Carriere, Jean., Forgues, Daniel., Monfet, Danielle. (2018): Framework for Using Building Information Modeling to Create a Building Energy Model, J. Archit. Eng., 24(2): 05018001
Godager, B. (2018): Critical Review of The Inte¬gration Of Bim To Semantic Web Technology, The International Archives of the Photogram¬metry, Remote Sensing and Spatial Information Sciences, Volume XLII-4.
Guan, Lisa., Walmsely, Madeleine., Chen, Guangnan. (2015): Life Cycle Energy Analysis of Eight Residential Houses in Brisbane, Australia, Pro-cedia Engineering, 121, 653 – 661.
Hammond, G.P., Jones, C.I. (2011): Inventory of Carbin and Energy, BSRIA &Bath University.
Harmaji, Andrie., Zuraida, Siswanti. (2019). Green Construction Material: Polyethylene Waste Rein-force Concrete for Panel Application, Inter-national Journal of Built Environment and Scientific Research Volume 03 Number 01 June2019.
Haynes, Richard. (2013): Embodied Energy Calculations within Life Cycle Analysis of Residential Buildings, Etoolglobal publication.
HBERT. (2017): HBERT Booklet Digital, Hawkins Brown USA and UK.
Huang, Lizhen., Krigsvoll, Guri., Johansen, Fred., Liu, Yongping., Zhang, Xiaoling. (2018): Carbon Emission of Global Construction Sector, Renewable and Sustainable Energy Reviews, 81, 1906-1916.
Jalaei, Farzad. (2014): Integrating Building Infor¬mation Modeling (BIM) And Energy Analysis Tools with Green Building Certification System To Conceptually Design Sustainable Buildings, Journal of Information Technology in Construc-tion - ISSN 1874-4753.
Jurizat, Aldissain., Ramadhan, Try. (2020): Embodied Energy Pada Dinding Bambu Anyaman Dan Plester, Jurnal Arsitektur Zonasi, 3 (2).
Kannan M., Ramesh. (2013): Whole Building Energy Analysis using BIM, Proc. of Int. Conf. on Advances in Civil Engineering, AETACE.
Krygiel, E., Nies, B. (2008): Green BIM: Successful Sustainable Design with Building Information Modeling, Indianapolis: Wiley Pub.
Llatas, Carmen., Verdaguer, Bernadette S., Passer Alexander. (2020): Implementing Life Cycle Sustainability Assessment During Design Stages In Building Information Modelling: From Systematic Literature Review To A Methodological Approach, Building and Environment, 182, 107164.
Maassarani, Sara., Khalifa, Mostafa R.A., Mohareb, Nabil. (2017): Developing a Calculation Tool for Embodied Energy in the Conceptual Design Phase, International Journal of Computer Appli-cations, (0975 – 8887),157(6).
Malmqvist, T., Birgisdottir, H., Houlihan Wiberg, A., Moncaster, A., Brown, N., John, V., Passer, A., Potting, J., Soulti, E. (2014): Design strategies for low embodied energy and greenhouse gases in buildings: analyses of the IEA Annex 57 case studies, World SB 14 Barcelona October 28/30th.
Murniningtyas, Endah. (2012). Menuju Pembangunan Rendah Karbon dan Ketahanan terhadap Perubahan Iklim, BAPPENAS pada seminar peluncuran ICCTF Media Award.
Najjar, Mohammad., Figueiredo, Karoline., Hammad, Ahmed W.A., Haddad, Assed. (2019): Integrated optimization with building information modeling and life cycle assessment for generating energy efficient buildings, Journal of Applied Energy, 250, 1366-1382.
Oka, T. (2016): Evaluation of Embodied Energy and CO2eq for Building Construction (Annex 57), Institute for Building Environment and Energy Conservation.
Pratiwi, Sri Novianthi. (2020): Analisis Energi Pada Berbagai Material Dinding (Bata, Batako Dan Bata Ringan), Arcade: Jurnal Arsitektur, 4(3).
Pre. (2016): SimaPro 8 Tutorial, Pre Netherlands. Primasetra, Anjar., Zuraida, Siswanti., Harmaji, Andrie., Risnandar, Firman Fadhly A. (2020): Design Exploration Study of Low Carbon Housing as Alternative Solution to Reduce Carbon Emission, Asian Institute of Low Carbon Design Conference 2020.
Primasetra, Anjar., Larasati, Dewi. (2020): Develop-ment of the Life Cycle Analysis (LCA) Method in calculating Embodied Energy Materials on Residential Buildings, The 20th International Conference on Sustainable Environment & Architecture.
Primasetra, Anjar., Larasati, Dewi, Zuraida, Siswanti. (2020): BIM Implementation on Design Phase Toward Low Embodied Energy Apartment: Comparative Study On 3 Alternatives Archi-tectural Wall Materials, The 20th International Conference on Sustainable Environment & Architecture.
Schwartz, Yair., Eleftheriadis, Stathis., Raslan, Rokia., Mumovic, Dejan. (2016): Semantically Enriched BIM Life Cycle Assessment to Enhance Buildings’ Environmental Performance, CIBSE Technical Symposium, Edinburgh, UK 14-15 April 2016.
Stuckenshcneider, Johnatan. (2017). Low Carbon Housing, University of Colorado, Boulder.
Surendran, Sridevi K., Rolvink, Anke., Coenders, Jeroen., Welleman, Hans., Den Hollander, JanPieter., Bonnema, Bauke H. (2015): Embodied Energy Optimization Tool, Proceedings of the International Association for Shell and Spatial Structures (IASS).
T. Ibn-Mohammed, R., Greenough, S., Taylor, L., Ozawa-Meida, A. (2013): Operational vs Embodied Emissions in Buildings-A Review of Current Trends, Acquaye Periodical: Energy and Buildings.
Treloar, G. J. (1998). A Comprehensive Embodied Enery Analysis Framework. Faculty of Science and Technology, Deakin University.
Wahyun, Yuni Sri., Larasati, Dewi., Triyadi, Sugeng., Suhenri. (2017): Development of an Embodied Energy Calculation based on AndroidTM, International Journal of Application or Innovation in Engineering & Management (IJAIEM).
Wahyuni, Yuni Sri., Larasati, Dewi. (2017): Identifikasi Nilai Embodied Energy sebagai Upaya Mitigasi Energi dalam perencanaan Bangunan, Jurnal Lingkungan Binaan Indonesia, 6(1), 9-15.
Zuraida, Siswanti. (2013): Karakteristik Embodied Energy dan Carbon Emission dalam Penelitian Life Cycle Assessment (LCA) untuk Menilai Kualitas Material Bangunan, Temu Ilmiah Iplbi 2013.
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