Abstract
In the present scenario, embodied carbon constitutes one of the grave concerns as it shares a substantial amount of greenhouse gas emissions mainly resulting from construction activities. The greenhouse gas emission or carbon impact can be categorically divided into two aspects viz., the operational carbon and embodied carbon (EC). With respect to building life cycle, EC is considered as CO2 equivalent which is usually linked to the non-operational stage of the building. The overall carbon of the building includes embodied carbon as well as carbon accompanied with the operation (cooling, heating, powering, and other processes). Whereas the considerable amount of the building's carbon is sealed into the materials and structures. Taking embodied carbon into consideration, it can render economic opportunities for carbon savings and lowering of costs against those conventionally addressed through operational savings. Hence, it offers a great chance to lower the carbon impact of the construction industry and increase their carbon savings. Consequently, the embodied carbon emissions that are produced by humans bring about climate change by elevating the temperature of the globe. Various steps and actions have been taken already such as many economic and legislative instruments to mitigate climate change and achieve net zero carbon buildings.
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References
Acquaye A, Duffy AP, Basu B (2011) Stochastic hybrid embodied CO2-eq analysis: an application to the Irish apartment building sector. Energy Build 43:1295–1303
Accord Copenhagen (2009) Draft decision-/CP. 15. In Conference of the Parties to the L NFCC. Fifteenth Session, Copenhagen, Vol. 7, p.18
Ahmadian FFA, Akbarnezhad A, Rashidi T, Waller T (2016a) BIM-enabled sustainability assessment of material supply decisions. Eng Constr Archit Manag
Ahmadian FFA, Akbarnezhad A, Rashidi TH, Waller ST (2016b) Accounting for transport times in planning off-site shipment of construction materials. J Constr Eng Manage 142
Ahmadian FFA, Akbarnezhad A, Rashidi T, Waller S (2014) Importance of planning for the transport stage in procurement of construction materials. In: Proceedings of the 31st international symposium on automation and robotics in construction and mining (ISARC 2014). Sydney, Australia, pp 466–473. 9–11 July 2014
Akbarnezhad A, Moussavi Nodoushani ZS (2014) Estimating the costs, energy use and carbon emissions of concrete recycling using building information modelling. In: Proceedings of the 31st international symposiumon automation and robotics in construction and mining (ISARC 2014). Sydney, Australia, pp 385–392. 9–11 July 2014
Akbarnezhad A, Ong KCG, Zhang MH, Tam CT (2013) Acid treatment technique for determining the mortar content of recycled concrete aggregates. J Test Eval 41:441–450
Akbarnezhad A, Xiao J (2016) Estimation and minimization of embodied carbon of buildings: a review analysis. Energy 32(9):1593–1602
Asdrubali F, D’Alessandro F, Schiavoni S (2015) A review of unconventional sustainable building insulation materials. Sustain Mater Technol 4:1–17
Bastos J, Batterman SA, Freire F (2014) Life-cycle energy and greenhouse gas analysis of three building types in a residential area in Lisbon. Energy Build 69:344–353
Blengini GA, Di Carlo T (2010) Energy-saving policies and low-energy residential buildings: an LCA case study to support decision makers in Piedmont (Italy). Int J Life Cycle Assess 5:652–665
Böhringer C, Carbone JC, Rutherford TF (2018) Embodied carbon tariffs. Scand J Econ 120(1):183–210
Borges AV (2011) Present day carbon dioxide fluxes in the coastal ocean and possible feedback under global change. In: da Silva Duarte PM, Santana Casiano JM (eds) Oceans and the atmospheric carbon content. Springer, Dordrecht, The Netherlands, pp 47–77
CEN (2011) Sustainability of construction works. Assessment of environmental performance of buildings. Calculation method. Brussels: Comité Européen de Normalisation 15978
CEN (2019) Sustainability of construction works. Environmental product declarations.Core rules for the product category of construction products. Brussels: Comité Européen de Normalisation 15804
Chau CK, Hui WK, Ng WY, Powell G (2012) Assessment of CO2 emissions reduction in high-rise concrete office buildings using different material use options. Resour Conserv Recycl 61:22–34
Chau CK, Leung TM, Ng WY (2015) A review on life cycle assessment, life cycle energy assessment and life cycle carbon emissions assessment on buildings. Appl Energy 143:395–413
Chen T, Burnett J, Chau C (2001) Analysis of embodied energy use in the residential building of Hong Kong. Energy 26:323–340
Chou JS, Yeh KC (2015) Life cycle carbon dioxide emissions simulation and environmental cost analysis for building construction. J Clean Prod 1:137–147
Chowdhury R, Paul D, Fry TA (2010) Life cycle based environmental impacts assessment of construction materials used in road construction. Resour Conserv Recycl 54:250–255
CICA (Confederation of International Contractors’ Associations) (2002) Industry as a Partner for Sustainable Development. CICA Paris, France
Circular Ecology (2014) Carbon Footprint, LCA, Embodied Energy and Sustainability Experts. See http://www.circularecology.com. Accessed 25 May 2014
Clark DH (2013) What colour is your building? measuring and reducing the energy and carbon footprint of buildings, UK: RIBA Enterprises Limited
Dakwale VA, Ralegaonkar RV, Mandavgane S (2011) Improving environmental performance of buildings through increased energy efficiency: a review. Sustain Urban Areas 1:211–218
Davidovits J, Davidovics M (1991) Geopolymer—ultra-high temperature tooling material for the manufacture of advanced composites. In: Proceedings of the 36th international SAMPE symposium and exhibition, Book 1 and 2. San Diego, CA, USA, pp 1939–1949
Davies PJ, Emmitt S, Firth SK (2014) Challenges for capturing and assessing initial embodied energy: a contractor’s perspective. Constr Manag Econ 32:290–308
De Wolf C, Ochsendorf J (2014) Participating in an embodied carbon database. Connecting structural material quantities with environmental impact. Struct Eng 92(2):30–33
Dhakal S (2010) GHG emissions from urbanization and opportunities for urban carbon mitigation. Curr Opin Environ Sustain 2:277–283
Ding GKC (2004) The development of a multi-criteria approach for the measurement of sustainable performance for built projects and facilities, PhD thesis, University of Technology, Sydney
Dixit MK, Culp CH, Fernandez-Solis JL (2013) System boundary for embodied energy in buildings: a conceptual model for definition. Renew Sustain Energy Rev 21:153–164
Dixit MK, Fernandez-Solis JL, Lavy S, Culp CH (2010a) Identification of parameters for embodied energy measurement: a literature review. Energy Build 42:1238–1247
Dixit MK, Fernández-Solís JL, Lavy S, Culp CH (2010b) Protocol for embodied parameters, TG66-Special Track 18th CIB world building congress. Salford, United Kingdom, p 188
Dixit MK, Fernandez-Solis JL, Lavy S, Culp CH (2012) Need for an embodied energy measurement protocol for buildings: a review paper. Renew Sustain Energy Rev 16:3730–3743
Ding GKC (2018) Embodied carbon in construction, maintenance and demolition in buildings. Embodied Carbon Build 217–245
Flower DJ, Sanjayan JD (2007) Greenhouse gas emissions due to concrete manufacture. Int J Life Cycle Assess 12(5):282
Gangolells M, Casals M, Gasso S et al (2009) A methodology for predicting the severity of environmental impacts related to the construction process of residential buildings. Build Environ 44(3):558–571
Gerilla GP, Teknomo K, Hokao K (2007) An environmental assessment of wood and steel reinforced concrete housing construction. Build Environ 42(7):2778–2784
Giesekam J, Barrett J, Taylor P, Owen A (2014) The greenhouse gas emissions and mitigation options for materials used in UK construction. Energy Build 78:202–214
Gonzalez MJ, Navarro JG (2006) Assessment of the decrease of CO2 emissions in the construction field through the selection of materials: Practical case study of three houses of low environmental impact. Build Environ 41:902–909
Graedel TE, Allenby BR (1995) Industrial ecology. Prentice-Hall, Englewood Cliffs, NJ
Gustavsson L, Joelsson A, Sathre R (2010) Life cycle primary energy use and carbon emission of an eight-storey wood-framed apartment building. Energy Build 42:230–242
Habert G, Roussel N (2009) Study of two concrete mix-design strategies to reach carbon mitigation objectives. CemConcr Compos 31:397–402
Hakkinen T, Kuittinen M, Ruuska A, Jung N (2015) Reducing embodied carbon during the design process of buildings. J Build Eng 4:1–13
Hammond G, Jones C (2008a) Embodied energy and carbon in construction materials. Proc Inst Civ Eng Energy 161:87–98
Hammond GP, Jones CI (2008b) Embodied energy and carbon in construction materials. ProcInstCivEng Energy 161:87–98
Hammond G, Jones C (2011) A BSRIA guide embodied the inventory of carbon and energy (ICE). BSRIA, UK
Hammond G, Jones CI (2006) Inventory of carbon and energy (ICE), 1.5a Beta ed. United Overseas Bank Ltd. London, UK
Hammond GP (2000) Energy and the environment. In: Warhurst A (ed) Towards a collaborative environment research agenda: challenges for business and society. Macmillan, Basingstoke, pp 139–178
Hammond GP, Jones CI (2010) Embodied carbon: the concealed impact of 99 residential construction. Global Warming-Green Energy & Technology, pp 367–384
Hammond GP, Winnett AB (2006) Interdisciplinary perspectives on environmental appraisal and valuation techniques. Proc Inst Civ Eng, Waste Resour Manag 159(3):117–130
Harris DJ, Elliot CJ (1997) Energy accounting for recycled building components. In: Proceedings of the second international buildings and the environment conference. Paris, France, pp 485–492
Heinonen J, Seinajoki A, Junnila S (2011) A longitudinal study on the carbon emissions of a new residential development. Sustainability 3:1170–1189
Hong T, Ji C, Jang M, Park H (2014) Assessment model for energy consumption and greenhouse gas emissions during building construction. J Manag Eng 30:226–235
Haynes R (2013) Embodied energy calculations within life cycle analysis of residential buildings, pp 1–16
Hsu SL (2010) Life cycle assessment of materials and construction in commercial structures: variability and limitations (Doctoral dissertation, Massachusetts Institute of Technology)
Ibn-Mohammed T, Greenough A, Taylor S, Ozawa-Meida L, Acquaye A (2013a) Operational versus embodied emissions in buildings—a review of current trends. Energy Build 66:232–245. https://doi.org/10.1016/j.enbuild.2013.07.026
Ibn-Mohammed T, Greenough R, Ozawa-Medida S, Acquaye A (2013b) Operational versus embodied emissions in buildings: a review of current trends. Energy Build 66:232–245
International Energy Agency. FAQs: Energy Efficiency. http://www.iea.org/aboutus/faqs/energyefficiency/
IPCC (2018) Summary for policymakers—Global warming of 1.5°C. 2018. Intergovernmental Panel on Climate Change (IPCC). https://www.ipcc.ch/sr15/chapter/summary-for-policy-makers/
IPCC (Intergovernmental Panel on Climate Change) (2007) The physical science basis, intergovernmental panel on climate change (IPCC) fourth assessment report: climate change 2007. Cambridge University Press, Cambridge, UK
ISO 14040 (2006) Environmental management: life cycle assessment principles and framework. International Standards Organisation, Paris, France
ISO International Standard 14040 (1997) Environmental management—life cycle assessment–principles and framework. Geneva: International Organization for Standardization (ISO)
Kang G, Kim T, Kim YW, Cho H, Kang KI (2015) Statistical analysis of embodied carbon emission for building construction. Energy Build 105:326–333
Kayaçetin NC, Tanyer AM (2018) Analysis of embodied carbon in buildings supported by a data validation system. In: Embodied carbon in buildings. Springer, Cham pp 143–164
Kim J, Choi K, Kang J, Yang G, Lee S (2009) Research on the elements for developing zero energy buildings: the importance of embodied energy in lifecycle perspective. J Spring Conf Archit Inst Korea 29:669–672
Langston YL, Langston CA (2007) Building energy and cost performance: an analysis of 30 Melbourne case studies. Aust J Constr Econ Build 7(1):1–18
Levin H (1997) Systematic evaluation and assessment of building environmental performance (SEABEP), paper for presentation to “buildings and environment”. Paris
Li X, Yang F, Zhu Y, Gao Y (2014) An assessment framework for analyzing the embodied carbon impacts of residential buildings in China. Energy Build 85:400–409
Li X, Zhu Y, Zhang Z (2010) An LCA-based environmental impact assessment model for construction processes. Build Environ 45(3):766–775
Lippke B, Wilson J, Perez-Garcia J, Bowyer J, Meil J (2004) CORRIM: Life-cycle environmental performance of renewable building materials. For Prod J 54(6):8–19
Lu J, Vecchi GA, Reichler T (2007) Expansion of the hadley cell under global warming. Geophys Res Lett 34:1–5
Mao C, Shen Q, Shen L, Tang L (2013) Comparative study of greenhouse gas emissions between off-site prefabrication and conventional construction methods: two case studies of residential projects. Energy Build 66:165–176
Marinkovic S, Radonjanin V, Malesev M, Ignjatovic I (2010) Comparative environmental assessment of natural and recycled aggregate concrete. Waste Manag 30:2255–2264
Matos G, Wagner L (1998) Consumption of materials in the United States, 1900–1995. Annu Rev Energy Env 23:107–122
Melchert L (2007) The dutch sustainable building policy: a model for developing countries? Build Environ 42(2):893–901
Metz B, Davidson OR, Bosch PR, Dave R, Meyer LA (2007) Contribution of working group III to the fourth assessment report of the intergovernmental panel on climate change. IPCC Fourth Assessment Report (AR4)
Miller D, Doh JH, Mulvey M (2015) Concrete slab comparison and embodied energy optimisation for alternate design and construction techniques. Constr Build Mater 80:329–338
Monahan J, Powell JC (2011) An embodied carbon and energy analysis of modern methods of construction in housing: a case study using a life cycle assessment framework. Energy Build 43:179–188
Moncaster AM, Rasmussen FN, Malmqvist T, Wiberg AH, Birgisdottir H (2019) Widening understanding of low embodied impact buildings: Results and recommendations from 80 multi-national quantitative and qualitative case studies. J Clean Prod 235:378–393
Moncaster AM, Pomponi F, Symons KE, Guthrie PM (2018) Why method matters: temporal, spatial and physical variations in LCA and their impact on choice of structural system. Energy Build 173:389–398. https://doi.org/10.1016/j.enbuild.2018.05.039
MPA (Mineral Products Association) (2010) Concrete Industry Sustainability Performance Report. MPA, The Concrete Centre, Camberley, UK
Nässén J, Holmberg J, Wadeskog A, Nyman M (2007) Direct and indirect energy use and carbon emissions in the production phase of buildings: an input–output analysis. Energy 32(9):1593–1602
Nebel B, Alcorn A, Wittstock B (2008) Life cycle assessment: adopting and adapting overseas LCA data and methodologies for building materials in New Zealand; Fraunhofer: Rotorua, New Zealand
Nemry F, Uihlein A, Colodel CM, Wetzel C, Braune A, Wittstock B, Hasan I, Kreißig J, Gallon N, Niemeier S et al (2010) Options to reduce the environmental impacts of residential buildings in the European union—potential and costs. Energy Build 42:976–984
Ng ST, Wong JM, Skitmore S, Veronika A (2012) Carbon dioxide reduction in the building life cycle: a critical review. Proc Inst Civ Eng-Eng Sustain 165(4):281–292
Nisbet M, Van Geem MG, Gajda J, Marceau M (2000) Environmental life cycle inventory of portland cement concrete SN. 2137, Portland Cement Association, Skokie, IL
O’Rourke B, McNally C, Richardson MG (2009) Development of calcium sulphate–GGBS–portland cement binders. Constr Build Mater 23(1):340–346
Olhager J (2003) Strategic positioning of the order penetration point. Int J Prod Econ 85:319–329
Pedersen KH, Jensen AD, Skjøth-Rasmussen MS, Dam-Johansen K (2008) A review of the interference of carbon containing fly ash with air entrainment in concrete. Prog Energy Combust Sci 34(2):135–154
Peters GP (2010) Carbon footprints and embodied carbon at multiple scales. Curr Opin Environ Sustain 2(4):245–250
Peuportier BLP (2001) Life cycle assessment applied to the comparative evaluation of single family houses in the French context. Energy Build 33(5):443–450
Pomponi F, Moncaster AM (2016) Embodied carbon mitigation and reduction in the built environment—what does the evidence say? J Environ Manage 181:687–700
Pomponi FD, Amico B, Moncaster AM (2017) A method to facilitate uncertainty analysis in LCAs of buildings. Energies 10:524
Ramesh T, Prakash R, Shukla K (2010a) Life cycle energy analysis of buildings: an overview. Energy Build 42(10):1592–1600
Ramesh T, Prakash R, Shukla KK (2010b) Life cycle energy analysis of buildings: an overview. Energy Build 42:1592–1600
Reddy BV (2009) Sustainable materials for low carbon buildings. Int J Low-Carbon Technol 4:175–181
RICS (2010) The future of UK housebuilding. Research report. RICS, London, UK
RICS (2012) Methodology to calculate embodied carbon of materials; RICS information paper, IP 32/2012; RICS, Surveyor Court, Westwood Business Park: Coventry, UK
RICS (2014a) Methodology to calculate embodied carbon, 1st edn. RICS, London
RICS (2014b) Methodology to calculate embodied carbon, RICS guidance note, global, 1st edn, Parliament Square, London, SW1P 3AD, UK
Salazar J, Meil J (2009) Prospects for carbon-neutral housing: the influence of greater wood use on the carbon footprint of a single-family residence. J Cleaner Prod 17(17):1563–1571
Shams S, Mahmud K, Al-Amin M (2011) A comparative analysis of building materials for sustainable construction with emphasis on CO2 reduction. Int J Environ Sustain Dev 10(4):364–374
Shen LY, Lu WS, Yao H, Wu DH (2005) A computer-based scoring method for measuring the environmental performance of construction activities. Autom Constr 14(3):297–309
Sodagar B, Fieldson R (2008) Towards a low carbon construction practice. Constr Inf Q 10(3):101–108
Stern N (2007) The economics of climate change: the stern review, Cabinet Office HM Treasury
Szalay AZ (2007) What is missing from the concept of the new European building directive? Build Environ 42:1761–1769. https://doi.org/10.1016/j.buildenv.2005.12.003
Tam VWY (2009) Comparing the implementation of concrete recycling in the Australian and Japanese construction industries. J Clean Prod 17(7):688–702
Tae S, Baek, C and Shin, S (2011) Life cycle CO2 evaluation on reinforced concrete structures with high-strength concrete. Environ Impact Assess Revi 31(3):253–260
Thormark C (2002a) A low energy building in a life cycle-its embodied energy, energy need for operation and recycling potential. Build Environ 37(4):429–435
Thormark C (2002b) A low energy building in a life cycle—its embodied energy, energy need for operation and recycling potential. Build Environ 37:429–435
Thormark C (2006) The effect of material choice on the total energy need and recycling potential of a building. Build Environ 41:1019–1026
Trabucco D (2012) Life cycle energy analysis of tall buildings: design principles. In: Proceedings of 652 CTBUH 9th world congress. Shanghai, China, pp 447–453
Trinh TMKH, Doh JH, Hou L (2017) An overview of building lifecycle embodied carbon emissions research. In: The proceedings of the 22nd international conference on advancement of construction management and real estate, Swinburne University of Technology
Tse RYC (2001) The implementation of EMS in construction firms: case study in Hong Kong. JEAPM 3(2):177–194
Tyrer M, Cheeseman CR, Greaves R, Claisse PA, Ganjian E, Kay M, Churchman-Davies J (2010) Potential for carbon dioxide reduction from cement industry through increased use of industrial pozzolans. Adv Appl Ceram 109(5):275–279
Udo De Haes HA, Heijungs R (2007) Life-cycle assessment for energy analysis and management. Appl Energy 84(7–8):817–827
Unalan B, Tanrivermis H, Bulbul M, Celani A, Ciaramella A (2016) Impact of embodied carbon in the life cycle of buildings on climate change for a sustainable future. Int J Hous Sci Appl 40(1):61–71
USDE (United States Department of Energy) (2012) Building energy data book: 1.1 buildings sector energy consumption. Washington, DC
Urge-Vorsatz D, Harvey LD, Mirasyedi S, Levine MD (2007) Mitigating CO2 emissions from energy use in the world’s buildings. Build Res Inf 35(4):379–398
USCB (US Census Bureau) (2010) Guide to data sources, definition: NAICS 23, Construction, US Census Bureau. http://www.census.gov/epcd/naics02/def/NDEF23.HTMBusinessDictionary.com
USEPA (2002) Tool for the reduction and assessment of chemical and other environmental impacts (TRACI): User’s guide and system documentation, USEPA, Washington, DC, USA
Victoria M, Perera S (2018) Carbon and cost hotspots: an embodied carbon management approach during early stages of design. Springer International Publishing AG
Vukotic L, Fenner RA, Symons K (2010) Assessing embodied energy of building structural elements. Proc Inst Civ Eng-Eng Sustain 163:147–158
Waldman B, Huang M, Simonen K (2020) Embodied carbon in construction materials: a framework for quantifying data quality in EPDs. Build Cities 1(1):12–24
WGBC (2019) Bringing embodied carbon upfront: coordinated action for the building and construction sector to tackle embodied carbon. London: World Green Building Council (WGBC). https://www.worldgbc.org/bringing-embodied-carbon-upfront-reportwebform
Worrell E, Price L, Martin N, Hendriks C, Media LO (2001) Carbon dioxide emissions from the global cement industry. Annu Rev Energy Env 26(1):303–329
WRAP (2017) Embodied carbon database: share and compare embodied carbon data. https://www.ecdb.wrap.org.uk. Analyze embodied carbon data. https://www.carbondeqocom/database/graph
WRAP (Waste and Resources Action Programme) (2010) Environmental benefits of recycling–2010 Update. Final report WRAP, UK
WRI/WBCSD (World Resources Institute/World Business Councilfor Sustainable Development) (2004) The greenhouse gas protocol: a corporate accounting and reporting standard.WRI/WBCSD, Geneva, Switzerland
Xiao J, Ma ZM, Ding T (2016) Reclamation chain of waste concrete: a case study of Shanghai. Waste Manag 48:334–343
Yan H, Shen QP, Fan LCH, Wang YW, Zhang L (2010) Greenhouse gas emissions in building construction: a case study of one peking in Hong Kong. Build Environ 45:949–955
Yolles H (2010) Embodied carbon—sustainable offices. South West of England Regional Development Agency (SWRDA), UK
You F, Hu D, Zhang H, Guo Z, Zhao Y, Wang B et al (2011) Carbon emissions in the life cycle of urban building systems in China—a case study of residential buildings. Ecol Complex 8:201–212
Zimmerman M, Althaus HJ, Haas A (2005) Benchmarks for sustainable construction–a contribution to develop a standard. Energy Build 37:1147
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Javaid, M., Dar, I.Y., Rouf, Z., Dar, M.Y., Jehangir, A. (2022). Embodied Carbon in Construction and Its Ecological Implications. In: Malik, J.A., Marathe, S. (eds) Ecological and Health Effects of Building Materials. Springer, Cham. https://doi.org/10.1007/978-3-030-76073-1_15
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