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Methodologies to measure the sustainability of materials –focus on recycling aspects

Published online by Cambridge University Press:  22 March 2013

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Abstract

What environmental constraints will materials have to face in the future? Can currentmeasurement tools like LCA (Life Cycle Analysis) support the choices of material and adaptto these constraints to pave the way to a sustainable world? Are there some alternative orcomplementary approaches to enhance the quality of information for decision makers? Theaim of this article is to provide answers to these three questions. The society oftomorrow, in the second half of the 21st century, will be a society where the circulareconomy will play a more important role and thus will help reduce materials waste. This isa critical aspect of sustainability. To get there, the decisions have to be enlightenedand fair, because the decisions (or non-decisions) made today shape the world that futuregenerations will have to manage. Furthermore, Lord Kelvin used to say: “what you can’tmeasure, you can’t improve”. Therefore, these decisions have to be supported bymeasurement tools that will properly capture the stakes of reuse and recycling at the endof life of products. Today, LCA is the common tool used to address this matter. However,the present article has shown that LCA cannot incorporate the whole complexity ofsustainability. LCA is good at considering micro-scale issues, comparing one solution withanother, in a static approach. How can it give right directions to decision makers inorder to support the vision of a circular economy? The application of different standardsshowed that it is not easy at all and that recycling product at their end of life are notrewarded equally and sometimes not promoted at all. Therefore rebound effects leading tocontradictory decisions may occur. LCA alone is not enough to make enlightened decisions.It should be complemented by other methods. This was proposed in the last part. Based onthe IPAT equation, this approach tries to capture different aspects that are not addressedproperly by LCA, due to the fact that the functional unit is too restrictive, that thetime dimension and prospective approach should be more integrated, and that it shouldenlarge the scale of the analysis to the macro-economy and the socio-economy. It shouldalso recognize that the efforts have to be shared by different players including materialindustry and manufacturers, policy makers and society in general. As a general conclusion,we are convinced that tomorrow’s society will recognize the value of materials that arerecyclable and reusable, like steel has been for many decades. But there is still a clearneed to addressing, in research and development, the improvement of the metrics, combiningsocial, environmental and economic assessment, so that the sustainability value ofmaterials is properly measured. These are the objectives of the Sovamat Initiative and theSAM conferences.

Type
Research Article
Copyright
© EDP Sciences 2013

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References

D. Meadows, D. Meadows, J. Randers, W. Behrens, Limits to Growth, Universe Books, 1972
CEN, EN ISO 14001:2004 F Systèmes de management environnemental – Exigences et lignes directrices pour son utilisation, 2004
IPPC, Climate Change, 2001 the scientific basis. Contribution of WG1 to the fourth assessment report of the Intergovernmental Panel of Climate Change, edited by J.T. Houghton, Y. Ding, D.J. Griggs, M. NOguer, P.J. van der Linden, X. Dai, K. Maskell and C.A. Johnson, Cambridge University Press, Cambridge, 2001, 996 p.
ISO, ISO 14 040 Environmental management – Life cycle assessment – Principles and framework, 2006
ISO, ISO 14 044 Environmental management – Life cycle assessment – Requirements and Guidelines, 2006
ISO, ISO/WD 14046.2 Life cycle assessment – Water footprint – Requirements and guidelines, 2011
CEN, EN 15978:2011 E Sustainability of construction works – Assessment of environmental performance of buildings – Calculation method, 2011
CEN, EN 15804:2012 E Sustainability of construction works – Environmental product declarations – Core rules for the product category of construction products, 2012
UNEP/SETAC LCI, Guidelines for social life cycle assessment of Products, 2009
WBCSD FLT, The Inclusive Business Challenge, Identifying opportunities to engage low-income communities across the value chain; Future Leaders Team 2009, 2010
CEN, EN 15978:2011 E Sustainability of construction works – Assessment of environmental performance of buildings – Calculation method, 2011
A. Carvallo-Aceves, J.-P. Birat, Evaluating the contribution of materials to the well-being of society, SAM6 conference, Leuven, 2012
EU, COM 2020, EUROPE 2020 A strategy for smart, sustainable and inclusive growth, 2010
EU, Waste Framework Directive – DIRECTIVE 2008/98/EC, 1998
COM 21; A resource-efficient Europe – Flagship initiative under the Europe 2020 Strategy, 2011
J.P. Birat, The future of CO2-lean steelmaking, Technology developments towards 2050, presented at Scenario 2050 for the Iron & Steel industry in Northern Europe, Luleå, 6/09/2011, organized by SVEREA-MEFOS
J.M. Allwood, Sustainable Materials, with both eyes open, UIT Cambridge, 2012, 373 p.
WBCSD, Vision 2050, the new agenda for business, report, 2010
©Global Footprint Network, Data from Global Footprint Network National Footprint Accounts, 2009 Edition, UNDP Human Development Report
J.-P. Birat, Materials, beyond Life Cycle Thinking, 24th ASK, Aix la Chapelle, 2009
J.S. Thomas, J.P. Birat, Introduction to the stakes of LCA for the steel industry; ArcelorMittal; Internal Report, 2010
J.P. Birat, Sustainability footprint of steelmaking byproducts, Ironmaking and Steelmaking 2011, Received 1 March 2011, accepted 25 September 2011
Wordsteel Association, life cycle assessment methodology report, world steel association, 2011
European Commission, Life Cycle Assessment for steel construction, ref EUR20057 EN, 2002, p. 71
AFNOR, NF P 01-010 Qualité environnementale des produits de construction, Déclaration environnementale et sanitaire des produits de construction, 2004
AFNOR, RBP P01-010 Document de clarification de la norme NF P01-010 pour la réalisation de fiche de déclaration environnementale et sanitaire (FDES), 2010
ADEME/AFNOR, BP X 30-323, Principes généraux pour l’affichage environnemental des produits de grande consommation, Référentiel de bonnes pratiques, version provisoire, 2009
FFA & APEAL, Contribution Plateforme méthodologique ADEME/AFNOR: Marché de l’acier et de la ferraille: un marché global uni par le recyclage, note, 2010
AIMCC, Technical Proposal for taking the net benefit of recycling construction material stocks into account in construction product Environmental Product Declarations (EPD), technical note, 2010
Frishcknecht, R., Int. J. Life Cycle Assess. 15 (2010) 666-671
P.R. Ehrlich, J.P. Holdren, Impact of population growth, Science, 1971
Y. Kaya, synthesis of the book Environment, Energy, and Economy: strategies for sustainability, Tokyo Conference on Global Environment, Tokyo, Japan, 1993
P.H. Raven, L.R. Berg, D.M. Hassensahl, Environnement, Edition de Boeck, 2009
Eurofer, The European Steel Industry and Climate Change, Eurofer, 2000
J.-P. Birat, Addressing the climate change challenge: the ULCOS breakthrough program, presentation made at Tokyo, ISIJ 127th meeting, 2009
O. Vassart, Poutrelle AngelinaTMune idée audacieuse adaptée à un produit industriel, report AM, www.arcelormittal.com
ArcelorMittal, our steel solutions for your green building, www.arcelormittal.com
R. Geyer, The Impact of Material Choice in Vehicle Design on Life Cycle Greenhouse Gas (GHG) emissions: The Case of HSS and AHSS versus Aluminium, report for worldautosteel, 2006