The International Journal of Life Cycle Assessment

, Volume 20, Issue 10, pp 1364–1375 | Cite as

Attributional life cycle assessment: is a land-use baseline necessary?

  • Sampo Soimakallio
  • Annette Cowie
  • Miguel Brandão
  • Göran Finnveden
  • Tomas Ekvall
  • Martin Erlandsson
  • Kati Koponen
  • Per-Erik Karlsson
LAND USE IN LCA

Abstract

Purpose

This paper aims to clarify the application of a land-use baseline in attributional life cycle assessment (ALCA) for product systems involving land use, through consideration of the fundamental purpose of ALCA. Currently, there is no clear view in the literature whether a baseline should be used when accounting for environmentally relevant physical flows related to land use.

Methods

An extensive search of literature was carried out using the key terms ‘attributional life cycle assessment’ and ‘attributional LCA’ in the Google Scholar web search engine. Approximately 700 publications were reviewed and summarised according to their type and scope, relevance of land use, key statements and references given for ALCA, and arguments for and against using a baseline in ALCA. Based on the literature review and supplementary literature references, a critical discussion on the use of a baseline and determination of the most appropriate land-use baseline in ALCA is provided.

Results and discussion

A few studies clearly argued that only absolute (observable) flows without a baseline are to be inventoried in ALCA, while the majority of the studies did not make any clear statement for or against. On the other hand, a land-use baseline was explicitly applied or proposed in a minority of the studies only, despite the fact that we classified land use as highly relevant for the majority of the studies reviewed. Furthermore, the LCA guidelines reviewed give contradictory recommendations. The most cited studies for the definition of ALCA provide general rules for selecting processes based on observable flows but do not argue that observable flows necessarily describe the environmentally relevant physical flows.

Conclusions

We conclude that a baseline is required to separate the studied parts of the technosphere from natural processes and to describe the impact of land use on ecosystem quality, such as carbon sequestration and biodiversity. The most coherent baseline for human-induced land-use in ALCA is natural regeneration. As the natural-regeneration baseline has typically been excluded, may vary bio-geographically and temporally, and is subject to uncertainties, case studies applying it should be performed so that implications can be studied and evaluated. This is particularly important for agricultural and forestry systems, such as food, feed, fibre, timber and biofuels.

Keywords

Absolute emission Attributional LCA Baseline Environmentally relevant physical flow Land use Natural regeneration 

Supplementary material

11367_2015_947_MOESM1_ESM.xlsx (198 kb)
ESM 1(XLSX 197 kb)

References

  1. Arm M, Wik O, Engelse CJ, Erlandsson M, Sundqvist J, Oberender A, Hjelmar O, Wahlström M (2014) ENCORT-CDW : evaluation of the European recovery target for construction and demolition waste. Nordic Working Papers, 2014:916Google Scholar
  2. Baumann H, Tillman A (2004) The Hitch Hiker's guide to LCA: an orientation in life cycle assessment methodology and applications. Studentlitteratur, LundGoogle Scholar
  3. Beccali M, Cellura M, Finocchiaro P, Guarino F, Longo S, Nocke B (2014) Life cycle performance assessment of small solar thermal cooling systems and conventional plants assisted with photovoltaics. Sol Energy 104:93–102CrossRefGoogle Scholar
  4. Bellassen V, Luyssaert S (2014) Carbon sequestration: managing forests in uncertain times. Nature 506:153–155CrossRefGoogle Scholar
  5. Brandão M (2012) Food, feed, fuel, timber or carbon sink? towards sustainable land use: a consequential life cycle approach. PhD thesis. Centre for Environmental Strategy (Division of Civil, Chemical and Environmental Engineering), Faculty of Engineering and Physical Sciences, University of Surrey, UK. 246 pp. Appendices 541 ppGoogle Scholar
  6. Brandão M, i Canals LM (2013) Global characterisation factors to assess land use impacts on biotic production. Int J Life Cycle Assess 18:1243–1252CrossRefGoogle Scholar
  7. Brander M, Wylie C (2011) The use of substitution in attributional life cycle assessment. GGMM:1–6. doi: 10.1080/20430779.2011.637670
  8. Brander M, Tipper R, Hutchinson C, Davis G (2009) Consequential and attributional approaches to LCA: a guide to policy makers with specific reference to greenhouse gas LCA of biofuels. http://ecometrica.com/white-papers/consequential-and-attributional-approaches-to-lca-a-guide-to-policy-makers-with-specific-reference-to-greenhouse-gas-lca-of-biofuels/. Accessed 24 May 2014
  9. Brander M, Wylie C, Gillenwater M (2012) Substitution: a problem with current life cycle assessment standards (p. 3). http://ecometrica.com/white-papers/substitution-a-problem-with-current-life-cycle-assessment-standards/. Accessed 12 June 2014
  10. BSI (2011) PAS 2050:2011 - Specification for the assessment of the life cycle greenhouse gas emissions of goods and services. http://shop.bsigroup.com/en/forms/PASs/PAS-2050/. Accessed 4 June 2014
  11. Cellura M, Longo S, Marsala G, Mistretta M, Pucci M (2013) The use of genetic algorithms to solve the allocation problems in the life cycle inventory. In: Assessment and simulation tools for sustainable energy systems. Springer, pp 267–284Google Scholar
  12. Cherubini F, Peters GP, Berntsen T, Strømman AH, Hertwich E (2011) CO2 emissions from biomass combustion for bioenergy: atmospheric decay and contribution to global warming. Glob Chang Biol Bioenergy 3:413–426CrossRefGoogle Scholar
  13. Cherubini F, Jungmeier G, Bird DN (2012) Greenhouse Gas (GHG) and energy analysis of a bioethanol oriented biorefinery based on wood. In: IEA Bioenergy Task (Vol. 38). task38.org/Bioref_Case_Study_T38_Long_v4_clean.pdf. Accessed 14 June 2014Google Scholar
  14. Cherubini F, Guest G, Strømman AH (2013) Bioenergy from forestry and changes in atmospheric CO 2: reconciling single stand and landscape level approaches. J Environ Manag 129:292–301CrossRefGoogle Scholar
  15. Chiarucci A, Araújo MB, Decocq G, Beierkuhnlein C, Fernández-Palacios JM (2010) The concept of potential natural vegetation: an epitaph? J Veg Sci 21:1172–1178CrossRefGoogle Scholar
  16. Curran MA, Mann M, Norris G (2002) Report on the international workshop on electricity data for life cycle inventories. EPA/600/R-02/041. Cincinnati, OH: US EPA National Risk Management Research Laboratory. March. nepis.epa.gov/Adobe/PDF/P1001NRO.pdf. Accessed 24 January 2014Google Scholar
  17. Curran MA, Mann M, Norris G (2005) The international workshop on electricity data for life cycle inventories. J Clean Prod 13:853–862CrossRefGoogle Scholar
  18. de Baan L, Alkemade R, Koellner T (2013) Land use impacts on biodiversity in LCA: a global approach. Int J Life Cycle Assess 18:1216–1230CrossRefGoogle Scholar
  19. EC-JRC-IES (2010) International Reference Life Cycle Data System (ILCD) Handbook - General guide for Life Cycle Assessment - Detailed guidance. First edition. http://eplca.jrc.ec.europa.eu/?page_id=86. Accessed 15 May 2014
  20. Ekvall T (2002) Cleaner production tools: LCA and beyond. J Clean Prod 10:403–406CrossRefGoogle Scholar
  21. Ekvall T, Andrae A (2006) Attributional and consequential environmental assessment of the shift to lead-free solders (10 pp). Int J Life Cycle Assess 11:344–353CrossRefGoogle Scholar
  22. Ekvall T, Tillman A (1997) Open-loop recycling: criteria for allocation procedures. Int J Life Cycle Assess 2:155–162CrossRefGoogle Scholar
  23. Ekvall T, Weidema BP (2004) System boundaries and input data in consequential life cycle inventory analysis. Int J Life Cycle Assess 9:161–171CrossRefGoogle Scholar
  24. Elshout P, van Zelm R, Balkovic J, Obersteiner M, Schmid E, Skalsky R, van der Velde M, Huijbregts MAJ (2015) Greenhouse-gas payback times for crop-based biofuels. Nature Clim Change 5:604--610Google Scholar
  25. Erlandsson M, Almemark M (2009) Background data and assumptions made for an LCA on creosote poles, working report. IVL Swedish Environmental Research Institute Ltd. 16 October 2009. http://www.ivl.se/download/18.7df4c4e812d2da6a416800072055/B1865.pdf. Accessed 15 April 2014
  26. EU (2009) Directive of the European Parliament and of the Council on the promotion of the use of energy from renewable sources. 2009/28/EC. The Official Journal of the European Union 05/06/2009Google Scholar
  27. Evangelisti S, Lettieri P, Borello D, Clift R (2014) Life cycle assessment of energy from waste via anaerobic digestion: a UK case study. Waste Manag 34:226–237CrossRefGoogle Scholar
  28. Evangelisti S, Lettieri P, Clift R, Borello D (2015) Distributed generation by energy from waste technology: a life cycle perspective. Process Saf Environ Protect 93:161–172CrossRefGoogle Scholar
  29. Finnveden G, Hauschild MZ, Ekvall T, Guinée J, Heijungs R, Hellweg S, Koehler A, Pennington D, Suh S (2009) Recent developments in life cycle assessment. J Environ Manag 91:1–21CrossRefGoogle Scholar
  30. Goel P (2013) Land use in LCA: a critical analysis. Master's thesis, Leiden UniversityGoogle Scholar
  31. Guinée JB (2002) Handbook on life cycle assessment operational guide to the ISO standards. Int J Life Cycle Assess 7:311–313CrossRefGoogle Scholar
  32. Guinée J, Kleijn R, Henriksson P (2010) Environmental life cycle assessment of South-East Asian aquaculture systems for tilapia, pangasius, catfish, penaeid shrimp and macrobrachium prawns. Goal & Scope Definition Report-Final version.Sustaining Ethical Aquaculture Trade (SEAT) Deliverable Ref: D 2Google Scholar
  33. Guo M, Li C, Bell JNB, Murphy RJ (2011) Influence of agro-ecosystem modeling approach on the greenhouse gas profiles of wheat-derived biopolymer products. Environ Sci Technol 46:320–330CrossRefGoogle Scholar
  34. Haberl H (2013) Net land-atmosphere flows of biogenic carbon related to bioenergy: towards an understanding of systemic feedbacks. Glob Chang Biol Bioenergy 5:351–357CrossRefGoogle Scholar
  35. Haberl H, Erb KH, Krausmann F, Gaube V, Bondeau A, Plutzar C, Gingrich S, Lucht W, Fischer-Kowalski M (2007) Quantifying and mapping the human appropriation of net primary production in earth's terrestrial ecosystems. Proc Natl Acad Sci U S A 104:12942–12947CrossRefGoogle Scholar
  36. Heath LS, Maltby V, Miner R, Skog KE, Smith JE, Unwin J, Upton B (2010) Greenhouse gas and carbon profile of the US forest products industry value chain. Environ Sci Technol 44:3999–4005CrossRefGoogle Scholar
  37. Heijungs R, Guinée JB (2014) Life cycle impact assessment. Life Cycle Assess (LCA):90Google Scholar
  38. Heijungs R, Guinée JB, Huppes G, Lankreijer RM, Udo de Haes HA, Wegener Sleeswijk A, Ansems AMM, Eggels PG, van Duin R, de Goede HP (1992) Environmental life cycle assessment of products. Guide and backgrounds. NOH reports 9266 & 9267 Leiden: CML 96pp + 130pp Guide: ISBN: 90-5191-064-9Backgrounds: ISBN: 90-5191-064-9Google Scholar
  39. Helin T, Sokka L, Soimakallio S, Pingoud K, Pajula T (2013) Approaches for inclusion of forest carbon cycle in life cycle assessment - A review. Glob Chang Biol Bioenergy 5:475–486CrossRefGoogle Scholar
  40. Helin T, Salminen H, Hynynen J, Soimakallio S, Huuskonen S, Pingoud K (2015) Global warming potentials of stemwood used for energy and materials in Southern Finland: differentiation of impacts based on type of harvest and product lifetime. Glob Chang Biol Bioenergy. doi:10.1111/gcbb.12244 Google Scholar
  41. Hofstetter P (1998) Perspectives in life cycle impact assessment - A structured approach to combine models of the technosphere, ecosphere and valuesphere. PhD thesis, Swiss Federal Institute of Technology Zürich. Kluwer Academic Publishers, Dordrecht, The Netherlands. Dissertation or ThesisGoogle Scholar
  42. Holtsmark B (2012) Harvesting in boreal forests and the biofuel carbon debt. Clim Chang 112:415–428. doi:10.1007/s10584-011-0222-6 CrossRefGoogle Scholar
  43. Holtsmark B (2013) The outcome is in the assumptions: analyzing the effects on atmospheric CO 2 levels of increased use of bioenergy from forest biomass. Glob Chang Biol Bioenergy 5:467–473CrossRefGoogle Scholar
  44. Huijbregts M (2002) Uncertainty and variability in environmental life-cycle assessment. Int J Life Cycle Assess 7:173–173CrossRefGoogle Scholar
  45. ISO (2006) 14040:2006. Environmental management -- Life cycle assessment -- Principles and framework. International Organization for Standardization (ISO). 20 pGoogle Scholar
  46. Jackson RB, Banner JL, Jobbágy EG, Pockman WT, Wall DH (2002) Ecosystem carbon loss with woody plant invasion of grasslands. Nature 418:623–626CrossRefGoogle Scholar
  47. Jury C, Benetto E, Koster D, Schmitt B, Welfring J (2010) Life cycle assessment of biogas production by monofermentation of energy crops and injection into the natural gas grid. Biomass Bioenergy 34:54–66CrossRefGoogle Scholar
  48. Kaufman AS, Meier PJ, Sinistore JC, Reinemann DJ (2010) Applying life-cycle assessment to low carbon fuel standards--How allocation choices influence carbon intensity for renewable transportation fuels. Energ Policy 38:5229–5241CrossRefGoogle Scholar
  49. Kendall A (2012) Time-adjusted global warming potentials for LCA and carbon footprints. Int J Life Cycle Assess 17:1042–1049CrossRefGoogle Scholar
  50. Koellner T (2013) Ecosystem services and global trade of natural resources: ecology, economics and policies. RoutledgeGoogle Scholar
  51. Koellner T, de Baan L, Beck T, Brandão M, Civit B, Margni M, i Canals LM, Saad R, de Souza DM, Müller-Wenk R (2013) UNEP-SETAC guideline on global land use impact assessment on biodiversity and ecosystem services in LCA. Int J Life Cycle Assess 18:1188–1202CrossRefGoogle Scholar
  52. Koponen K, Soimakallio S, Tsupari E, Thun R, Antikainen R (2013) GHG emission performance of various liquid transportation biofuels in Finland in accordance with the EU sustainability criteria. Appl Energy 102:440–448CrossRefGoogle Scholar
  53. Kuczenski B, Geyer R (2011) Life cycle assessment of polyethylene terephthalate (PET) beverage bottles consumed in the State of California. Donald Bren School of Environmental Science and Management UC Santa Barbara. http://www.calrecycle.ca.gov/Publications/Documents/1487/20141487.pdf. Accessed 28 May 2014
  54. Kurz WA, Dymond C, Stinson G, Rampley G, Neilson E, Carroll A, Ebata T, Safranyik L (2008) Mountain pine beetle and forest carbon feedback to climate change. Nature 452:987–990CrossRefGoogle Scholar
  55. Leinonen I, Williams AG, Kyriazakis I (2014) Evaluating methods to account for the greenhouse gas emissions from land use changes in agricultural LCA. In Proceedings of the 9th International Conference on Life Cycle Assessment in the Agri-Food Sector. LCA Food 2014, pp 8–10Google Scholar
  56. Lindeijer E, Müller-Wenk R, Steen B (eds) (2002) Impact assessment of resources and land use. In: Udo de Haes HA, Finnveden G, Goedkoop M, Hauschild M, Hertwich EG, Hofstetter P, Jolliet O, Klöpffer W, Krewitt W, Lindeijer EW, Müller-Wenk R, Olsen SI, Pennington DW, Potting J, Steen B (eds) (2002), Life cycle impact assessment: striving towards best practice. SETAC, Pensacola, USA, pp 11–64Google Scholar
  57. Lindholm E (2010) Energy use and environmental impact of roundwood and forest fuel production in Sweden. Dissertation, Swedish University of Agricultural SciencesGoogle Scholar
  58. Malça J, Freire F (2011) Life-cycle studies of biodiesel in Europe: a review addressing the variability of results and modeling issues. Renew Sust Energ Rev 15:338–351CrossRefGoogle Scholar
  59. Marland G, Schlamadinger B, Leiby P (1997) Forest/biomass based mitigation strategies: does the timing of carbon reductions matter? Crit Rev Environ Sci Technol 27:213–226CrossRefGoogle Scholar
  60. Mattila T, Helin T, Antikainen R, Soimakallio S, Pingoud K, Wessman H (2011) Land use in life cycle assessment. The Finnish Environment 24. Finnish Environment InstituteGoogle Scholar
  61. Michelsen O (2006) Eco-efficiency in extended supply chains–methodological development with regulatory and organizational implications. Dissertation, Norwegian University of Science and Technology. Dissertation or Thesis, Fakultet for samfunnsvitenskap og teknologiledelseGoogle Scholar
  62. Milà i Canals L, Clift R, Basson L, Hansen Y, Brandão M (2006) Expert workshop on land use impacts in life cycle assessment. 12–13 June 2006 Guildford, Surrey (UK). Int J Life Cycle Assess 11:363–368Google Scholar
  63. Milà i Canals L, Bauer C, Depestele J, Dubreuil A, Knuchel RF, Gaillard G, Michelsen O, Mueller-Wenk R, Rydgren B (2007a) Key elements in a framework for land use impact assessment within LCA. Int J Life Cycle Assess 12:5–15CrossRefGoogle Scholar
  64. Milà i Canals L, Romanya J, Cowell SJ (2007b) Method for assessing impacts on life support functions (LSF) related to the use of 'fertile land' in Life Cycle Assessment (LCA). J Clean Prod 15:1426–1440CrossRefGoogle Scholar
  65. Milà i Canals L, Rigarlsford G, Sim S (2013) Land use impact assessment of margarine. Int J Life Cycle Assess 18:1265–1277CrossRefGoogle Scholar
  66. Minkkinen K, Korhonen R, Savolainen I, Laine J (2002) Carbon balance and radiative forcing of Finnish peatlands 1900–2100–the impact of forestry drainage. Glob Chang Biol 8:785–799CrossRefGoogle Scholar
  67. Mogensen L, Kristensen T, Nguyen TLT, Knudsen MT, Hermansen JE (2014) Method for calculating carbon footprint of cattle feeds–including contribution from soil carbon changes and use of cattle manure. J Clean Prod 73:40–51CrossRefGoogle Scholar
  68. Muys B (2002) Reference system. In: Schweinle J (ed) The assessment of environmental impacts caused by land use in the life cycle assessment of forestry and forest products. Final report. Working group 2, land use of COST action E9. Nr. 209. BFH, Hamburg, pp 56Google Scholar
  69. National Council for Air and Stream Improvement, Inc. (NCASI) (2013) A review of biomass carbon accounting methods and implications. Technical Bulletin No. 1015. National Council for Air and Stream Improvement, Inc., Research Triangle Park, North Carolina Google Scholar
  70. Núñez M, Pfister S, Antón A, Muñoz P, Hellweg S, Koehler A, Rieradevall J (2013) Assessing the environmental impact of water consumption by energy crops grown in Spain. J Ind Ecol 17:90–102CrossRefGoogle Scholar
  71. Nuss P, Bringezu S, Gardner KH (2012) Waste-to-materials: the longterm option. In: Waste to energy. Springer, pp 1–26Google Scholar
  72. Oyewole A (2010) Implementation of land use and land use change and its effects on biodiversity in life cycle assessment. Master thesis, Norwegian University of Science and TechnologyGoogle Scholar
  73. Pelletier N, Ardente F, Brandão M, De Camillis C, Pennington D (2015) Rationales for and limitations of preferred solutions for multi-functionality problems in LCA: is increased consistency possible? Int J Life Cycle Assess 20:74–86CrossRefGoogle Scholar
  74. Rajagopal D, Zilberman D (2013) On market-mediated emissions and regulations on life cycle emissions. Ecol Econ 90:77–84CrossRefGoogle Scholar
  75. Rebitzer G, Ekvall T, Frischknecht R, Hunkeler D, Norris G, Rydberg T, Schmidt WP, Suh S, Weidema BP, Pennington DW (2004) Life cycle assessment: part 1: framework, goal and scope definition, inventory analysis, and applications. Environ Int 30:701–720CrossRefGoogle Scholar
  76. Repo A, Tuomi M, Liski J (2011) Indirect carbon dioxide emissions from producing bioenergy from forest harvest residues. Glob Chang Biol Bioenergy 3:107–115CrossRefGoogle Scholar
  77. Rödl A (2012) IEA bioenergy task 38 - case study environmental assessment of liquid biofuel from woody biomass. Work Report of the Institute of Forest Based Sector Economics 2012/01. HamburgGoogle Scholar
  78. Rutland CT (2011) Life cycle assessment applied to 95 representative US Farms. Master thesis, Texas A&M UniversityGoogle Scholar
  79. Samuel-Fitwi B, Nagel F, Meyer S, Schroeder J, Schulz C (2013) Comparative life cycle assessment (LCA) of raising rainbow trout (Oncorhynchus mykiss) in different production systems. Aquacult Eng 54:85–92CrossRefGoogle Scholar
  80. Schäfer F, Blanke M (2012) Farming and marketing system affects carbon and water footprint–a case study using Hokaido pumpkin. J Clean Prod 28:113–119CrossRefGoogle Scholar
  81. Schmidt JH (2007) Life assessment of rapeseed oil and palm oil. Ph. D. thesis, Part 3: life cycle inventory of rapeseed oil. Dissertation, Aalborg UniversityGoogle Scholar
  82. Schulze E, Körner C, Law BE, Haberl H, Luyssaert S (2012) Large-scale bioenergy from additional harvest of forest biomass is neither sustainable nor greenhouse gas neutral. Glob Chang Biol Bioenergy 4:611–616CrossRefGoogle Scholar
  83. Scown CD (2010) Life-cycle water impacts of US transportation fuels. Dissertation, University of CaliforniaGoogle Scholar
  84. Sheehan JJ (2009) Biofuels and the conundrum of sustainability. Curr Opin Biotechnol 20:318–324CrossRefGoogle Scholar
  85. Socolow R (1997) Industrial ecology and global change. Cambridge University PressGoogle Scholar
  86. Sonnemann G, Vigon B (2011) Global guidance principles for life cycle assessment databases. A basis for greener processes and products.UNEP/SETAC Life Cycle Initiative. United Nations Environment Programme (UNEP), ParisGoogle Scholar
  87. Thomassen M, Dalgaard R, Heijungs R, de Boer I (2008) Attributional and consequential LCA of milk production. Int J Life Cycle Assess 13:339–349CrossRefGoogle Scholar
  88. Tillman A (2000) Significance of decision-making for LCA methodology. Environ Impact Assess Rev 20:113–123CrossRefGoogle Scholar
  89. Tufvesson LM, Lantz M, Börjesson P (2013) Environmental performance of biogas produced from industrial residues including competition with animal feed–life-cycle calculations according to different methodologies and standards. J Clean Prod 53:214–223CrossRefGoogle Scholar
  90. Vázquez-Rowe I, Marvuglia A, Flammang K, Braun C, Leopold U, Benetto E (2014) The use of temporal dynamics for the automatic calculation of land use impacts in LCA using R programming environment. Int J Life Cycle Assess 19:500–516CrossRefGoogle Scholar
  91. Vellinga TV, Blonk H, Marinussen M, van Zeist W, de Boer I, Starmans D (2009) Methodology used in FeedPrint: a tool quantifying greenhouse gas emissions of feed production and utilization. Lelystad, the NetherlandsGoogle Scholar
  92. Weidema B (2000) Avoiding co-product allocation in life-cycle assessment. J Ind Ecol 4:11–33CrossRefGoogle Scholar
  93. Weidema B (2003) Market information in life cycle assessment (Vol. 863, p. 365). MiljøstyrelsenGoogle Scholar
  94. Weidema B, Frees N, Nielsen A (1999) Marginal production technologies for life cycle inventories. Int J Life Cycle Assess 4:48–56CrossRefGoogle Scholar
  95. Weiss F, Leip A (2012) Greenhouse gas emissions from the EU livestock sector: a life cycle assessment carried out with the CAPRI model. Agric Ecosyst Environ 149:124–134CrossRefGoogle Scholar
  96. Whittaker C, Borrion AL, Newnes L, McManus M (2014) The renewable energy directive and cereal residues. Appl Energy 122:207–215CrossRefGoogle Scholar
  97. WRI, WBCSD (2011) Product life cycle reporting and standard. WRI, WashingtonGoogle Scholar
  98. Zamagni A, Guinée J, Heijungs R, Masoni P, Raggi A (2012) Lights and shadows in consequential LCA. Int J Life Cycle Assess 17:904–918CrossRefGoogle Scholar

Copyright information

© Springer-Verlag Berlin Heidelberg 2015

Authors and Affiliations

  • Sampo Soimakallio
    • 1
  • Annette Cowie
    • 2
  • Miguel Brandão
    • 3
  • Göran Finnveden
    • 4
  • Tomas Ekvall
    • 5
  • Martin Erlandsson
    • 6
  • Kati Koponen
    • 7
  • Per-Erik Karlsson
    • 5
  1. 1.Finnish Environment Institute (SYKE), Climate Change ProgrammeHelsinkiFinland
  2. 2.NSW Department of Primary IndustriesUniversity of New EnglandArmidaleAustralia
  3. 3.IEA Bioenergy Task 38BarcelonaSpain
  4. 4.Division of Environmental Strategies Research (fms), Department of Sustainable Development, Environmental Sciences and EngineeringSchool of Architecture and the Built Environment, KTH Royal Institute of TechnologyStockholmSweden
  5. 5.IVL Swedish Environmental Research InstituteGöteborgSweden
  6. 6.IVL Swedish Environmental Research InstituteStockholmSweden
  7. 7.VTT Technical Research Centre of Finland, Energy SystemsEspooFinland

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