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system models and LCA. Setac Brussels 2017, Brussels: 2017, p. 3–4. https://osf.io/cxzra
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system transformation pathways: A case study for Switzerland. Energy Policy 2017;106:
155–68.
6. Menten F.M, Tchung-ming S, Lorne D, Bouvart F, Lessons from the use of a long-term
energy model for consequential life cycle assessment: the BTL case. Renew Sustain Energy
Rev 2015;43:942–60.
7. Pietrapertosa F, Cosmi C, Macchiato M, Salvia M, Cuomo V, Life Cycle Assessment,
ExternE and Comprehensive Analysis for an integrated evaluation of the environmental
impact of anthropogenic activities. Renew Sustain Energy Rev 2009;13:1039–48.
8. Daly H.E, Scott K, Strachan N, Barrett J, Indirect CO 2 Emission Implications of Energy
System Pathways: Linking IO and TIMES Models for the UK. Environ Sci Technol
2015;49:10701–9.
9. Scott K, Daly H, Barrett J, Strachan N, National climate policy implications of mitigating
embodied energy system emissions. Clim Change 2016;136:325–38.
10. McDowall W, Solano Rodriguez B, Usubiaga A, Acosta Fernández J, Is the optimal
decarbonization pathway influenced by indirect emissions? Incorporating indirect life-cycle
carbon dioxide emissions into a European TIMES model. J Clean Prod 2018;170:260–8.
11. Hugues P, Assoumou E, Maizi N, Assessing GHG mitigation and associated cost of French
biofuel sector: Insights from a TIMES model. Energy 2016;113:288–300.
12. García-Gusano D, Garraín D, Dufour J, Prospective life cycle assessment of the Spanish
electricity production. Renew Sustain Energy Rev 2016;75:21–34.
13. DeCarolis J, Daly H, Dodds P, Keppo I, Li F, McDowall W, et al, Formalizing best practice
for energy system optimization modelling. Appl Energy 2017;194:184–98.
14. Pfenninger S, Hawkes A, Keirstead J, Energy systems modeling for twenty-first century
energy challenges. Renew Sustain Energy Rev 2014;33:74–86.
15. Loulou R, Remme U, Kanudia A, Lehtila A, Goldstein G, Documentation for the TIMES
Model Part I. IEA Energy Technol Syst Anal Program 2005:1–78. https://iea-etsap.org/docs/
Documentation_for_the_TIMES_Model-Part-I_July-2016.pdf (accessed September 23, 2017).
16. Hunter K, Sreepathi S, DeCarolis J.F, Modeling for insight using Tools for Energy Model
Optimization and Analysis (Temoa). Energy Econ 2013;40:339–49.
17. Howells M, Rogner H, Strachan N, Heaps C, Huntington H, Kypreos S, et al, OSeMOSYS:
The Open Source Energy Modeling System. Energy Policy 2011;39:5850–70.
18. Glynn J, Fortes P, Krook-Riekkola A, Labriet M, Vielle M, Kypreos S, et al, Informing
energy and climate policies using energy systems models. Springer International Publishing;
2015.
19. Astudillo M.F, Treyer K, Bauer C, Pineau P.O, Amor M Ben, Amor B, Life cycle inventories
of electricity supply through the lens of data quality: exploring challenges and opportunities.
Int J Life Cycle Assess 2016;3:374–86.
20. ISO, ISO 14044 Environmental management—Life cycle assessment—Requirements and
guidelines. vol. 3. 2006.
21. Kapsarc, Energy Systems Modeling to Support Policy Making 2014. https://www.kapsarc.
org/wp-content/uploads/2015/10/KS-1401-WB01B-Energy-Modeling-Workshop-PolicyBrief.pdf (accessed September 19, 2017).
22. Pauliuk S, Arvesen A, Stadler K, Hertwich E.G, Industrial ecology in integrated assessment
models. Nat Clim Chang 2017;7:13–20.
23. Hellweg S, Milà i Canals L, Emerging approaches, challenges and opportunities in life cycle
assessment. Science 2014;344:1109–13.
24. Astudillo M.F, Vaillancourt K, Pineau P, Amor B, Simplifying the integration of energy
system models and LCA. Setac Brussels 2017, Brussels: 2017, p. 3–4. https://osf.io/cxzra
(accessed September 19, 2017).
25. Astudillo M.F, Vaillancourt K, Pineau P.O, Amor B, Can the household sector reduce global
warming mitigation costs? sensitivity to key parameters in a TIMES techno-economic energy
model. Appl Energy 2017;205:486–98.
258
M. F. Astudillo et al.