TY - JOUR
T1 - Anticipatory governance and anticipatory life cycle assessment of single wall carbon nanotube anode lithium ion batteries
AU - Wender, B. A.
AU - Foley, R. W.
AU - Guston, David
AU - Seager, Thomas
AU - Wiek, Arnim
PY - 2012/12/1
Y1 - 2012/12/1
N2 - Anticipatory governance (AG) provides a forward-looking framework through which social, eth-ical, and legal aspects of such emerging technologies as nanotechnology may be assessed. Ad-vanced versions of AG integrate a suite of qualitative methods, including sustainability constellation mapping, as well as quantitative methods focused on real-time trend analysis of bibliometric and patent activity. Anticipatory life cycle assessment (LCA) builds upon advancements in LCA, and seeks to adapt life cycle frameworks to developing nanotechnologies through a combination of la-boratory-scale inventory data collection, thermodynamic modeling of nano-manufacturing pro-cesses, and nanotechnology experience curve modeling. Anticipatory LCA may call attention to en-vironmentally problematic processes in the life cycle of novel nanotechnologies before significant social, political, and economic investments in research and infrastructure contribute to technology lock in. One such technology is single wall carbon nanotube (SWCNT) anodes for advanced lithium ion batteries, which may increase the energy density of portable, rechargeable batteries. Through a case study of SWCNT anodes, we demonstrate that incorporation of anticipatory LCA within AG di-rectly addresses the lack of laboratory-generated quantitative methods, promotes communication between laboratory researchers, social scientists, and broader sets of stakeholders, and may reori-ent laboratory research agenda.
AB - Anticipatory governance (AG) provides a forward-looking framework through which social, eth-ical, and legal aspects of such emerging technologies as nanotechnology may be assessed. Ad-vanced versions of AG integrate a suite of qualitative methods, including sustainability constellation mapping, as well as quantitative methods focused on real-time trend analysis of bibliometric and patent activity. Anticipatory life cycle assessment (LCA) builds upon advancements in LCA, and seeks to adapt life cycle frameworks to developing nanotechnologies through a combination of la-boratory-scale inventory data collection, thermodynamic modeling of nano-manufacturing pro-cesses, and nanotechnology experience curve modeling. Anticipatory LCA may call attention to en-vironmentally problematic processes in the life cycle of novel nanotechnologies before significant social, political, and economic investments in research and infrastructure contribute to technology lock in. One such technology is single wall carbon nanotube (SWCNT) anodes for advanced lithium ion batteries, which may increase the energy density of portable, rechargeable batteries. Through a case study of SWCNT anodes, we demonstrate that incorporation of anticipatory LCA within AG di-rectly addresses the lack of laboratory-generated quantitative methods, promotes communication between laboratory researchers, social scientists, and broader sets of stakeholders, and may reori-ent laboratory research agenda.
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M3 - Article
AN - SCOPUS:84873925467
SN - 1546-2080
VL - 9
SP - 201
EP - 216
JO - Nanotechnology Law and Business
JF - Nanotechnology Law and Business
IS - 3
ER -