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Article
Genetically Programming Interfaces between Active Materials, Conductive Pathway and Current Collector in Li-Ion Batteries
ECS Transactions (2012)
  • Kang Xu, U.S Army Research Laboratory
  • Dahyun Oh, Massachusetts Institute of Technology
  • Hyunjung Yi, Massachusetts Institute of Technology
  • Jifa Qi, Massachusetts Institute of Technology
  • Alice Xu, U.S Army Research Laboratory
  • James Snyder, U.S Army Research Laboratory
  • Angela Belcher, Massachusetts Institute of Technology
Abstract
In this work we genetically programmed the M13 virus, so that the new clone expressed multifunctional coat protein sequences that selectively bind to designated surfaces and species. Using these new clones, composite network consisting of ironphosphate nanowire (a-FePO4) and single wall carbon nanotubes were self-assembled onto aluminum surfaces. Spectroscopic and electrochemical characterizations confirmed the 3D-structure as well as the electrochemical activity of such composite nanowires.
Publication Date
2012
DOI
10.1149/1.4717963
Citation Information
Kang Xu, Dahyun Oh, Hyunjung Yi, Jifa Qi, et al.. "Genetically Programming Interfaces between Active Materials, Conductive Pathway and Current Collector in Li-Ion Batteries" ECS Transactions Vol. 41 Iss. 41 (2012) p. 55 - 64 ISSN: 1938-5862
Available at: http://works.bepress.com/dahyun-oh/8/