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Solvent Processible Composite Carbon Nanotube Cathode for Polymer LED Applications

Published online by Cambridge University Press:  01 February 2011

Gao Liu ,
Steve Johnson  and
John B. Kerr
Gao Liu
Affiliation:
Environmental Energy Technology Division, Lawrence Berkeley National Laboratory, 1 Cyclotron Rd., Berkeley, CA 94720, U.S.A.
Steve Johnson
Affiliation:
Environmental Energy Technology Division, Lawrence Berkeley National Laboratory, 1 Cyclotron Rd., Berkeley, CA 94720, U.S.A.
John B. Kerr
Affiliation:
Environmental Energy Technology Division, Lawrence Berkeley National Laboratory, 1 Cyclotron Rd., Berkeley, CA 94720, U.S.A.
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Abstract

Composites of single wall carbon nanotubes (SWNT) and conductive polymers were studied as potential cathode materials for application in polymer light emitting devices. A new conductive poly(2,7–9,9 (di(oxy-2,5,8-trioxadecane))fluorene) (PFO) possessing surfactant properties was used to stabilize SWNTs in solutions. The rigid PFO backbones act as a template while the ethyleneoxide side chains appear to wrap around the SWNTs. Up to 0.02% (by weight) of SWNTs are stabilized in the solution phase. The current vs. voltage behavior of the SWNT/PFO composite film (2% SWNT in PFO by weight) shows that most of the current is carried by SWNTs.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 796: Symposium V – Critical Interfacial Issues in Thin Film Optoelectronic and Energy Conversion Devices , 2003 , V6.8
Copyright
Copyright © Materials Research Society 2004

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References

REFERENCES

1 Tang, C. W. and VanSlyke, S. A., Applied Physics Letters 51 (12), 913 (1987);Google Scholar
Burroughes, J. H., Bradley, D. D. C., Brown, A. R. et al., Nature 347, 539 (1990).Google Scholar
2 Braun, D. and Heeger, A. J., Applied Physics Letters 58 (18), 1982 (1991).Google Scholar
3 Hebner, T. R., Wu, C. C., Marcy, D. et al., Applied Physics Letters 72 (5), 519 (1998);Google Scholar
Pardo, D. A., Jabbour, G. E., and Peyghambarian, N., Advanced Materials 12 (17), 1249 (2000).Google Scholar
4 Fournet, P., O'Brien, D. F., Coleman, J. N. et al., Synthetic Metals 121 (1–3 Special Issue SI), 1683 (2001);Google Scholar
Woo, H. S., Czerw, R., Webster, S. et al., Applied Physics Letters 77 (9), 1393 (2000);Google Scholar
Dalton, A. B., Blau, W. J., Chambers, G. et al., Synthetic Metals 121 (1–3 Special Issue SI), 1217 (2001).Google Scholar
5 Mc Carthy, B., Coleman, J. N., Czerw, R. et al., Synthetic Metals 121 (1–3 Special Issue SI), 1225 (2001);Google Scholar
Fournet, P., Coleman, J. N., Lahr, B. et al., Journal of Applied Physics 90 (2), 969 (2001).Google Scholar
6 O'Connell, M. J., Boul, P., Ericson, L. M. et al., Chemical Physics Letters 342 (3–4), 265 (2001);Google Scholar
Xia, H. S., Wang, Q., and Qiu, G. H., Chemistry of Materials 15 (20), 3879 (2003);Google Scholar
Richard, C., Balavoine, F., Schultz, P. et al., Science 300 (5620), 775 (2003).Google Scholar
7 Liu, G., Johnson, S., Mao, S. S. et al., Advanced Materials (Submitted).Google Scholar
8 Stephan, O. and Vial, J. C., Synthetic Metals 106 (2), 115 (1999).Google Scholar
9 Nguyen, T. Q., Doan, V., and Schwartz, B. J., Journal of Chemical Physics 110 (8), 4068 (1999).Google Scholar