Home / Articles / Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes

Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes

Natalia P. Stepina 1
Natalia P. Stepina
, 
Mikhail S. Galkov 2
Mikhail S. Galkov
, 
Mikhail R. Predtechenskiy 2
Mikhail R. Predtechenskiy
, 
Alexander E. Bezrodny 2
Alexander E. Bezrodny
, 
Viktor V. Kirienko 1
Viktor V. Kirienko
, 
Anatolii V. Dvurechenskii 1, 3
Anatolii V. Dvurechenskii
1 Institute of Semiconductor Physics, 13 Lavrent’ev ave., Novosibirsk 630090, Russia
2 OCSiAl Group, 1804 Embarcadero Rd., Suite 202, Palo Alto, California, 94303, USA
3 Novosibirsk State University, 30 Pirogova Str., Novosibirsk 630090, Russia
10.3897/j.moem.5.1.39452
Published 1 March 2019
Communication , Volume 5, Issue 1, 21-26
4
Share
Cite this
GOST
 | 
Cite this
GOST
Copy cite
Stepina N. P. et al. Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes // Modern Electronic Materials. 2019. Vol. 5. No. 1. pp. 21-26.
GOST all authors (up to 50)
Copy cite
Stepina N. P., Galkov M. S., Predtechenskiy M. R., Bezrodny A. E., Kirienko V. V., Dvurechenskii A. V. Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes // Modern Electronic Materials. 2019. Vol. 5. No. 1. pp. 21-26.
RIS
 | 
Cite this
RIS
Copy cite
TY - JOUR
DO - 10.3897/j.moem.5.1.39452
UR - https://moem.colab.ws/publications/10.3897/j.moem.5.1.39452
TI - Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes
T2 - Modern Electronic Materials
AU - Stepina, Natalia P.
AU - Galkov, Mikhail S.
AU - Predtechenskiy, Mikhail R.
AU - Bezrodny, Alexander E.
AU - Kirienko, Viktor V.
AU - Dvurechenskii, Anatolii V.
PY - 2019
DA - 2019/03/01
PB - НИТУ МИСИС
SP - 21-26
IS - 1
VL - 5
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
Copy cite
@article{2019_Stepina,
author = {Natalia P. Stepina and Mikhail S. Galkov and Mikhail R. Predtechenskiy and Alexander E. Bezrodny and Viktor V. Kirienko and Anatolii V. Dvurechenskii},
title = {Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes},
journal = {Modern Electronic Materials},
year = {2019},
volume = {5},
publisher = {НИТУ МИСИС},
month = {Mar},
url = {https://moem.colab.ws/publications/10.3897/j.moem.5.1.39452},
number = {1},
pages = {21--26},
doi = {10.3897/j.moem.5.1.39452}
}
MLA
Cite this
MLA
Copy cite
Stepina, Natalia P., et al. “Preparation and transport properties of oriented buckypapers with single walled carbon nanotubes.” Modern Electronic Materials, vol. 5, no. 1, Mar. 2019, pp. 21-26. https://moem.colab.ws/publications/10.3897/j.moem.5.1.39452.
Views / Visits / Downloads
57 / 57 / 42

Keywords

iodine doping
oriented buckypapers
single-walled carbon nanotubes

Abstract

Buckypapers (BPs) with carbon nanotubes (CNTs) are very promising for a lot of applications, in which their high conductance, strength and small weight are required. In this work, isotropic BPs were prepared using the solution-based deposition that includes the single walled carbon nanotubes (SWCNTs) dispersion and the dispersion filtration from a solvent. To increase the BP conductivity, the orientation of the SWCNT bundles composing BPs and a following iodine doping were applied. The method of extrusion through the narrow (300 µm) gap was used for the SWCNT orientation. The temperature dependences of conductance for isotropic, oriented and doped BPs were studied to understand the effect of CNT alignment and the mechanism of transport through SWCNT BPs. It was shown that bundle orientation increases the BP conductivity from ~103 S × cm-1 to ~104 S × cm-1, and iodine doping of oriented samples additionally increase the conductivity by an order. The fluctuation – assisted tunneling between CNT bundles was used to describe the mechanism of low temperature conductivity.

References

4.
Skákalová V., Kaiser A.B., Osváth Z., Vértesy G., Biró L.P., Roth S.
Applied Physics A: Materials Science and Processing, 2008
6.
McIntosh G.C., Kim G.T., Park J.G., Krstic V., Burghard M., Jhang S.H., Lee S.W., Roth S., Park Y.W.
Thin Solid Films, 2002
7.
Hone J., Whitney M., Piskoti C., Zettl A.
Physical Review B, 1999
10.
Gross A.J., Holzinger M., Cosnier S.
Energy and Environmental Science, 2018
12.
Ma W., Song L., Yang R., Zhang T., Zhao Y., Sun L., Ren Y., Liu D., Liu L., Shen J., Zhang Z., Xiang Y., Zhou W., Xie S.
Nano Letters, 2007
13.
Wang D., Song P., Liu C., Wu W., Fan S.
Nanotechnology, 2008
14.
Zhao W., Tan H.T., Tan L.P., Fan S., Hng H.H., Boey Y.C., Beloborodov I., Yan Q.
ACS applied materials & interfaces, 2014
15.
Jia X., Chen Z., Suwarnasarn A., Rice L., Wang X., Sohn H., Zhang Q., Wu B.M., Wei F., Lu Y.
Energy and Environmental Science, 2012
16.
Baughman R.H., Cui C., Zakhidov A.A., Iqbal Z., Barisci J.N., Spinks G.M., Wallace G.G., Mazzoldi A., De Rossi D., Rinzler A.G., Jaschinski O., Roth S., Kertesz M.
Science, 1999
18.
Rein M.D., Breuer O., Wagner H.D.
Composites Science and Technology, 2011
19.
Zhang D., Ryu K., Liu X., Polikarpov E., Ly J., Tompson M.E., Zhou C.
Nano Letters, 2006
20.
Park J.G., Louis J., Cheng Q., Bao J., Smithyman J., Liang R., Wang B., Zhang C., Brooks J.S., Kramer L., Fanchasis P., Dorough D.
Nanotechnology, 2009
22.
Zhang M., Fang S., Zakhidov A.A., Lee S.B., Aliev A.E., Williams C.D., Atkinson K.R., Baughman R.H.
Science, 2005
23.
Davies R.J., Riekel C., Koziol K.K., Vilatela J.J., Windle A.H.
Journal of Applied Crystallography, 2009
24.
Fischer J.E., Dai H., Thess A., Lee R., Hanjani N.M., Dehaas D.L., Smalley R.E.
Physical Review B, 1997
25.
Lee R.S., Kim H.J., Fischer J.E., Lefebvre J., Radosavljević M., Hone J., Johnson A.T.
Physical Review B, 2000
26.
Behabtu N., Young C.C., Tsentalovich D.E., Kleinerman O., Wang X., Ma A.W., Bengio E.A., ter Waarbeek R.F., de Jong J.J., Hoogerwerf R.E., Fairchild S.B., Ferguson J.B., Maruyama B., Kono J., Talmon Y., et. al.
Science, 2013
27.
OCSiAl. URL: https://ocsial.com/ru/tubbox/
29.
Bucossi A.R., Cress C.D., Schauerman C.M., Rossi J.E., Puchades I., Landi B.J.
ACS applied materials & interfaces, 2015
30.
Ramesh S., Ericson L.M., Davis V.A., Saini R.K., Kittrell C., Pasquali M., Billups W.E., Adams W.W., Hauge R.H., Smalley R.E.
Journal of Physical Chemistry B, 2004
31.
Zhou W., Vavro J., Guthy C., Winey K.I., Fischer J.E., Ericson L.M., Ramesh S., Saini R., Davis V.A., Kittrell C., Pasquali M., Hauge R.H., Smalley R.E.
Journal of Applied Physics, 2003
32.
Harutyunyan A.R., Chen G., Paronyan T.M., Pigos E.M., Kuznetsov O.A., Hewaparakrama K., Kim S.M., Zakharov D., Stach E.A., Sumanasekera G.U.
Science, 2009
33.
Zhang X., Li Q., Tu Y., Li Y., Coulter J., Zheng L., Zhao Y., Jia Q., Peterson D., Zhu Y.
Small, 2007
34.
Kaiser A.B., Düsberg G., Roth S.
Physical Review B, 1998
35.
Steinmetz J., Glerup M., Paillet M., Bernier P., Holzinger M.
Carbon, 2005
37.
Cambedouzou J., Sauvajol J.-., Rahmani A., Flahaut E., Peigney A., Laurent C.
Physical Review B, 2004
38.
Tsebro V.I., Tonkikh A.A., Rybkovskiy D.V., Obraztsova E.A., Kauppinen E.I., Obraztsova E.D.
Physical Review B, 2016
39.
Kivelson S., Heeger A.J.
Synthetic Metals, 1988