Keywords
[60]fullerene
electron mobility
organic field-effect transistor
organic semiconductor
PCBM
styryl fullerene
Abstract
Organic field-effect transistors with styryl fullerene as a semi conductor layer applied by centrifugation are considered. Electron mobility in the transistors was 0.067 ± 10% cm2 V−1 s−1, whereas the mobility of electrons in these devices after the vacuum deposition of a semiconductor layer was much lower (0.023 ± 10% cm2 V−1 s−1).
References
1.
Wang Y., Sun L., Wang C., Yang F., Ren X., Zhang X., Dong H., Hu W.
Chemical Society Reviews,
2019
2.
García de Arquer F.P., Armin A., Meredith P., Sargent E.H.
Nature Reviews Materials,
2017
3.
Zhang C., Chen P., Hu W.
Chemical Society Reviews,
2015
4.
Thejo Kalyani N., Dhoble S.J.
Renewable and Sustainable Energy Reviews,
2012
5.
Shih C.-., Lee W.-., Chen W.-.
Materials Horizons,
2016
6.
10.1016/j.mencom.2021.09.016_b0030
Tiwari
Handbook of Ecomaterials,
2018
7.
Wadsworth A., Moser M., Marks A., Little M.S., Gasparini N., Brabec C.J., Baran D., McCulloch I.
Chemical Society Reviews,
2019
8.
9.
Tuktarov A.R., Salikhov R.B., Khuzin A.A., Safargalin I.N., Mullagaliev I.N., Venidiktova O.V., Valova T.M., Barachevsky V.A., Dzhemilev U.M.
Mendeleev Communications,
2019
10.
Sizov A.S., Agina E.V., Ponomarenko S.A.
Russian Chemical Reviews,
2019
11.
Ganesamoorthy R., Sathiyan G., Sakthivel P.
Solar Energy Materials and Solar Cells,
2017
12.
Hummelen J.C., Knight B.W., LePeq F., Wudl F., Yao J., Wilkins C.L.
Journal of Organic Chemistry,
1995
13.
Huang T., Yan H., Abdelsamie M., Savikhin V., Schneider S.A., Ran N.A., Nguyen T., Bazan G.C., Toney M.F.
RSC Advances,
2019
14.
Turkovic V., Prete M., Bregnhøj M., Inasaridze L., Volyniuk D., Obrezkov F.A., Grazulevicius J.V., Engmann S., Rubahn H., Troshin P.A., Ogilby P.R., Madsen M.
ACS applied materials & interfaces,
2019
15.
10.1016/j.mencom.2021.09.016_b0075
Handbook of Conducting Polymers,
2007
16.
Shoaee S., Subramaniyan S., Xin H., Keiderling C., Tuladhar P.S., Jamieson F., Jenekhe S.A., Durrant J.R.
Advanced Functional Materials,
2013
17.
Troshin P.A., Hoppe H., Renz J., Egginger M., Mayorova J.Y., Goryachev A.E., Peregudov A.S., Lyubovskaya R.N., Gobsch G., Sariciftci N.S., Razumov V.F.
Advanced Functional Materials,
2009
18.
Lin G., Cui R., Huang H., Guo X., Yang S., Li C., Dong J., Sun B.
Tetrahedron,
2015
19.
Matsumoto F., Iwai T., Moriwaki K., Takao Y., Ito T., Mizuno T., Ohno T.
ACS applied materials & interfaces,
2016
20.
Kooistra F.B., Mihailetchi V.D., Popescu L.M., Kronholm D., Blom P.W., Hummelen J.C.
Chemistry of Materials,
2006
21.
He D., Du X., Xiao Z., Ding L.
Organic Letters,
2014
22.
Sabirov D.S., Terentyev A.O., Bulgakov R.G.
Journal of Physical Chemistry A,
2015
23.
Tuktarov A.R., Chobanov N.M., Budnikova Y.H., Dudkina Y.B., Dzhemilev U.M.
Journal of Organic Chemistry,
2019
24.
Kumar A., Li G., Hong Z., Yang Y.
Nanotechnology,
2009
25.
Akaike K., Kanai K., Ouchi Y., Seki K.
Applied Physics Letters,
2009
26.
Akaike K., Kanai K., Yoshida H., Tsutsumi J., Nishi T., Sato N., Ouchi Y., Seki K.
Journal of Applied Physics,
2008
27.
Troshin P.A., Ponomarenko S.A., Luponosov Y.N., Khakina E.A., Egginger M., Meyer-Friedrichsen T., Elschner A., Peregudova S.M., Buzin M.I., Razumov V.F.
Solar Energy Materials and Solar Cells,
2010
28.
Yang S.H., Cho M.Y., Jo S.G., Jung J.S., Jung K.H., Bae S.Y., Choi D.H., Kim S., Joo J.
Synthetic Metals,
2012
29.
10.1016/j.mencom.2021.09.016_b0145
Dimitrakopoulos
J. Res. Dev.,
2001
30.
10.1016/j.mencom.2021.09.016_b0150
Köhler
Electronic Processes in Organic Semiconductors: An Introduction,
2015