Keywords
carbon nanotubes
charge carrier mobility
composite sensors
field-effect transistor
graphene oxide
impedance
polyarylenephthalide
thin films
voltammetry
Abstract
Investigations of nanocomposite thin films based on polyarylene- phthalide, single-walled carbon nanotubes and graphene oxide have been carried out. Using these films as a transport layer, field-effect transistors were assembled and their output and transfer characteristics were measured. The mobility of charge carriers was estimated and the obtained values are as follows: μPAP/GO = 0.020 cm2 V−1 s−1 and μPAP/SWCNT = 0.071 cm2 V−1 s−1.
References
1.
Tao Z., Mohammed-Brahim T., Lei W., Harnois M., Jacques E.
Solid-State Electronics,
2018
2.
Shaposhnik P.A., Zapunidi S.A., Shestakov M.V., Agina E.V., Ponomarenko S.A.
Russian Chemical Reviews,
2020
3.
10.1016/j.mencom.2022.07.029_b0015
Kang
Org. Electron.,
2020
4.
Salikhov R.B., Lachinov A.N., Rakhmeyev R.G.
Journal of Applied Physics,
2007
5.
Bunakov A.A., Lachinov A.N., Salikhov R.B.
Technical Physics,
2003
6.
Salikhov R.B., Lachinov A.N., Bunakov A.A.
Physics of the Solid State,
2007
7.
Ziyatdinova G., Budnikov H.
2018
8.
Montes R., Bartrolí J., Céspedes F., Baeza M.
Journal of Electroanalytical Chemistry,
2014
9.
Kobeleva E.S., Nevostruev D.A., Uvarov M.N., Utkin D.E., Zinoviev V.A., Gurova O.A., Kazantzev M.S., Degtyarenko K.M., Kulikova A.V., Kulik L.V.
Russian Chemical Bulletin,
2021
10.
Muñoz J., Montes R., Baeza M.
TrAC - Trends in Analytical Chemistry,
2017
11.
Murtada K., Moreno V.
Journal of Electroanalytical Chemistry,
2020
12.
Yola M.L.
Current Analytical Chemistry,
2018
13.
Taherpour A.A., Mousavi F.
2018
14.
Krishnan S.K., Singh E., Singh P., Meyyappan M., Nalwa H.S.
RSC Advances,
2019
15.
10.1016/j.mencom.2022.07.029_b0075
Zhang
Sens. Actuators, B,
2019
16.
Wang G., Morrin A., Li M., Liu N., Luo X.
Journal of Materials Chemistry B,
2018
17.
Srivastava A.K., Upadhyay S.S., Rawool C.R., Punde N.S., Rajpurohit A.S.
Current Analytical Chemistry,
2018
18.
Zilberg R.A., Teres Y.B., Zagitova L.R., Yarkaeva Y.A., Berestova T.V.
Analitika i Kontrol,
2021
19.
Zil’berg R.A., Yarkaeva Y.A., Maksyutova E.I., Sidel’nikov A.V., Maistrenko V.N.
Journal of Analytical Chemistry,
2017
20.
Zil’berg R.A., Maistrenko V.N., Yarkaeva Y.A., Dubrovskii D.I.
Journal of Analytical Chemistry,
2019
21.
Zil’berg R.A., Yarkaeva Y.A., Sidel’nikov A.V., Maistrenko V.N., Kraikin V.A., Gileva N.G.
Journal of Analytical Chemistry,
2016
22.
Kraikin V.A., Fatykhov A.A., Gileva N.G., Kravchenko A.A., Salazkin S.N.
Magnetic Resonance in Chemistry,
2020
23.
Salazkin S.N., Shaposhnikova V.V., Machulenko L.N., Gileva N.G., Kraikin V.A., Lachinov A.N.
Polymer Science - Series A,
2008
24.
Gileva N.G., Kraikin V.A., Sedova E.A., Lobov M.S., Kuznetsov S.I., Salazkin S.N.
Russian Journal of Applied Chemistry,
2005
25.
Zilberg R.A., Sidelnikov A.V., Maistrenko V.N., Yarkaeva Y.A., Khamitov E.M., Kornilov V.M., Maksutova E.I.
Electroanalysis,
2017
26.
Xu H., Zheng Q., Yang P., Liu J., Jin L.
Chinese Journal of Chemistry,
2011
27.
10.1016/j.mencom.2022.07.029_b0135
Lasia
Electrochemical Impedance Spectroscopy and its Applications,
2014
28.
10.1016/j.mencom.2022.07.029_b0140
Bard
Electrochemical Methods: Fundamentals and Applications,
2004
29.
Tameev A.R., Rakhmeev R.G., Nikitenko V.R., Salikhov R.B., Bunakov A.A., Lachinov A.N., Vannikov A.V.
Physics of the Solid State,
2011
30.
Arvizu-Rodriguez L.E., Paramo-García U., Caballero-Briones F.
Materials Letters,
2020
31.
Smithson C., Wu Y., Wigglesworth T., Gardner S., Zhu S., Nie H.
Organic Electronics,
2014