Abstract
A simple strategy for the production of an efficient platinumfree electrocatalyst for the oxygen reduction reaction was demonstrated. Nitrogen-enriched carbon powder was synthesized by a solid-phase method consisting of grinding graphene oxide and melamine in a planetary ball mill without any solvents and high-temperature processing. Based on XPS and IR spectroscopy data, it was assumed that the high electrocatalytic activity of the obtained material is due to the presence of nitrogen atoms and quinone groups on its surface.
References
1.
Shao M., Chang Q., Dodelet J., Chenitz R.
Chemical Reviews,
2016
2.
Majlan E.H., Rohendi D., Daud W.R., Husaini T., Haque M.A.
Renewable and Sustainable Energy Reviews,
2018
3.
Shao Q., Li F., Chen Y., Huang X.
Advanced Materials Interfaces,
2018
4.
Dai L., Xue Y., Qu L., Choi H., Baek J.
Chemical Reviews,
2015
5.
Qu L., Liu Y., Baek J., Dai L.
ACS Nano,
2010
6.
Gong K., Du F., Xia Z., Durstock M., Dai L.
Science,
2009
7.
Daems N., Sheng X., Vankelecom I.F., Pescarmona P.P.
Journal of Materials Chemistry A,
2014
8.
Kakaei K., Ghadimi G.
Materials Technology,
2020
9.
Jukk K., Kongi N., Tammeveski K., Arán-Ais R.M., Solla-Gullón J., Feliu J.M.
Electrochimica Acta,
2017
10.
Gómez-Marín A.M., Feliu J.M., Ticianelli E.
ACS Catalysis,
2019
11.
Rogachev A.S.
Russian Chemical Reviews,
2019
12.
León V., Rodriguez A.M., Prieto P., Prato M., Vázquez E.
ACS Nano,
2014
13.
Priyanka V., Savithiri G., Subadevi R., Suryanarayanan V., Sivakumar M.
New Journal of Chemistry,
2019
14.
Ahmad J., Sofi F.A., Mehraj O., Majid K.
Surfaces and Interfaces,
2018
15.
Kahimbi H., Hong S.B., Yang M., Choi B.G.
Journal of Electroanalytical Chemistry,
2017
16.
Hummers W.S., Offeman R.E.
Journal of the American Chemical Society,
1958
17.
V. E. Muradyan, M. G. Ezernitskaya, V. I. Smirnova, N. M. Kabaeva, Yu. N. Novikov, Z. N. Parnes and M. E. Vol’pin, J. Gen. Chem. USSR (Engl. Transl.), 1991, 61, 2514 (Zh. Obshch. Khim., 1991, 61, 2626).
18.
Mondal O., Mitra S., Pal M., Datta A., Dhara S., Chakravorty D.
Materials Chemistry and Physics,
2015
19.
10.1016/j.mencom.2021.07.031_b0095
Wang
J. Mater. Chem. A,
2011
20.
Liu F., Niu F., Chen T., Han J., Liu Z., Yang W., Xu Y., Liu J.
Carbon,
2018
21.
Panomsuwan G., Saito N., Ishizaki T.
ACS applied materials & interfaces,
2016
22.
Lai L., Potts J.R., Zhan D., Wang L., Poh C.K., Tang C., Gong H., Shen Z., Lin J., Ruoff R.S.
Energy and Environmental Science,
2012
23.
Guo D., Shibuya R., Akiba C., Saji S., Kondo T., Nakamura J.
Science,
2016
24.
Figueras M., Villar-Garcia I.J., Viñes F., Sousa C., de la Peña O’Shea V.A., Illas F.
Journal of Physical Chemistry C,
2019
25.
Komarova N.S., Konev D.V., Kotkin A.S., Kochergin V.K., Manzhos R.A., Krivenko A.G.
Mendeleev Communications,
2020
26.
Lazar P., Mach R., Otyepka M.
Journal of Physical Chemistry C,
2019
27.
Mellouki A., Georges R., Herman M., Snavely D.L., Leytner S.
Chemical Physics,
1997
28.
Dauster I., Rice C.A., Zielke P., Suhm M.A.
Physical Chemistry Chemical Physics,
2008
29.
Hirayama T., Urban M.W.
Progress in Organic Coatings,
1992
30.
10.1016/j.mencom.2021.07.031_b0150
Sun
Microchem. J.,
2020
31.
Malard L.M., Pimenta M.A., Dresselhaus G., Dresselhaus M.S.
Physics Reports,
2009
32.
Vasiliev V.P., Kotkin A.S., Kochergin V.K., Manzhos R.A., Krivenko A.G.
Journal of Electroanalytical Chemistry,
2019
33.
Shen A., Zou Y., Wang Q., Dryfe R.A., Huang X., Dou S., Dai L., Wang S.
Angewandte Chemie - International Edition,
2014