Homogeneous Growth of Ni(OH)2 Nanoparticle on Carbon Nanotubes for High-Performance Supercapacitor Electrode Material

Fei Fei Sun; Dong Lin Zhao; Cheng Li; Xia Jun Wang; Ji Xiang Chen; Ze Wen Ding

doi:10.4028/www.scientific.net/KEM.727.732

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HomeKey Engineering MaterialsKey Engineering Materials Vol. 727Homogeneous Growth of Ni(OH)2 Nanoparticle on...

Homogeneous Growth of Ni(OH)₂ Nanoparticle on Carbon Nanotubes for High-Performance Supercapacitor Electrode Material

Abstract:

A homogeneous Ni (OH)₂/ carbon nanotubes (CNTs) nanocomposite with excellent supercapacitive performance has been synthesized via a facile chemical precipitation. The microstructure and morphology of Ni (OH)₂/CNTs nanocomposite were investigated by XRD, SEM and TEM. It presented an ideal morphology with the nanosized Ni (OH)₂ particles homogeneously growing on the CNTs. The electrochemical performance of the Ni (OH)₂/CNTs nanocomposite was test by cyclic voltammetry, galvanostatic charge−discharge and electrochemical impedance spectroscopy techniques. The synthesized Ni (OH)₂/CNTs nanocomposite shows superior electrochemical performance, including high capacitance, excellent rate capability and good cycle life. The homogeneous Ni (OH)₂/ CNTs nanocomposite exhibited a high specific capacitance of 1741 F g^-1 at a current density of 1A g^-1 and maintained a good stability after 5000 cycles at 10A g^-1`, suggesting that it can be a promising candidate for supercapacitor.

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Periodical:

Key Engineering Materials (Volume 727)

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732-737

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https://doi.org/10.4028/www.scientific.net/KEM.727.732

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Online since:

January 2017

Authors:

Fei Fei Sun*, Dong Lin Zhao, Cheng Li, Xia Jun Wang, Ji Xiang Chen, Ze Wen Ding

Keywords:

Carbon Nanotube, Faradic Redox Reaction, Nickel Hydroxide, Supercapacitor

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References

[1] W. Li, L.P. Xin, X. Xu, Q.D. Liu, M. Zhang, S.J. Ding, M.S. Zhao and X.J. Lou: Sci. Rep, Vol. 5 (2015) p.9277–9282.

Google Scholar

[2] L.L. Zhang and X.S. Zhao: Chem. Soc. Rev, Vol. 38 (2009) No. 9, p.2520–2531.

Google Scholar

[3] X.H. Lu, M.H. Yu, G.M. Wang, Y.X. Tong and Y. Li: Energy Environ. Sci, Vol. 7 (2014) No. 7，p.2160–2181.

Google Scholar

[4] G Wang, L Zhang and J Zhang: Chemical Society Reviews, Vol. 41 (2012) No. 2, p.797–828.

Google Scholar

[5] Y.Y. Yang, Y.R. Liang, Y.D. Zhang, Z.Y. Zhang, Z.M. Li and Z.G. Hu: New. J. Chem, Vol. 39 (2015) No. 5, p.4035–4040.

Google Scholar

[6] Z. Yu and J. Thomas: Adv. Mater, Vol. 26 (2014) No. 25, p.4279–4285.

Google Scholar

[7] Y. Yang, L. Li, G.D. Ruan, H.L. Fei, C.S. Xiang, X.J. Fan and J.M. Tour: ACS Nano, Vol. 8 (2014) No. 9, p.9622–9628.

Google Scholar

[8] M S Balogun, W Qiu and W Wang: Journal of Materials Chemistry A, Vol. 3 (2015) No. 4, p.1364–1387.

Google Scholar

[9] X. Zhang, X.Z. Sun, Y. Chen, D.C. Zhang and Y.W. Ma: Mater. Lett, Vol. 68 (2012) p.336–339.

Google Scholar

[10] R.R. Salunkhe, J.J. Lin, V. Malgras, S.X. Dou, J.H. Kim and Y. Yamauchi: Nano Energy, Vol. 11 (2015) No. 59, p.211–218.

Google Scholar

[11] X.C. Li, W. Sun, L.Q. Wang, Y.D. Qi, T.M. Guo, X.H. Zhao and X.B. Yan: RSC Adv. Vol. 11 (2015) No. 5, p.7976–7985.

Google Scholar

[12] J. Yan, T. Wei, B. Shao, F.Q. Ma, Z.J. Fan, M.L. Zhang, C. Zhang, Y.C. Shang, W.Z. Qian and F. Wei: Carbon Vol. 48 (2010) No. 6, p.1731.

Google Scholar

[13] M.S. Wu and H.H. Hsieh: Electro chim. Acta, Vol. 53 (2008) No. 8, p.3427–3435.

Google Scholar

[14] B. Zhao, J.S. Song, P. Liu, W.W. Xu, T. Fang, Z. Jiao, H.J. Zhang and Y. Jiang: J. Mater. Chem, Vol. 21 (2011) No. 46, p.18792–18798.

Google Scholar

[15] J.T. Zhang, S. Liu, G.L. Pan, G.R. Li and X.P. Gao: J. Mater. Chem, A, Vol. 2 (2014) No. 5, p.1524–1529.

Google Scholar