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http://dx.doi.org/10.7316/KHNES.2017.28.6.610

Understanding the Effect on Hydrogen Evolution Reaction in Alkaline Medium of Thickness of Physical Vapor Deposited Al-Ni Electrodes  

HAN, WON-BI (Hydrogen Laboratory, Korea Institute of Energy Research)
CHO, HYUN-SEOK (Hydrogen Laboratory, Korea Institute of Energy Research)
CHO, WON-CHUL (Hydrogen Laboratory, Korea Institute of Energy Research)
KIM, CHANG-HEE (Hydrogen Laboratory, Korea Institute of Energy Research)
Publication Information
Transactions of the Korean hydrogen and new energy society / v.28, no.6, 2017 , pp. 610-617 More about this Journal
Abstract
This paper presents a study of the effect of thickness of porous Al-Ni electrodes, on the Hydrogen Evolution Reaction (HER) in alkaline media. As varying deposition time at 300 W DC sputtering power, the thickness of the Al-Ni electrodes was controlled from 1 to $20{\mu}m$. The heat treatment was carried out in $610^{\circ}C$, followed by selective leaching of the Al-rich phase. XRD studies confirmed the presence of $Al_3Ni_2$ intermetallic compounds after the heat treatment, indicating the diffusion of Ni from the Ni-rich phase to Al-rich phase. The porous structure of the Al-Ni electrodes after the selective leaching of Al was also confirmed in SEM-EDS analysis. The double layer capacitance ($C_{dl}$) and roughness factor ($R_f$) of the electrodes were increased for the thicker Al-Ni electrodes. As opposed to the general results in above, there were no further improvements of the HER activity in the case of the electrode thickness above $10{\mu}m$. This result may indicate that the $R_f$ is not the primary factor for the HER activity in alkaline media.
Keywords
Alkaline water electrolysis; HER; Physical vapor deposition; Al-Ni electrode; Deposition thickness;
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1 N. Guilet and P. Millet, "Hydrogen production: by Electrolysis, 1st edition", Wiley-VCH, Germany, 2015, p. 117.
2 H. Ibrahim, A. Ilinca, and J. Perron, "Energy storage systems-Characteristics and comparisons", Renewable Sustainable Energy Rev., Vol. 12, 2008, pp. 1221-1250.   DOI
3 G. Schiller, R. Henne, and V. Borck, "Vacuum plasma spraying of high-performance electrodes for alkaline water electrolysis", J. Therm. Spray Technol., Vol. 4, 1995, pp. 185-194.   DOI
4 K. Zeng and D. Zhang, "Recent progress in alkaline water electrolysis for hydrogen production and applications", Prog. Energy Combust. Sci., Vol. 36, 2010, pp. 307-326.   DOI
5 R. B. Rebak, "Nickel alloys for corrosive environments", Adv. Mater. Processes, Vol. 157, 2000, pp. 37-42.
6 M. F. Kibria, M. S. Mridha, and A. H. Khan, "Electrochemical studies of a nickel electrode for the hydrogen evolution reaction", Int. J. Hydrog. Energy, Vol. 20, 1995, pp. 435-440.   DOI
7 A. R. T. Morrison, L. Juillac, S. Guyomart, and R. Wuthrich, "Optimization of the nickel square wave treatment to produce highly active bifunctional alkaline hydrogen evolution catalysts", J. Electrochem. Soc., Vol. 163, 2016, pp. F3146-F3152.   DOI
8 H. Wendt and G. Kreysa, "Electrochemical engineering: science and technology in chemical and other industries", Springer, Germany, 1999.
9 K. Subramanian, V. Arumugam, K. Asokan, P. Subbiah, and S. Krishnamurthy, "Plasma sprayed raney nickel coatings for hydrogen evolution reactions in alkaline solutions", Bull. Electrochem., Vol. 7, 1991, pp. 271-273.
10 D. Chade, L. Berlouis, D. Infield, A. Cruden, P. T. Nielsen, and T. Mathiesen, "Evaluation of Raney nickel electrodes prepared by atmospheric plasma spraying for alkaline water electrolyser", Int. J. Hydrog. Energy, Vol. 38, 2013, pp. 14380-14390.   DOI
11 R. H. Jones and G. J. Thomas, "Materials for the Hydrogen Economy, 1st edition", CRC Press, USA, 2007.
12 C. C. Wu and F. B Wu, "Microstructure and mechanical properties of magnetron co-sputtered Ni-Al coatings", Surf. Coat. Technol., Vol. 204, 2009, pp. 854-859.   DOI
13 C. Kjartansdottir, M. Caspersen, S, Egelund, and P. Moller, "Electrochemical investigation of surface area effects on PVD Al-Ni as electrocatalyst for alkaline water electrolysis", Electrochim. Acta, Vol. 142, 2014, pp. 324-335.   DOI
14 C. K. Kjartansdottir, L. P. Nielsen, and P. Moller, "Development of durable and efficient electrodes for large-scale alkaline water electrolysis", Int. J. Hydrog. Energy, Vol. 38, 2013, pp. 8221-8231.   DOI
15 D. M. Mattox, "Handbook of physical vapor deposition (PVD) processing, 2nd edition", Willian andrew, UK, 2010.
16 Y. Wu, L. Wang, M. Chen, Z. Jin, W. Zhang, and R. Cao, "Preparation of cobalt-based electrodes by physical vapor deposition on various nonconductive substrates for electrocatalytic water oxidation", ChemSusChem, Vol. 10, 2017, pp. 4699-4703.   DOI
17 S. Swann, "Magnetron sputtering", Phys. Technol., Vol. 19, 1988, pp. 67-75.   DOI
18 M. Jansssen and G. Rieck, "Reaction diffusion and kirkendal-effect in nickel aluminium system", Trans. Metall. AIME, Vol. 239, 1967, pp. 1372-1385.
19 L. A. Stern and X. Hu, "Enhanced oxygen evolution activity by NiOx and Ni(OH)2 nanoparticles", Faraday Discuss., Vol. 176, 2014, pp. 363-379.   DOI
20 W. J. Jang, H. M. Kim, J. O. Shim, S. Y. Yoo, K. W. Jeon, H. S. Na, Y. L. Lee, D. W. Lee, H.-S. Roh, and W. L. Yoon, "Deactivation of SiO2 supported Ni catalysts by structural change in the direct internal reforming reaction of molten carbonate fuel cell", Catal. Commun., Vol. 101, 2017, pp. 44-47.   DOI
21 L. S. Castleman and L. L. Seigle, "Layer growth during interdiffusion in aluminum-nickel alloy system", Trans. Metall. AIME, Vol. 212, 1958, pp. 589-596.