The Study on the Carbon Deposition in H2-CO Mixtures

Shu Hua Geng; Wei Zhong Ding; Shu Qiang Guo; Zhan Fang; Xiong Gang Lu

doi:10.4028/www.scientific.net/AMR.239-242.445

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HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 239-242The Study on the Carbon Deposition in H2-CO...

The Study on the Carbon Deposition in H₂-CO Mixtures

Abstract:

Iron ore reduction and carbon deposition under H₂-CO mixtures were investigated by using the non-isothermal method. Iron ore in three different configurations were used in this work: pellet, coarse granularity particles and fine granularity particles. The reduced samples were characterized by using X-ray diffraction (XRD), scanning electron microscopy (SEM) and accelerated surface area and porosimetry System(ASAP 2020M+C). In pure CO, the carbon deposition increases with decreasing of the sample size. In H₂-CO mixtures, the rate of carbon deposition is accelerated dramatically. Morphologies of samples treated in different reducing ambinent were investigated. Specific surface area of the treated sample increases with higher level of carbon deposition.

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Periodical:

Advanced Materials Research (Volumes 239-242)

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445-449

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.239-242.445

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Online since:

May 2011

Authors:

Shu Hua Geng, Wei Zhong Ding, Shu Qiang Guo, Zhan Fang, Xiong Gang Lu

Keywords:

Carbon Deposition, Carbon Monoxide, Hydrogen, Iron Ore, Reduction

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References

[1] R.J. Fruehan: Metallurgical Transactions B Vol.40B(2009), p.123

Google Scholar

[2] Amit Chatterjee and Manish Raj: ironmaking and steelmaking Vol.37(2010), p.482

Google Scholar

[3] E. T. Turkdogan and J. V. Vinters: Metallurgical Transactions B Vol. 5(1974), p.11

Google Scholar

[4] R. G. Olsson and E. T. Turkdogan: Metallurgical Transactions B Vol. 5(1974), p.21

Google Scholar

[5] J.Zhang, A.Schneider and G.Inden: Corrosion Science Vol.45 (2003), p.1329

Google Scholar

[6] Jiangqiang Zhang, Andre Schneider and Gerhard Inden: Corrosion Science Vol.45 (2003), p.281

Google Scholar

[7] S.El Moujahid and A.Rist: Metallurgical Transactions B Vol. 19B (1988), p.787

Google Scholar

[8] W.K. Jozwiak, E.Kaczmarek, T.P. Maniecki, W.Ignaczak and W.Maniukiewicz: Applied Catalysis A Vol.326 (2007) p.17

DOI: 10.1016/j.apcata.2007.03.021

Google Scholar

[9] R.J. Fruehan: Metallurgical Transactions B Vol. 4(1973), p.2123

Google Scholar

[10] R.J. Fruehan: Metallurgical Transactions B Vol. 4(1973), p.2129

Google Scholar

[11] K. Mondal, H.Lorethova, E.Hippo, T.Wiltowski and S.B. Lalvani: Fuel Processing Technology Vol.86 (2004), p.33

DOI: 10.1016/j.fuproc.2003.12.009

Google Scholar

[12] Hans Jurgen Grabke, Marie Muller-Lorenz and Andre Schneider: ISIJ International Vol.41 (2001), supplement, p.S1

Google Scholar

[13] M.I. Nasr, A.A. Omar, M.M. Hessien and A.A.El-Geassy: ISIJ International Vol.36 (1996), p.171

Google Scholar

[14] D.H.St.John, S.P. Matthew and P.C. Hayes: Metallurgical Transactions B Vol.15B (1984), p.709

Google Scholar