Experimental Study on Solidification Behavior of Carbon Nanotube Nanofluid

Abstract:

Carbon nanotube (CNT) nanofluids, with three sizes of CNTs (L-MWNT-1030, L-MWNT-4060, L-MWNT-60100) and different mass concentration (MC) of surfactant, were prepared to investigate the effects of CNTs and surfactant on the solidification behavior of deionized water (DI water). The thermal responses of the samples were tested in a constant temperature trough. It’s found that the MC of the surfactant and the size of the CNTs influence the supercooling degree (SCD) and freezing time (FT). For the L-MWNT-1030, the CNT nanofluids had lower SCD and shorter beginning FT than the DI water. But when the MC of surfactant was 0.10 %, the finishing FT was equal to that of the DI water. For the L-MWNT-4060 and L-MWNT-60100 CNT nanofluids, the SCD and FT were comparable with those of the DI water. The unusual results imply that the mechanism of nucleation and stability of the CNT nanofluids also influence the solidification behavior.

• Periodical: Advanced Materials Research (Volumes 171-172)
• Pages: 333-336
• DOI: https://doi.org/10.4028/www.scientific.net/AMR.171-172.333
• Online since: December 2010
• Authors: Song Ping Mo, Ying Chen, Jie Ying Yang, Xiang Long Luo
• Keywords: Carbon Nanotube (CN), Nanofluid, Solidification, Surfactant, Temperature

References

[1] K. J. Baker and R. M. Rylatt. Appl. Energy vol. 85 (2008), p.475.

[2] K. L. Zhou, J. A. Ferreira and S. W. H. de Haan. Int. J. Hydrogen Energy vol. 33 (2008), p.477.

[3] S. U. S. Choi. ASME FED vol. 231/MD 66 (1995), p.99.

[4] Y. H. Wang, J. K. Lee, C. H. Lee, Y. M. Jung, S. I. Cheong, C. G. Lee, B. C. Ku and S. P. Jang. Thermochimica Acta vol. 455 (2007), p.70.

DOI: 10.1016/j.tca.2006.11.036

[5] X. Y. Liu. J. Chem. l Phys. vol. 112 (2000), p.9949.

[6] S. Okawa, A. Saito, and R. Minami. Int. J. Refrig. vol. 24 (2001), p.108.

[7] S. Berber, Y. -K. Kwon and D. Tománek. Phys. Rev. Lett. vol. 84 (2008), p.4613.

[8] M. S. Liu, M. C. C. Lin, I. T. Huang and C. C. Wang. International Communications in Heat and Mass Transfer vol. 32 (2005), p.1202.

[9] S. Jegadheeswaran and S. D. Pohekar. Renew. Sust. Energ. Revi. vol. 13 (2009), p.2225.

[10] Y. L. Ding, H. Alias, D. S. Wen and R. A. Williams. International Journal of Heat and Mass Transfer vol. 49 (2006), p.240.

[11] R. S. Ruoff and D. C. Lorents. Carbon, vol. 33(7) (1995), p.925.

[12] Z. H. Liu, X. F. Yang, G. S. Wang and G. L. Guo. International Journal of Heat and Mass Transfer vol. 53 (2010), p. (1914).

[13] J. Liu, A. G. Rinzler and H. J. Dai, et al. Science, vol. 280 (1998), p.1253.

[14] M. J. O'Connell, S. M. Bachilo and C. B. Huffman, et al. Science, vol. 297 (2002), p.593.

[15] X. F. Li, D. S. Zhu and X. J. Wang. J. Colloids Interf. Sci. vol. 310 (2) (2007), p.456.

[16] D. S. Zhu, H. Li and X. J. Wang, et al. New Chemical Materials, vol. 35(9) (2007), p.45.