Development of Three-Dimensional Printing Technology Based on Deterministic Electrochemical Deposition Method

Abstract:

Three-dimensional printing technology based on deterministic electrochemical deposition method has been developed, which is generated from the electroplating. The traditional electroplating system has been improved to ensure the printing process controllable. Through accurate control of the deposition region, deposition rate, and the dwelling time in the printing process, a three-dimensional object of almost any shape can be obtained by deterministic manufacturing process. Through addition of alcohol to the electrolyte, Marangoni effect is generated, which will improve the property of the deposited layer. The deterministic electrochemical deposition not only can decrease the cost of the printing process, but also will promote the application of the 3D printing technique in many fields.

• Periodical: Advanced Materials Research (Volume 1089)
• Pages: 319-323
• DOI: https://doi.org/10.4028/www.scientific.net/AMR.1089.319
• Online since: January 2015
• Authors: Xin Min Shen, Jian Zhao Zhou*, Qun Zhang Tu
• Keywords: Deposition Rate, Deterministic Electrochemical Deposition, Dwelling Time, Marangoni Effect, Three-Dimensional Printing

References

[1] E. Sachs, M. Cima, P. Williams, D. Brancazio, and J. Cornie: J. Manuf. Sci. Eng. Vol. 4 (1992), pp.481-488.

[2] Min Lee, James C.Y. Dunn, and Benjamin M. Wu: Biomaterials Vol. 26 (2005), pp.4281-4289.

[3] E. Sachs, M. Cima, and J. Cornie: CIRP Annals - Manufacturing Technology Vol. 39 (1990), p.201–204.

[4] A. Butscher, M. Bohner, S. Hofmann, L. Gauckler, and R. Müller: Acta Biomaterialia Vol. 7 (2011), pp.907-920.

DOI: 10.1016/j.actbio.2010.09.039

[5] W. Z. Wu, P. Geng, J. Zhao, Y. Zhang, D. W. Rosen, and H. B. Zhang: Materials Research Innovations Vol. 18 (2014), p. S12-S16.

[6] C. W Rowe, W. E Katstra, R. D Palazzolo, B Giritlioglu, P Teung, and M. J Cima: Journal of Controlled Release Vol. 66 (2000), pp.11-17.

DOI: 10.1016/s0168-3659(99)00224-2

[7] A. Butscher, M. Bohner, S. Hofmann, L. Gauckler, and R. Müller: Materials Science and Engineering A Vol. 298 (2001), p.110–119.

[8] D. Dimitrov, W. van Wijck, K. Schreve, and N. de Beer: Rapid Prototyping Journal Vol. 12 (2006), pp.42-52.

DOI: 10.1108/13552540610637264

[9] B Utela, D Storti, R Anderson, and M Ganter: Journal of Manufacturing Processes Vol. 10 (2008), p.96–104.

[10] I Zein, DW Hutmacher, KC Tan, and SH Teoh: Biomaterials Vol 23 (2002), p.1169–1185.

[11] A Simchi, F Petzoldt, and H Pohl: Journal of Materials Processing Technology Vol. 141 (2003), pp.319-328.

[12] D Cormier, O Harrysson, and H West: Rapid Prototyping Journal Vol. 10 (2004), pp.35-41.

[13] JP Healy, D Pletcher, and M Goodenough: Journal of Electroanalytical Chemistry Vol. 338 (1992), pp.155-165.

[14] L Benea, PL Bonora, A Borello, and S Martelli: Wear Vol. 249 (2001), pp.995-1003.

DOI: 10.1016/s0043-1648(01)00844-4

[15] SC Wang, and WCJ Wei: Materials Chemistry and Physics Vol. 78 (2003), pp.574-580.

[16] XM Shen, M Nagano, WQ Peng, YF Dai, and K Yamamura: Key Engineering Materials Vol. 523-524 (2012), pp.276-280.

[17] XM Shen, YF Dai, WQ Peng, M Nagano, and K Yamamura: Key Engineering Materials Vol. 516 (2012), pp.504-509.

[18] TFM Chang, T Shimizu, C Ishiyama, and M Sone: Thin Solid Films Vol. 529 (2011), pp.25-28.

[19] SK Cho, MJ Kim, and JJ Kim: Electrochemical and Solid-State Letters Vol. 14 (2011), p. D52-D56.

[20] M Xiao, M Cheng, Y Zhang, and F Shi: Small Vol. 9 (2013), pp.2509-2514.