IMPROVING THE QUALITY OF PLASTIC PARTS OBTAINED BY 3D PRINTING

Daniela POPESCU, Florin POPIŞTER, Arnold ELES, Radu COMES

Abstract


In the present paper authors propose an approach for obtaining a better roughness in terms of plastic parts resulted from 3D printing process. The main objective involves obtaining a surface roughness of the plastic parts through combining additive manufacturing technology and conventional technology, milling. In order to validate the settle aim there was established three dials on the top of the plastic printed part, test sample, which has been machined with two different cutting tools with different diameters. Also the machining process of the three areas was performed using two different toolpaths generation parameters. The machining process was performed on a vertical milling center, Challenger 2418. After performing the establish steps was performed a roughining measurement of the initial test sample surface as well as those resulted from the milling. This step was employed using a complete roughness measuring instrument, TR-220, which allows obtaining 19 different roughness parameters.

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References


Syed Hasan Masood. Introduction to Advances in Additive Manufacturing and Tooling. Comprehensive Materials Processing. vol.10. Advances in Additive Manufacturing and Tooling 2014 Pages 1–2. ISBN: 978-0-08-096533-8

Evans J, The revolution will be printed, Plastic Engineering, Volume No.69, Issue No. 10, pp : 24-28, ISSN: 0091-9578, November 2013.

Emmino, N, How 3D printing is building our world, Electronic Products, Vol. No. 54, Issue No. 9, September 2012, pp. 13-22, ISSN: 0013-4953.

-D printing: A world full of plastics engineers- Plastic Engineering, Vol No. 70, Issue No. 3, March 2014. pp.28-29. ISSN:0091-9578

Rajkumar Velu and Sarat Singamneni. Selective laser sintering of polymer biocomposites based on polymethyl methacrylate. Journal of Materials Research / Volume 29 / Issue 17 / 2014, pp 1883-1892

Palo Alto, Shanghai, Singapore and Reading – Monday, 31 March 2014: http://www.canalys.com/newsroom/3d-printing-market-grow-us162-billion-2018#sthash.dCWKoXjL.dpuf - See more at: http://www.canalys.com/newsroom/3d-printing-market-grow-us162-billion-2018#sthash.dCWKoXjL.dpuf

B. Stephens, P. Azimi, Z. E. Orch, T. Ramos, Ultrafine particle emissions from desktop 3D printers, Atmospheric Environment volume 79, november 2013, pages.334-339. ISSN: 1352-2310


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