Open Access Journal

ISSN : 2394-2320 (Online)

International Journal of Engineering Research in Computer Science and Engineering (IJERCSE)

Monthly Journal for Computer Science and Engineering

Open Access Journal

IInternational Journal of Engineering Research in Mechanical and Civil Engineering (IJERMCE)

Monthly Journal for Mechanical and Civil Engineering

ISSN : 2456-1290 (Online)

Fabrication and Optimization of MEMS based Micro Grinder

Author : TTM.Kannan 1 K.Chandrasekaran 2 R.Ramanathan 3 S.Surya 4

Date of Publication :28th December 2017

Abstract: Microfabrication technologies have been steadily advancing in recent years. Research and development are being vigorously conducted with a view towards the implementation of micromachines. Miniature of components with micro scaled features are increasing required in many industries including biomedical, Consumer electronics, automotive and defence. Mems has been identified as one of the most promising technology for 21 st Century has the potential revolutionize both industrial and consumer products. MEMS is a technology used to create tiny integrated chips that combine mechanical and electrical components. Micro grinding has a competitive edge over microfabrication processes are generally used as finishing process and generated very high surface finish. In this experimental work, fabrication of mems based micro grinding machine for the purpose of producing very high surface finish on micro-components. Dimensions of Micro grinder are 10mm x 2mm x 2mm and provide the speed of 10,000 rpm. Optimize the material removal rate of micro-grinding process parameters are selected by L9 orthogonal array using 3 levels and 2 factors. Main objectives of the MEMS-based micro grinder are saving energy, space, material, time and other resources. The sustainability of miniaturized production is discussed from three perspectives such as Economic, Environment and social.

Reference :

    1. Breguet, J.M., C. Schmitt and R. Clavel (2010) Micro/ Nano factory: Concept and State of the Art. Micro robotics and Micro assembly II, Proceedings of SPIE, 4194, 1-5.
    2. Clévy, C., A. Hubert and N. Chaillet (2008) Flexible micro-assembly system equipped with an automated tool changer. Journal of Micro - Nano Mechatronics,4, 59-72.
    3. Fruta, K. (2005) The Experimental micro factory system in Japanese national R&D project. Singapore-Japan forum on MEMS, 23 November 2000, Singapore.
    4. Heikkilä, R., E. Järvenpää and R. Tuokko (2011) Micro factories: New applications of micro machine technology for small products. Manufacture 2011 conference, October 24, 78- 84.
    5. Heikkila, R., I. Karjalainen, J. Uusitalo, A. Vuola, and R. Tuokko (2012) Possibilities of a Micro factory in the Assembly of Small Parts and Products. First Results of the M4-project, ISAM, Japan, 166-171.
    6. Heikkila, R., I. Karjalainen, J. Uusitalo, A. Vuola, and R. Tuokko (2007) Possibilities of a Micro factory in the Assembly of Small Parts and Products – First Results of the M4-project. Proceedings of the ISAM 2007, IEEE International symposium on assembly and manufacturing, Ann Arbor, Michigan, USA, 166-171.
    7.  Heikkilä, R., J. Uusitalo, R. Heikkilä and R. Tuokko (2010) A Micro factory Concept for Laser-Assisted Manufacturing of Personalized Implants. IWMF, 77-80.
    8. Hofmann, A., B. Hummel, O. Firat, G. Bretthauer, M. Bär and M. Meyer (2011) Micros FLEX - A New Concept to Address the Needs for Adaptable Meso and Micro Assembly Lines. ISAM 2011,123-127.
    9. Kawahara, N, T. suto, T. Hirano, Y. Ishikawa, itahara, N. Ooyama, & T. Ataka (2007) icrofactories: New applications of micro machine technology to manufacture of small products. Journal of Micro system Technologies, 3, 37-41.
    10. Kondoh.S., K. Masui, N. Mishima, and M. Matsumoto (2012) Total performance Analysis of Product life cycle considering product value. Proceedings of CARE INNOVATION, Austria, 2012:2.101.

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