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Exploring the Innovational Potential of Biomimetics for Novel 3D MEMS

Journal Advanced Materials Research (Volume 74)
Volume NEMS/MEMS Technology and Devices - ICMAT2009
Edited by Selin Teo, A. Q. Liu, H. Li and B. Tarik
Pages 265-268
DOI 10.4028/www.scientific.net/AMR.74.265
Citation Ille C. Gebeshuber et al., 2009, Advanced Materials Research, 74, 265
Online since June, 2009
Authors Ille C. Gebeshuber, Herbert Stachelberger, Bahram Azizollah Ganji, Dee Chang Fu, Jumril Yunas, Burhanuddin Yeop Majlis
Keywords 3D-MEMS, Bioinspiration, Biomimetic, Click Stop Mechanism, Complexity, Diatom, Emerging Technology, Form, Hinges, Interlocking Device, Learning From Nature, Material, Multifunctional Surface, Pumps, Spring, Structure
Abstract

A novel way to describe the complexity of biological and engineering approaches depending on the number of different base materials is proposed: Either many materials are used (material dominates) or few materials (form dominates) or just one material (structure dominates). The complexity of the approach (in biology as well as in engineering) increases with decreasing number of base materials. Biomimetics, i.e., technology transfer from biology to engineering, is especially promising in MEMS development because of the material constraints in both fields. The Biomimicry Innovation Method is applied here for the first time to identify naturally nanostructured rigid functional materials, and subsequently analyse their prospect in terms of inspiring MEMS development.

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