Page 18 -
P. 18

1-4                                                              MEMS: Design and Fabrication


             to the explosive literature on MEMS and should provide the definitive word for the fundamentals and
             applications of microfabrication and microdevices. Glancing at each table of contents, the reader may
             rightly sense an overemphasis on the physics of microdevices. This is consistent with the strong convic-
             tion of the Editor-in-Chief that the MEMS technology is moving too fast relative to our understanding
             of the unconventional physics involved. This technology can certainly benefit from a solid foundation of
             the  underlying  fundamentals. If the  physics  is  better  understood, less  expensive, and  more  efficient,
             microdevices can be designed, built, and operated for a variety of existing and yet-to-be-dreamed appli-
             cations. Consistent with this philosophy, chapters on control theory, distributed control, and soft com-
             puting are included as the backbone of the futuristic idea of using colossal numbers of microsensors and
             microactuators  in  reactive  control  strategies  aimed  at  taming  turbulent  flows  to  achieve  substantial
             energy savings and performance improvements of vehicles and other manmade devices.
               I shall leave you now for the many wonders of the small world you are about to encounter when navi-
             gating  through  the  various  chapters  of these  volumes. May  your  voyage  to  Lilliput  be  as  exhilarating,
             enchanting, and  enlightening  as  Lemuel  Gulliver’s  travels  into “Several  Remote  Nations  of the World.”
             Hekinah degul! Jonathan Swift may not have been a good biologist and his scaling laws were not as good as
             those of William Trimmer (see Chapter 2 of MEMS: Introduction and Fundamentals),but Swift most certainly
             was a magnificent storyteller. Hnuy illa nyha majah Yahoo!


             References

             Amato, I. (1998)  “Formenting  a  Revolution, in  Miniature,” Science 282, no. 5388, 16  October,
                  pp. 402–405.
             Angell, J.B., Terry, S.C., and Barth, P.W. (1983) “Silicon Micromechanical Devices,” Faraday Transactions
                  I 68, pp. 744–748.
             Ashley, S. (1996)  “Getting  a  Microgrip  in  the  Operating  Room,” Mech. Eng. 118, September,
                  pp. 91–93.
             Bryzek, J., Peterson, K., and McCulley, W. (1994) “Micromachines on the March,”IEEE Spectrum 31, May,
                  pp. 20–31.
             Busch-Vishniac, I.J. (1998) “Trends in Electromechanical Transduction,” Phys. Today 51, July, pp. 28–34.
             Chalmers, P. (2001) “Relay Races,” Mech. Eng. 123, January, pp. 66–68.
             DeGaspari, J. (2003) “Mixing It Up,” Mech. Eng. 125, August, pp. 34–38.
             Ehrenman, G. (2004) “Shrinking the Lab Down to Size,” Mech. Eng. 126, May, pp. 26–29.
             Epstein, A.H. (2000) “The Inevitability of Small,” Aerospace Am. 38, March, pp. 30–37.
             Epstein,A.H., and Senturia, S.D. (1997) “Macro Power from Micro Machinery,”Science 276, 23 May, p. 1211.
             Epstein, A.H., Senturia, S.D., Al-Midani, O., Anathasuresh, G., Ayon, A., Breuer, K., Chen, K.-S., Ehrich,
                  F.F., Esteve, E., Frechette, L., Gauba, G., Ghodssi, R., Groshenry, C., Jacobson, S.A., Kerrebrock, J.L.,
                  Lang, J.H., Lin, C.-C., London, A., Lopata, J., Mehra, A., Mur Miranda, J.O., Nagle, S., Orr, D.J.,
                  Piekos, E., Schmidt, M.A., Shirley, G., Spearing, S.M., Tan, C.S., Tzeng, Y.-S., and Waitz, I.A. (1997)
                  “Micro-Heat Engines, Gas Turbines, and Rocket Engines — The MIT Microengine Project,” AIAA
                  Paper No. 97-1773, AIAA, Reston, Virginia.
             Feder, T. (2004) “Scholars Probe Nanotechnology’s Promise and Its Potential Problems,” Phys. Today 57,
                  June, pp. 30–33.
             Feynman, R.P. (1961)  “There’s  Plenty  of Room  at  the  Bottom,” in  Miniaturization, H.D. Gilbert,
                  ed., pp. 282–296, Reinhold Publishing, New York.
             Gabriel, K.J. (1995) “Engineering Microscopic Machines,” Sci. Am. 260, September, pp. 150–153.
             Gabriel, K.J., Jarvis, J., and Trimmer, W., eds. (1988) Small Machines, Large Opportunities: A Report on the
                  Emerging  Field  of Microdynamics, National  Science  Foundation, published  by  AT&T  Bell
                  Laboratories, Murray Hill, New Jersey.
             Gabriel, K.J., Tabata, O., Shimaoka, K., Sugiyama, S., and  Fujita, H. (1992)  “Surface-Normal
                  Electrostatic/Pneumatic Actuator,” in Proc. IEEE Micro Electro Mechanical Systems ’92, pp. 128–131,
                  4–7 February, Travemünde, Germany.



             © 2006 by Taylor & Francis Group, LLC
   13   14   15   16   17   18   19   20   21   22   23