Hostname: page-component-586b7cd67f-gb8f7 Total loading time: 0 Render date: 2024-11-28T22:40:26.819Z Has data issue: false hasContentIssue false
  • English
  • Français

Smart Systems for Enhanced Integrity of Existing and Future Structures

Published online by Cambridge University Press:  01 February 2011

Christian Boller
Christian Boller*
Affiliation:
[email protected], The University of Sheffield, Mechanical Engineering, Mappin Str, Sheffield, South Yorkshire, S1 3JD, United Kingdom, 44(0)1142227828, 44(0)1142227836
Get access

Abstract

Ageing is a general problem also applicable in engineering. Many of our engineering struc-tures are seemingly built ageless. Others were built with higher safety factors to cope with the lack of engineering knowledge at the time, where enhanced knowledge nowadays allows these structures to be used longer than initially anticipated. Consequently new design principles may allow future structures to be further built lighter weight. Much of this enhancement can result from the implementation of smart systems technologies into design. This paper will give a few examples based on integrated sensing as well as actuation principles into structures.

Keywords

structuralsensorpiezoelectric
Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 888: Symposium V – Materials and Devices for Smart Systems II , 2005 , 0888-V02-05
Copyright
Copyright © Materials Research Society 2006

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

REFERENCES

1. Proceedings of the Internat. Workshop on Structural Health Monitoring; DESTech Publ., (1997, 1999, 2001, 2003, 2005); ed. Chang, F.-K. and Güemes, A. Google Scholar
2. Proceedings of the European Workshop on Structural Health Monitoring, DESTech Publ.; ed. (2002) Balageas, D., ed. (2004) Boller, C. and Staszewski, W.J. Google Scholar
3. Staszewski, W.J., Boller, C. and Tomlinson, G.R. (Ed.s), Health Monitoring of Aerospace Structures; John Wiley & Sons (2003)Google Scholar
4. Seidenschwarz, W., Esser, J., Niemand, S. and Rauch, M., Target Costing: Auf dem Weg zum marktorientierten Unternehmen, in: Franz, K.-P. (Ed.); “Kostenmanagement” (1996) (in German)Google Scholar
5. www.ncode.com Google Scholar
6. Schmidt, H.-J. and Schmidt-Brandecker, B., “Structure Design and Maintenance Benefits from Health Monitoring Systems”; Structural Health Monitoring; ed. Chang, F.-K., CRC Press, pp. 80 – 101 (2001)Google Scholar
7. Betz, D.; “Acousto-ultrasonic sensing using fibre Bragg gratings”, PhD-thesis, Department of Mechanical Engineering, Sheffield University, UK (2004)Google Scholar
8. McDonald, S. and Davis, C., “Strain Survey of an F/A-18 Stabilator Spindle Using High Density Bragg Grating Arrays”; Proc. of 2nd Australasian Workshop on Structural Health Monitoring, Monash Univ., 16/17 December 2004 Google Scholar
9. Varadan, V.K., Vinoy, K. J., Jose, K. A., “RF MEMS and Their Applications”; John Wiley & Sons, (2002)Google Scholar
10. Wang, S. and Chung, D.D.L., “Self-monitoring of strain in silicon carbide whisker reinforced silicon nitride”; Smart Mater. Struct., 6, pp. 199 – 203 (1997)Google Scholar
11. www.acellent.com Google Scholar
12. Iijima, T., Kunii, K., “Preparation of Texture Controlled Lead Zirconate Titanate Diapragm Type Film Actuator”; Structural Health Monitoring, ed.: Chang, F.-K., CRC Press, pp. 1087 – 1093 (2001)Google Scholar
13. Egusa, S. and Iwasawa, N., “Piezoceramic paints as one approach to smart structural materials with health-monitoring capabilities”; Smart Mater. Struct., 7, pp. 438 – 445 (1998)Google Scholar
14. Washabaugh, A., Zilberstein, V., Schlicker, D., Shay, I., Grundy, D. and Goldfine, N., “Shaped-Field Eddy-Current Sensors and Arrays”, SPIE Vol. 4702, (2002), pp. 63 – 75Google Scholar
15. Lin, M., Powers, W.T., Qing, X., Kumar, A. and Beard, S.J., “Hybrid Piezoelectric/Fiber Optic SMART Layers for Structural Health Monitoring”; Structural Health Monitoring, ed.: Balageas, D., DEStech Publ. Inc., pp. 641 – 648 (2002)Google Scholar
16. Fribourg-Blanc, E., Dupont, M., Osmont, D., Cattan, E. and Rèmiens, D., “Thin Films Actuators for Structural Health Monitoring”; Structural Health Monitoring, ed.: Balageas, D., DEStech Publ. Inc., pp. 321 – 327 (2002)Google Scholar
17. Hirose, S., Korenaga, A., Usui, Y., Mano, H., Riabov, O. and Mori, K., “Fabrication of a Sensor-Integrated Bearing for Remote Maintenance”; Structural Health Monitoring, ed. Chang, F.-K., CRC Press, pp. 804 – 809 (2001)Google Scholar
18. Zeng, T., Du, W., Zhang, F., Rosidian, A., Claus, R.O., Liu, Y. and Cooper, K.L., “Fabrication of Piezoelectric Ultrathin Films for MEMS and Sensors by the Electrostatic Self-Assembly Process”; Structural Health Monitoring 2000, ed.: Chang, F.-K., Technomic Publ. Co., pp. 625 – 634 (1999)Google Scholar
19. Reneker, D.H., Mattice, W.L., Quirk, R.P. and Kim, S.J., “Macromolecular smart materials and structures”; Smart. Mater. Struct., 1, pp. 84 – 90 (1992)Google Scholar
20. Cimpoiaşu, A., van der Pers, N.M., de Keyser, Th.H., Venema, A. and Vellekoop, M.J., “Stress control of piezoelectric ZnO films on silicon substrates”; Smart Mater. Struct., 5, pp. 744 – 750 (1996)Google Scholar
21. Schulz, M.J., Kirikera, G.R., Datta, S. and Sundaresan, M.J., “Piezoceramic and Nanotube Materials for Health Monitoring”, SPIE, Vol. 4702, pp. 17 – 28 (2002)Google Scholar