The need for active vibration control for airborne laser systems was demonstrated during the late 1970s by the Airborne Laser Laboratory. Other possible applications include sonic fatigue alleviation, reduction of buffet induced fatigue, vibration control for embedded antennae, and active aeroelastic control. The purpose of this paper is to present an overview of active vibration control technology and its application to aircraft. Classification of classic aircraft vibration problems and currently available solutions are used to provide a framework for the study. Current solutions are classified as being either passive or active and by the methodology (modal modification or addition) used to reduce vibration. Possible applications for this technology in aircraft vibration control are presented within this framework to demonstrate the increased versatility active materials technologies provide the designer. An in- depth study of an active pylon to reduce wing/store vibration is presented as an example. Finally, perceived gaps in the existing technology base are identified and both on-going and future research plans in these areas are discussed.
[1]
Chin-Hsiung Loh,et al.
Applications of correlation and spectral analysis to earthquake data
,
1986
.
[2]
Thomas E. Alberts,et al.
Observations on the Nature of Transfer Functions for Control of Piezoelectric Laminates
,
1991
.
[3]
M. L. Drake,et al.
Aerospace Structures Technology Damping Design Guide. Volume 3. Damping Material Data
,
1985
.
[4]
F F Rudder,et al.
Sonic Fatigue Design Guide for Military Aircraft
,
1975
.
[5]
M. L. Drake,et al.
Aerospace Structures Technology Damping Design Guide. Volume 2. Design Guide
,
1985
.
[6]
Nesbitt W. Hagood,et al.
Self-sensing piezoelectric actuation - Analysis and application to controlled structures
,
1992
.