IUTAMUniversità degli Studi di Roma ''La Sapienza''
 
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SCOPE OF THE SYMPOSIUM
   
The interest of the mechanics community towards nonlinear/chaotic dynamics of engineering systems has exploded in the last decade. Successful IUTAM Symposia (London, 1993; Eindhoven, 1996; Cornell, 1997) gave first evidence (i) of the need to complement analytical/computational treatments with geometrical approaches and experimental analyses; (ii) of the limitations inherent to the archetypal single/two-degree-of-freedom systems from the point of view of technical applications characterized by rather high-dimensionality; (iii) of the interaction between dynamics and control.
   
It is clear how difficult and involved the passage from simple models to actual engineering systems can be. Nevertheless, there is need to explore practical applications of nonlinear and chaotic dynamics, and to draw the technical world's attention to the potential of these new phenomena and to their implications in design and operating conditions of advanced engineering systems. This implies considering more realistic models, obtaining meaningful hints from experimental investigations, developing/generalizing techniques for nonlinear analyses, exploring complex behaviours, and analyzing needs and features for control of the observed dynamics.
   
This IUTAM symposium is aimed at bringing together specialists in the field to check the advancement of research within the above mentioned perspective. Issues which are likely to receive particular attention are, among others: (i) modelling of infinite-dimensional and multi-body systems, as well as of engineering processes; (ii) strategies for dimension estimates of system dynamics and for reduced-order models; (iii) nonlinear and chaotic behaviour of various engineering systems and processes; (iv) strategies for prediction, and for active/intelligent control of nonlinear vibrations and chaos.
   
Subject areas would include, but are not limited to:
- Nonlinear continuous and high-dimensional systems
- Numerical and geometrical methods in chaotic dynamics
- Qualitative and quantitative analysis of chaotic dynamics
- Stability and bifurcation analyses
- Phenomena and criteria for spatio-temporal chaotic oscillations
- Interaction between chaotic and stochastic phenomena
- Control of oscillations and chaos
- Experimental investigations of chaotic dynamics
- Applications in engineering mechanics
- Interaction problems