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 Dear Colleagues,

 An infinite dimensional differential-geometric approach for nonlinear systems : Part II - System Theory

An infinite dimensional differential-geometric approach for nonlinear systems : Part I - $\RR^A$-manifolds, diffieties and Systems

By clicking on the link(s) above you can download a preliminary version of a survey on the basic aspects of the infinite dimensional differential geometric approach of Fliess et al [1,2] and Pomet [3]. Firstly, it was conceived for helping my students that were interested in this approach, trying to fill the lack of a book on this interesting subject. The paper addresses only the basic definitions, and it does not consider any synthesis problem. I will be very glad if you send me suggestions and comments. I apologize the fact that these papers has many typos and errors, and it will be very helpful if you warn me about any errors you found.

[1] Fliess, M., Levine, J., Martin, P. & Rouchon, P. (1993). Linearisation par

bouclage dynamique et transformations de Lie-Backlund, C. R. Acad. Sci.

Paris Ser. I Math. 317: pp. 981-986.

 

[2] Fliess, M., Levine, J., Martin, P. & Rouchon, P. (1999). A Lie-Backlund ap-

proach to equivalence and Fatness of nonlinear systems, IEEE Trans. Au-

tomat. Control 44(5): pp. 922-937.

 

[3] Pomet, J.-B. (1995). A differential geometric setting for dynamic equivalence

and dynamic linearization, in B. Jackubczyk, W. Respondek & T. Rzezu-

chowski (eds), Geometry in Nonlinear Control and Differential Inclusions,

Banach Center Publications, Warsaw, pp. 319-339.

 

 

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