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The main purpose of this work is to propose new notions of equivalence between polynomial matrices that preserve both the finite and infinite elementary divisor structures. The approach we use is twofold: (a) the 'homogeneous polynomial matrix approach', where in place of the polynomial matrices we study their homogeneous polynomial matrix forms and use 2-D equivalence transformations in order to preserve their elementary divisor structure, and (b) the 'polynomial matrix approach', where some conditions...
We define, in an infinite-dimensional differential geometric framework, the 'infinitesimal Brunovský form' which we previously introduced in another framework and link it with equivalence via diffeomorphism to a linear system, which is the same as linearizability by 'endogenous dynamic feedback'.
The combination of model predictive control based on linear models (MPC) with feedback linearization (FL) has attracted interest for a number of years, giving rise to MPC+FL control schemes. An important advantage of such schemes is that feedback linearizable plants can be controlled with a linear predictive controller with a fixed model. Handling input constraints within such schemes is difficult since simple bound contraints on the input become state dependent because of the nonlinear transformation...
A control system is said to be finite if the Lie algebra generated by its vector fields
is finite dimensional. Sufficient conditions for such a system on a compact manifold to be
controllable are stated in terms of its Lie algebra. The proofs make use of the
equivalence theorem of [Ph. Jouan, ESAIM: COCV 16 (2010)
956–973]. and of the existence of an invariant measure on certain compact homogeneous
spaces.
A control system is said to be finite if the Lie algebra generated by its vector fields is finite dimensional. Sufficient conditions for such a system on a compact manifold to be controllable are stated in terms of its Lie algebra. The proofs make use of the equivalence theorem of [Ph. Jouan, ESAIM: COCV 16 (2010) 956–973]. and of the existence of an invariant measure on certain compact homogeneous spaces.
A control system is said to be finite if the Lie algebra generated by its vector fields
is finite dimensional. Sufficient conditions for such a system on a compact manifold to be
controllable are stated in terms of its Lie algebra. The proofs make use of the
equivalence theorem of [Ph. Jouan, ESAIM: COCV 16 (2010)
956–973]. and of the existence of an invariant measure on certain compact homogeneous
spaces.
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