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On the global asymptotic stability problem and the Jacobian conjecture

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In this survey, we recall the formulation of the problems and give a review of some nontrivial results in the area. Let F = (F1,...,Fn] : R^n - --> R^n be a C^1 map and let F'(x) and Jac F(x) = det F'(x) denote the Jacobian matrix and the jacobian of F at a point x belongs to R^n, respectively. The Global Asymptotic Stability Problem (GASP) reads as follows: Assume that F(0] = 0 and at any point x belongs to R^n all eigenvalues of F'(x) have negative real parts. Then consider the associated system of differential equations x'j(t] = Fj(x1(t), ...,Xn(t)), j = 1,...,n. The question is whether the solution x[t] = 0 is globally asymptotically stable. If n > 2, then the answer is negative (even if F is a a polynomial automorphism), so from now on (GASP) denotes (GASP) restricted to R^2. In 1963, Olech showed that under the (GASP) assumption (i. e., Jac F[x) > 0 and Trace F'(x) = [...] < 0 for any x belong to R^2) the conclusion of (GASP) is equivalent to the injectivity of F. In 1994, Fessler, and independently Gutierrez, proved the injectivity of F and, due to the above mentioned Olech's equivalence, gave the affirmative answer to the two-dimensional (GASP). Let K denote R or C, n > 1. The Jacobian Conjecture can be formulated as follows: If F = (F1, ... ,Fn) : K^n --> K^n is a polynomial map with a constant nonzero jacobian, then F is a polynomial automorphism (i.e. there exists F^-1 and F^-1 is also a polynomial map). Although the Jacobian Conjecture is still unsolved even in the case of n = 2, it is convenient, to consider the so called Generalized Jacobian Conjecture (for short (GJC)): the Jacobian Conjecture holds for every n > 1. We give a review of some interesting conditions equivalent to the Jacobian Conjecture, including Meisters and Olech's result on the existence of a poly-flow solution of the associated Ważewski equation x'(t) = [F'(x(t))]^-1 (a). We also present, a reduction of (GJC) to the case of F of degree 3 and of special forms, then some partial results, and (JC)'s relations with other problems.
Rocznik
Strony
747--762
Opis fizyczny
Bibliogr 37 poz.
Twórcy
Bibliografia
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  • Drużkowski, L.M. (1983) An effective approach to Keller’s Jacobian Conjecture. Math. Ann. 264, 303-313.
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  • Drużkowski, L.M. (1991) The Jacobian Conjecture. Preprint no 492, Institute of Mathematics, Polish Academy of Sciences, Warsaw.
  • Drużkowski, L.M. (2001) New Reduction in the Jacobian Conjecture. Univ. Iagell. Acta Math. 39, 203-206.
  • Drużkowski, L.M. and Rusek, K. (1985) The formal inverse and the Jacobian Conjecture. Ann. Polon. Math. 46, 85-90.
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  • Fessler, R. (1995) A proof of the two dimensional Markus-Yamabe conjecture and a generalization. Ann. Polon. Math. 62, 45-75.
  • Gutierrez, C. (1995) A solution to the bidimensional Global Asymptotic Stability Conjecture. Ann. Inst. H. Poincare Anal. Non Lineare 12 (6), 627-672.
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  • Hubbers, E.-M. G.M. (1998) Nilpotent Jacobians. Ph. D. Thesis, Katholike Universteit Nijmegen, The Netherlands.
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  • Krasiński, T. and Spodzieja, S. (1991) On linear differential operators related to the n-dimensional Jacobian Conjecture. Lecture Notes in Math. 1524 (Real Algebraic Geometry, Rennes - 1991), Springer Verlag, 1992, 308-315.
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  • Meisters, G.H. (1994) Invariants of cubic similarity. In: M. Sabatini, ed., “Recent Results on the Global Asymptotic Stability Jacobian Conjecture”, Workshop held in Trento, Dept. of Mathematics, September 1993. Univ. Studi di Trento, Technical Report UTM 429.
  • Meisters, G.H. and Olech, C. (1987) A poly-flow formulation of the Jacobian Conjecture. Bull. Pol. Ac. Sci. 35, 725-731.
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  • Olech, C. (1963) On the global stability of an autonomus system on the plane. Contributions to Diff. Eq. 1, 389-400.
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  • Rusek, K. and Winiarski, T. (1984) Polynomial automorphisms of Cn. Univ. Iagell. Acta Math. 24, 143-149.
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Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-article-BAT5-0008-0012
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