Configurations of invariant lines for the family of Cubic systems with homogeneous cubic part (x3, 0)
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2023-03-21 15:35
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BUJAC, Cristina. Configurations of invariant lines for the family of Cubic systems with homogeneous cubic part (x3, 0). In: Tendinţe contemporane ale dezvoltării ştiinţei: viziuni ale tinerilor cercetători, Ed. 4, 10 martie 2015, Chișinău. Chișinău, Republica Moldova: Universitatea Academiei de Ştiinţe a Moldovei, 2015, Ediția 4, T, p. 15.
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Tendinţe contemporane ale dezvoltării ştiinţei: viziuni ale tinerilor cercetători
Ediția 4, T, 2015
Conferința "Tendinţe contemporane ale dezvoltării ştiinţei: viziuni ale tinerilor cercetători"
4, Chișinău, Moldova, 10 martie 2015

Configurations of invariant lines for the family of Cubic systems with homogeneous cubic part (x3, 0)


Pag. 15-15

Bujac Cristina
 
Institutul de Matematică şi Informatică al AŞM
 
 
Disponibil în IBN: 13 februarie 2019



Teza

We consider here real planar differential cubic systems of the form (x,y),(x,y)xPyQ==&& (1), where P, Q ϵ R[x, y] are real polynomials with cubic homogenities mentioned in the title. In [1] the classification of cubic systems with maximum number of invariant straight lines (i.e. 9) was done, whereas cubic systems with 8 invariant lines possessing either four or three distinct infinite singularities were studied in [2] and [3]. Our main goal is to classify the family of cubic systems with homogeneous cubic part (x3, 0), possessing 8 invariant straight lines including the line at infinity, all the lines considered with their multiplicities. This family possesses two distinct infinite singularities. As a result we proved a classification theorem (Main Theorem) of such systems depending on their geometric proprieties. Moreover, applying the algebraic method of invariants, developed by Sibirskii and his disciples, we constructed the necessary and sufficient conditions for the realization of each one of the possible 16 configurations of invariant straight lines.