Projective Differential Geometrical Structure of the Painlevé Equations
✍ Scribed by M.V. Babich; L.A. Bordag
- Publisher
- Elsevier Science
- Year
- 1999
- Tongue
- English
- Weight
- 250 KB
- Volume
- 157
- Category
- Article
- ISSN
- 0022-0396
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✦ Synopsis
The necessary and sufficient conditions that an equation of the form y"= f (x, y, y$) can be reduced to one of the Painleve equations under a general point transformation are obtained. A procedure to check these conditions is found. The theory of invariants plays a leading role in this investigation. The reduction of all six Painleve equations to the form y"= f (x, y) is obtained. The structure of equivalence classes is investigated for all the Painleve equations. Following Cartan the space of the normal projective connection which is uniquely associated with any class of equivalent equations is considered. The specific structure of the spaces under investigation allows us to immerse them into RP 3 . Each immersion generates a triple of two-dimensional manifolds in RP 3 . The surfaces corresponding to all the Painleve equations are presented.
📜 SIMILAR VOLUMES
Third order ordinary differential equations admitting the Painleve equations PI ánd PII as first integrals are completely characterized. This is done by determining necessary and sufficient conditions for these equations to belong to the equivalence class of certain canonical equations. This charact
Linearization of the initial value problem associated with the special second Painleve equation is discussed using a different isomonodromic spectral problem than the one used in [1]. Further properties of the monodromy data [2, 3] are detected and these properties are used to reduce the problem to
## Abstract In 1991, one of the authors showed the existence of quadratic transformations between the Painlevé VI equations with local monodromy differences (1/2, __a__, __b__, ±1/2) and (__a__, __a__, __b__, __b__). In the present paper we give concise forms of these transformations. They are rela