Ferapontov E. Dispersionless integrable systems in 3D and Einstein-Weyl geometry, talk at The Mini-Workshop on Integrable Equations, 17 February 2015, Independent University of Moscow (abstract): Difference between revisions

From Geometry of Differential Equations
Jump to navigation Jump to search
No edit summary
m Text replacement - "Eugene Ferapontov" to "Evgeny Ferapontov"
 
Line 1: Line 1:
{{MeetingTalk
{{MeetingTalk
| speaker = Eugene Ferapontov
| speaker = Evgeny Ferapontov
| title = Dispersionless integrable systems in 3D and Einstein-Weyl geometry (based on joint work with Boris Kruglikov)
| title = Dispersionless integrable systems in 3D and Einstein-Weyl geometry (based on joint work with Boris Kruglikov)
| abstract = For several classes of second-order dispersionless PDEs, we show that the symbols of their formal linearizations define conformal structures which must be Einstein-Weyl in 3D (or self-dual in 4D) if and only if the PDE is integrable by the method of hydrodynamic reductions.  This demonstrates that the integrability of dispersionless PDEs can be seen from the geometry of their formal linearizations.
| abstract = For several classes of second-order dispersionless PDEs, we show that the symbols of their formal linearizations define conformal structures which must be Einstein-Weyl in 3D (or self-dual in 4D) if and only if the PDE is integrable by the method of hydrodynamic reductions.  This demonstrates that the integrability of dispersionless PDEs can be seen from the geometry of their formal linearizations.

Latest revision as of 22:59, 19 March 2025

Speaker: Evgeny Ferapontov

Title: Dispersionless integrable systems in 3D and Einstein-Weyl geometry (based on joint work with Boris Kruglikov)

Abstract:
For several classes of second-order dispersionless PDEs, we show that the symbols of their formal linearizations define conformal structures which must be Einstein-Weyl in 3D (or self-dual in 4D) if and only if the PDE is integrable by the method of hydrodynamic reductions. This demonstrates that the integrability of dispersionless PDEs can be seen from the geometry of their formal linearizations.

Slides: Ferapontov E. Dispersionless integrable systems in 3D and Einstein-Weyl geometry (presentation at The Mini-Workshop on Integrable Equations, 17 February 2015, Independent University of Moscow).pdf