Ricci flow on cone surfaces and a three-dimensional expanding soliton
Daniel Ramos

TL;DR
This thesis advances the understanding of Ricci flow on cone surfaces by classifying solitons, extending geometrization to singular surfaces, demonstrating singularity removal, and constructing a unique 3D expanding soliton.
Contribution
It provides the first complete classification of Ricci solitons on cone surfaces, extends Ricci flow theory to singular cases, and constructs a unique 3D expanding soliton with specific properties.
Findings
Complete classification of 2D Ricci solitons on smooth and cone surfaces
Extension of Ricci flow to geometrize cone surfaces with singularities
Existence of Ricci flow solutions that remove cone singularities
Abstract
The main objective of this thesis is the study of the evolution under the Ricci flow of surfaces with singularities of cone type. A second objective, emerged from the techniques we use, is the study of families of Ricci flow solitons in dimension 2 and 3. The Ricci flow is an evolution equation for Riemannian manifolds, introduced by R. Hamilton in 1982. It is from the achievements made by G. Perelman with this technique in 2002 when the Ricci flow has been established in a discipline itself, generating a great interest in the community. This thesis contains four original results. First result is a complete classification of solitons in smooth and cone surfaces. This classification completes the preceding results found by Hamilton, Chow and Wu and others, and we obtain explicit descriptions of all solitons in dimension 2. Second result is a Geometrization of cone surfaces by Ricci flow.…
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Taxonomy
TopicsGeometric Analysis and Curvature Flows · Geometry and complex manifolds · Advanced Differential Geometry Research
