Kähler-Ricci Flow and the Poincaré-Lelong Equation

By Lei Ni, Luen-Fai Tam. 2002

84 citations recorded by the source corpus.

has been studied extensively and important applications were given. In [N1] and [N-S-T], the Poincare-Lelong equation has been solved under more general conditions than in [M-S-Y]. The conditions in [N-S-T] are more in line with the conditions in [Sh2-4]. Since a solution of (0.1) is a potential for the Ricci tensor, it is interesting to see if one can apply (0.1) to study solutions of (0.2). In this work, on the one hand we shall study the Kahler-Ricci flows by using solutions of the Poincare-Lelong equation. On the other hand, we will also refine some of the results in [Sh3, C-Z, C-T-Z] and give new applications. The hinge between the equations (0.1) and (0.2) is that by solving (0.1) one can then construct a function u(x, t) which satisfies the time-dependent heat equation ( ∂ ∂t − ∆)u(x, t) = 0 and the time-dependent Poincare-Lelong equation √−1∂∂u = Ricg(t) simultaneously. It then can simplify the study of (0.2) quite a bit. It also suggests some of the refined

Subfields: Applied Mathematics, Astronomy and Astrophysics, Geometry and Topology

View Paper: https://www.semanticscholar.org/paper/d57f0b23b54cedbfde4a19658c29cc46c38381e1

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Applied Mathematics

  1. Brett Kotschwar
  2. Yi Li
  3. Lei Ni
  4. Luen-Fai Tam
  5. Albert Chau
  6. Chengjie Yu
  7. F. Schulze
  8. Miles Simon

In Astronomy and Astrophysics

  1. Brett Kotschwar
  2. Lei Ni
  3. Luen-Fai Tam
  4. Albert Chau
  5. Chengjie Yu
  6. Yi Li
  7. F. Schulze
  8. Miles Simon

In Geometry and Topology

  1. Yi Li
  2. Brett Kotschwar
  3. Lei Ni
  4. Luen-Fai Tam
  5. Albert Chau
  6. Chengjie Yu
  7. F. Schulze
  8. Miles Simon

Citations in the corpus