This study path begins with the foundational concepts of geometric analysis and low-dimensional topology, establishing the tools for understanding the structure of manifolds. It then progresses to advanced topics in algebraic topology, algebraic geometry, and arithmetic geometry, exploring deep conjectures and modern research frontiers.

This lecture provides a foundational understanding of Ricci flow, a crucial tool in geometric analysis for deforming metrics on manifolds, setting the stage for subsequent topological and geometric investigations.
Building on the Ricci flow, this lecture delves into the profound implications of Perelman's work on 3-manifolds, connecting geometric analysis to the classification and rigidity of low-dimensional topological spaces.
This lecture transitions to algebraic topology, surveying Dennis Sullivan's contributions to understanding manifolds through homotopy theory, thereby expanding the toolkit for studying topological invariants.
This lecture introduces the Hodge Conjecture, a central problem at the intersection of algebraic geometry and complex analysis, building on the geometric and topological foundations to explore deeper algebraic structures.
This lecture advances into p-adic Hodge theory, extending the concepts of Hodge theory to arithmetic geometry and exploring the relationship between étale cohomology and differential forms over p-adic fields.
This final lecture explores the integral Hodge conjecture for abelian varieties, demonstrating its falsity in certain cases and showcasing cutting-edge research at the frontier of algebraic geometry and number theory.