Daniel Galviz
Postdoctoral Researcher
Yau Mathematical Science Center
Tsinghua University
Postdoctoral Researcher
Yau Mathematical Science Center
Tsinghua University
Welcome to my homepage!
I am a postdoctoral researcher in Mathematics and Mathematical Physics at Yau Mathematical Science Center (YMSC), Tsinghua University.
My primary research interests lie at the intersection of geometry, topology, and mathematical physics, with a particular focus on TQFT, Chern–Simons theory, and categorical structures in low-dimensional topology.
I am the founder and lecturer of ICTP-PWF: Physics Latam.
On this website, I provide some information about my research interests, CV, lecture notes and seminars. I hope you find it useful!
I also organize the Math & HEP Seminar series.
Advisor: Nicolai Reshetikhin.
YMSC, Tsinghua University.
🎓 Ms in Theoretical Physics, 2020
Advisor: Ulf-G. Meißner.
Institute of Physics, University of Bonn.
🎓 Bs in Physics, 2017
Advisor: Adel Khoudeir.
Faculty of Science, University of Los Andes.
Mathematics
Mathematical Physics
Quantum Topology
Quantum Field Theory
String Theory
Torus Berry Data Determine
All-Genus Abelian Topological Orders
We show that Berry data measured on a torus are enough to determine the full all-genus Abelian topological theory, including its defects. This puts a long-standing piece of folklore in Abelian topological order on rigorous footing.
Equivalence of
Toral Chern-Simons and Reshetikhin-Turaev theories
We show that toral Chern–Simons theory and its Reshetikhin–Turaev counterpart are equivalent as TQFTs. Earlier work established relations only at the level of partition functions or mapping-class-group representations; to our knowledge, this is the first explicit proof of the expected equivalence at the level of the full, nonperturbative TQFT.
Toral Chern-Simons TQFT
via Geometric Quantization in Real Polarization
We construct toral Chern–Simons theory through geometric quantization and show that it leads to a well-defined nonperturbative TQFT. This provides a rigorous mathematical foundation for describing Abelian topological order on surfaces of arbitrary genus.