Random Tensor models: Combinatorics, Geometry, Quantum Gravity and Integrability
arXiv:1512.01472
Abstract
In this thesis manuscript we explore different facets of random tensor models. These models have been introduced to mimic the incredible successes of random matrix models in physics, mathematics and combinatorics. After giving a very short introduction to few aspects of random matrix models and recalling a physical motivation called Group Field Theory, we start exploring the world of random tensor models and its relation to geometry, quantum gravity and combinatorics. We first define these models in a natural way and discuss their geometry and combinatorics. After these first explorations we start generalizing random matrix methods to random tensors in order to describes the mathematical and physical properties of random tensor models, at least in some specific cases.
arXiv commentPhD Manuscript, 163 pages, based on several precedent results. Contains some unpublished results. Summary and Acknowledgments in French. Main body of the manuscript in English
References in corpus (11)
- All genus correlation functions for the hermitian 1-matrix model
- The Tensor Track, III
- Tensor models and embedded Riemann surfaces
- The 1/N Expansion of Tensor Models Beyond Perturbation Theory
- The Schwinger Dyson equations and the algebra of constraints of random tensor models at all orders
- Loop Vertex Expansion for Phi^2k Theory in Zero Dimension
- Strebel differentials on stable curves and Kontsevich's proof of Witten's conjecture
- An analysis of the intermediate field theory of tensor model
- Comment on `Lost in Translation: Topological Singularities in Group Field Theory'
- Some combinatorial aspects of quantum field theory
- Into the bulk: reconstructing spacetime from the c=1 matrix model