The Quantum Geometer's Universe: Particles, Interactions and Topology

TL;DR

This paper reviews the foundational principles of quantum mechanics and relativity, emphasizing the interplay between quantum particle interactions and classical geometry and topology to guide future quantum geometry research.

Contribution

It provides an overview of current conceptual frameworks and highlights the relationship between quantum physics and classical geometric/topological structures.

Findings

Illustrates the connection between quantum interactions and classical geometry

Highlights the role of topology in quantum physics

Serves as an educational guide for future quantum geometers

Abstract

With the two most profound conceptual revolutions of XXth century physics, quantum mechanics and relativity, which have culminated into relativistic spacetime geometry and quantum gauge field theory as the principles for gravity and the three other known fundamental interactions, the physicist of the XXIst century has inherited an unfinished symphony: the unification of the quantum and the continuum. As an invitation to tomorrow's quantum geometers who must design the new rulers by which to size up the Universe at those scales where the smallest meets the largest, these lectures review the basic principles of today's conceptual framework, and highlight by way of simple examples the interplay that presently exists between the quantum world of particle interactions and the classical world of geometry and topology.