Colloquium- Ruben Verresen (University of Chicago)- From Schrödinger's cat to emergent gauge theories in topological matter

Outside of the PRB with sun shining and students walking past.
October 8, 2024
3:45PM - 4:45PM
1080 Physics Research Building

Date Range
2024-10-08 15:45:00 2024-10-08 16:45:00 Colloquium- Ruben Verresen (University of Chicago)- From Schrödinger's cat to emergent gauge theories in topological matter Professor Ruben VerresenUniversity of ChicagoFrom Schrödinger's cat to emergent gauge theories in topological matterLocation: 1080 Physics Research BuildingFaculty Host: Yuan-Ming Lu Abstract: Topological quantum matter lies at the intersection of many-body quantum physics, quantum information theory, and even particle physics since it explains how gauge theories can spontaneously emerge. Its discovery in the 1980s has been pivotal in showing how quantum entanglement can give rise to remarkable physical properties. However, stabilizing and manipulating such topological matter has proven delicate. In this colloquium, we will explore how wavefunction collapse resulting from quantum measurements provides a new tool for realizing these states. Although I will focus on the concepts, I will also highlight recent experimental implementations in quantum processors, which in turn inspire new directions for future exploration. 1080 Physics Research Building America/New_York public

Professor Ruben Verresen

University of Chicago

From Schrödinger's cat to emergent gauge theories in topological matter

Location: 1080 Physics Research Building

Faculty Host: Yuan-Ming Lu

 

Abstract: Topological quantum matter lies at the intersection of many-body quantum physics, quantum information theory, and even particle physics since it explains how gauge theories can spontaneously emerge. Its discovery in the 1980s has been pivotal in showing how quantum entanglement can give rise to remarkable physical properties. However, stabilizing and manipulating such topological matter has proven delicate. In this colloquium, we will explore how wavefunction collapse resulting from quantum measurements provides a new tool for realizing these states. Although I will focus on the concepts, I will also highlight recent experimental implementations in quantum processors, which in turn inspire new directions for future exploration.