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Experimental quantum simulation of superradiant phase transition beyond no-go theorem via antisqueezing

Physics

Experimental quantum simulation of superradiant phase transition beyond no-go theorem via antisqueezing

X. Chen, Z. Wu, et al.

This groundbreaking research simulates the elusive superradiant phase transition using nuclear magnetic resonance, creating highly entangled and squeezed Schrödinger cat states of spins. Researchers Xi Chen, Ze Wu, Min Jiang, Xin-You Lü, Xinhua Peng, and Jiangfeng Du explore the potential implications for quantum theory testing and quantum metrology.

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Playback language: English
Abstract
The superradiant phase transition in thermal equilibrium, a fundamental concept bridging statistical physics and electrodynamics, has never been observed in real physical systems. This paper experimentally simulates this transition using nuclear magnetic resonance, overcoming challenges posed by a no-go theorem. Antisqueezing is introduced to recover the ground state singularity, leading to strongly entangled and squeezed Schrödinger cat states of spins, with potential applications in quantum theory testing and quantum metrology.
Publisher
Nature Communications
Published On
Nov 01, 2021
Authors
Xi Chen, Ze Wu, Min Jiang, Xin-You Lü, Xinhua Peng, Jiangfeng Du
Tags
superradiant phase transition
nuclear magnetic resonance
entanglement
squeezed states
quantum metrology
Schrödinger cat states
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