Entanglement in quantum materials

来源:中国科学院量子信息与量子科技创新研究院发布时间:2025-11-18

报告题目Entanglement in quantum materials
报告人Silke Paschen 教授
报告人单位Institute of Solid State Physics, Vienna University of Technology (TU Wien), Austria
报告时间2025-11-21 (周五) 10:00
报告地点中科大上海研究院1号楼3楼报告厅(HFNL科研楼南楼A712、科大物质楼B1102同步视频)
主办单位中国科学院量子信息与量子科技创新研究院
报告介绍

报告摘要:Entanglement is one of the most striking – and potentially most useful – phenomena in quantum physics. Over the past century, we’ve witnessed remarkable progress: from the discovery of the quantum nature of matter to the precise control and utilization of quantum states across a variety of platforms, with entanglement playing a pivotal role. Curiously, however, these advances have largely stalled at the doorstep of quantum materials – systems governed by the intricate interplay of multiple quantum degrees of freedom, and likely shaped in essential ways by their entanglement structure. In this talk, I will discuss recent developments in this field, focusing on the enigmatic “strange metal” state, which is uniquely suited to make progress.
报告人简介:Silke Paschen is an experimental condensed matter physicist working on strongly correlated electron systems. After her graduation at the Graz University of Technology, her PhD at EPFL Lausanne and research stays at ETH Zurich, the Max Planck Institute for Chemical Physics of Solids in Dresden and Nagoya University, she was appointed full professor of physics at the Vienna University of Technology, with a dual appointment with Rice University since 2017. She is an APS Fellow and recipient of two ERC Advanced Grants. Her research portfolio includes quantum criticality, strange metal behavior, and correlation-driven topological phases, with focus on heavy fermion compounds and related quantum materials. Her team uses a wide spectrum of experimental techniques, from materials synthesis to advanced physical property measurements under multiple extreme conditions. An emerging theme is the use of novel quantum information-inspired tools to probe the peculiar quantum nature in such materials.

 

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