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Workshop - Dynamics of entanglement - the Isaac Newton Institute for Mathematical Sciences, Cambridge

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⚡ Quantum Brief
A four-day workshop in September 2026 at Cambridge’s Isaac Newton Institute will explore entanglement dynamics, focusing on unitary evolution, dissipation, and measurement in quantum systems. Registration closes June 14, 2026. Researchers will examine how many-body quantum systems thermalize—or avoid it—through entanglement growth, linking statistical behavior in isolated systems to phenomena like many-body localization. The event will assess conditions for quantum advantage in modern simulators, probing whether they outperform classical systems in modeling complex quantum dynamics. Key discussions will address protecting fragile quantum information from noise and errors, emphasizing error correction and dissipation management for practical quantum computing coherence. Abstract submissions are due June 2, 2026, with the workshop uniting theoretical and experimental advances in entanglement’s role across quantum technologies.
Workshop - Dynamics of entanglement - the Isaac Newton Institute for Mathematical Sciences, Cambridge

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Workshop - Dynamics of entanglement - the Isaac Newton Institute for Mathematical Sciences, Cambridge Dates: Tuesday, September 1, 2026 to Friday, September 4, 2026Web page: https://www.newton.ac.uk/event/mmbw01/Registration deadline: Sunday, June 14, 2026Submission deadline: Tuesday, June 2, 2026This workshop will examine recent developments in the study of entanglement and its dynamics subject to unitary evolution, dissipation and measurement, a theme which unites a disparate set of questions including: How do interacting many-body quantum systems thermalise—or fail to do so? Entanglement growth plays a key role in the emergence of statistical behaviour in isolated systems, while phenomena such as many-body localisation demonstrate robust departures from thermal equilibrium. Under what conditions do modern quantum simulators exhibit genuine quantum advantage? How can fragile quantum information be protected against noise and errors? Understanding the interplay of entanglement with noise, dissipation and active error correction is crucial for preserving coherence in practical quantum computing. Log in or register to post comments

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Source: Quantiki