Open 2D Quantum Simulator
OPEN-2QS aims to revolutionize analog quantum simulation of open 2D many-body systems to explore emergent phenomena and states of matter, enhancing understanding in various scientific fields.
Projectdetails
Introduction
OPEN-2QS aims to deliver a disruptive change in our capabilities of analog quantum simulation of open 2D many-body systems. For the first time, this will allow us to investigate quantum matter with competing coherent and dissipative processes over extremely long times—a regime that is inaccessible by current technology.
Objectives
This will open a new window for the discovery of emergent dynamical phenomena and states of matter, such as quantum glasses. As any system in Nature eventually couples to an environment, and thus is open, the research program of OPEN-2QS will deliver foundations and concepts whose relevance extends to:
- Chemistry
- Biology
- Information processing
This will also form a basis for future technological innovation.
Methodology
OPEN-2QS’ ambition to redefine the state-of-the-art of open system quantum simulation will be achieved by employing ion crystals, forming two-dimensional geometries, which host over 100 individually addressable and mutually coupled particles.
- Strong state-dependent tunable dipolar Rydberg interactions will allow for full control over the build-up of quantum correlations in 2D geometries.
- Vibrational phonon quantum degrees of freedom will enable the engineering of irreversible dissipative processes.
- The ensuing complex dissipative dynamics will be stabilized over thousands of dissipation cycles via coherence-preserving in-situ optical cooling.
Research Focus
Monitoring quantum trajectories under dissipative dynamics and unprecedented access to reservoir correlation functions will enable the investigation of:
- Collective relaxation behavior
- Exotic forms of matter
We will study the impact of quantum effects on phase transitions, explore correlated dynamics in quantum glasses, test fundamental principles of quantum thermodynamics, and advance numerical algorithms through a close theory-experiment interplay.
Team
To achieve these goals, we have gathered a world-wide unique team of pioneers in:
- Trapped ions
- Rydberg physics
- Quantum non-equilibrium theory
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 9.981.952 |
Totale projectbegroting | € 9.981.952 |
Tijdlijn
Startdatum | 1-5-2025 |
Einddatum | 30-4-2031 |
Subsidiejaar | 2025 |
Partners & Locaties
Projectpartners
- EBERHARD KARLS UNIVERSITAET TUEBINGENpenvoerder
- JOHANNES GUTENBERG-UNIVERSITAT MAINZ
- STOCKHOLMS UNIVERSITET
Land(en)
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Steering the Quantum Dynamics of Confined Molecular Materials
QUADYMM aims to revolutionize sustainable energy technologies by developing advanced simulations for nonequilibrium molecular dynamics, enhancing predictive capacity for electrochemistry and optoelectronics.
Entering the deep QuAntum Regimes of NOnequilibrium Thermodynamics
QARNOT aims to extend nonequilibrium thermodynamics into deep quantum regimes using advanced methods to enhance understanding and applications of quantum many-body dynamics and measurements.
Analog Polariton Simulators
ANAPOLIS aims to develop analog simulators using semiconductor cavity polaritons to explore complex physical systems, addressing phase fluctuations, topological properties, and quantum magnetism.
Quantum Synthetic Models for Entangled Matter Out of Equilibrium
This project aims to identify and characterize new phases of matter exclusive to NISQ devices by studying quantum circuits and cellular automata, enhancing understanding of many-body physics.
Nonequilibrium Many Body Control of Quantum Simulators
The project aims to enhance control of nonequilibrium quantum systems using AI-driven reinforcement learning to optimize manipulation techniques for many-body dynamics in advanced materials.
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