Ultra-cold dipolar atoms in a four-well configuration use superintegrability and population imbalance measurement to create a rotation sensor with sensitivity beyond the Heisenberg limit.
Double-target BEC atomtronic rotation sensor,
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Vortex dynamics in coupled BEC rings is governed by circulating acoustic excitations; frequency and damping are predicted by a hydrodynamic model matching BdG analysis and GPE simulations, with resonant barrier modulation enabling controlled transfer even for density-separated condensates.
In a mesoscopic ring of SU(N) fermions with a localized barrier, current and density profiles arise from the balance between single-particle processes and a high-stiffness spin-correlated state tied to N-fold flux fractionalization.
citing papers explorer
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Supersensitive rotation sensor from superintegrability
Ultra-cold dipolar atoms in a four-well configuration use superintegrability and population imbalance measurement to create a rotation sensor with sensitivity beyond the Heisenberg limit.
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Controlled acoustic-driven vortex transport in coupled superfluid rings
Vortex dynamics in coupled BEC rings is governed by circulating acoustic excitations; frequency and damping are predicted by a hydrodynamic model matching BdG analysis and GPE simulations, with resonant barrier modulation enabling controlled transfer even for density-separated condensates.
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Static impurity in a mesoscopic system of SU($N$) fermionic matter-waves
In a mesoscopic ring of SU(N) fermions with a localized barrier, current and density profiles arise from the balance between single-particle processes and a high-stiffness spin-correlated state tied to N-fold flux fractionalization.