A single-beam prism scheme produces stable phase-locking-free optical lattices in triangular and 10-fold quasi-crystal configurations with measured lattice constant variation below 1.14% and position drift below 1.61%.
Quantum sensing
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Crystallographic symmetry fixes strain interactions in Lambda manifolds to enable phononic holonomic gates with 0.47% erasure and 0.168% residual Z error, yielding 64% data-qubit reduction in XZZX simulations.
Noise spectroscopy of charge fluctuations in itinerant altermagnets yields symmetry-protected signatures absent in antiferromagnets, enabling experimental identification and access to d-wave or g-wave orbital character via bulk, strain, and domain-wall geometries.
A fermionic system uses reversal of current circulation at an energy degeneracy point to measure unknown hopping rates in a quantum Wheatstone bridge setup.
citing papers explorer
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A stable phase-locking-free single beam optical lattice with multiple configurations
A single-beam prism scheme produces stable phase-locking-free optical lattices in triangular and 10-fold quasi-crystal configurations with measured lattice constant variation below 1.14% and position drift below 1.61%.
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Crystallographic Symmetry Generates Phononic Holonomic Gates with Biased-Erasure Channels
Crystallographic symmetry fixes strain interactions in Lambda manifolds to enable phononic holonomic gates with 0.47% erasure and 0.168% residual Z error, yielding 64% data-qubit reduction in XZZX simulations.
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Noise spectroscopy of insulating and itinerant altermagnets
Noise spectroscopy of charge fluctuations in itinerant altermagnets yields symmetry-protected signatures absent in antiferromagnets, enabling experimental identification and access to d-wave or g-wave orbital character via bulk, strain, and domain-wall geometries.
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Modified Quantum Wheatstone Bridge based on current circulation
A fermionic system uses reversal of current circulation at an energy degeneracy point to measure unknown hopping rates in a quantum Wheatstone bridge setup.