Cavity photons screen attractive or repulsive interactions in a quantum-dot Kitaev chain, allowing the system to reach the sweet spot for poor man's Majorana bound states.
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A one-dimensional array of periodically modulated defects in scattering states produces tunable emergent topological phases with nontrivial band winding and a stable Thouless charge pump.
A vision-transformer neural network trained unsupervised on synthetic conductance data proposes Hamiltonian parameter updates that drive quantum dot chains into the topological phase with Majorana modes, often succeeding in a single step.
Analytical expressions for Majorana bound states in skyrmion-vortex pairs demonstrate that spin-orbit coupling is essential for their stabilization, with results matching numerical simulations.
citing papers explorer
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Poor man's Majorana bound states in quantum dot based Kitaev chain coupled to a photonic cavity
Cavity photons screen attractive or repulsive interactions in a quantum-dot Kitaev chain, allowing the system to reach the sweet spot for poor man's Majorana bound states.
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Emergent topological phase from a one-dimensional network of defects
A one-dimensional array of periodically modulated defects in scattering states produces tunable emergent topological phases with nontrivial band winding and a stable Thouless charge pump.
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AI-enhanced tuning of quantum dot Hamiltonians toward Majorana modes
A vision-transformer neural network trained unsupervised on synthetic conductance data proposes Hamiltonian parameter updates that drive quantum dot chains into the topological phase with Majorana modes, often succeeding in a single step.
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Majorana bound states in chiral ferromagnet-superconductor heterostructures revisited
Analytical expressions for Majorana bound states in skyrmion-vortex pairs demonstrate that spin-orbit coupling is essential for their stabilization, with results matching numerical simulations.