Entangled Electronic States in Multiple Quantum-Dot Systems

Abstract

We present an analytically solvable model of $P$ colinear, two-dimensional quantum dots, each containing two electrons. Inter-dot coupling via the electron-electron interaction gives rise to sets of entangled ground states. These ground states have crystal-like inter-plane correlations and arise discontinously with increasing magnetic field. Their ranges and stabilities are found to depend on dot size ratios, and to increase with $P$.

To appear in Physical Review B (in press). RevTeX file. Figures available from [email protected]

References in corpus (1)

• Collective Coulomb Blockade in an Array of Quantum Dots: A Mott-Hubbard Approach

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