M. Anderlini

TL;DR: This experiment uses an optical lattice of double-well potentials to isolate and manipulate arrays of paired 87Rb atoms, inducing controlled entangling interactions within each pair, and demonstrates the essential component of a neutral atom quantum SWAP gate (which interchanges the state of two qubits), which forms a set of universal gates for quantum computation.

TL;DR: In this paper, the authors describe the design and implementation of a two-dimensional optical lattice of double wells suitable for isolating and manipulating an array of individual pairs of atoms in a 2D lattice, where each pair of atoms can be placed in a double well with any of their four nearest neighbors.

TL;DR: In this article, the authors describe the design and implementation of a two-dimensional optical lattice of double wells suitable for isolating and manipulating an array of individual pairs of atoms in a 2D lattice, where each pair of atoms can be placed in a double well with any of their four nearest neighbors.

TL;DR: This work loads atoms into every site of an optical lattice and selectively spin flip atoms in a sublattice consisting of every other site, showing spin-dependent transport, where atomic wave packets are coherently separated into adjacent sites according to their internal state.

TL;DR: The controlled loading and measurement of number-squeezed states and Poisson states of atoms in individual sites of a double well optical lattice provides a means to detect the presence of empty lattice sites, an important and so far unmeasured factor in determining the purity of a Mott state.