Single atoms and molecules can be trapped in tightly focused beams of light that form
'optical tweezers', affording exquisite capabilities for the control and detection of individual …

Rydberg atoms with principal quantum number n⪢ 1 have exaggerated atomic properties
including dipole-dipole interactions that scale as n 4 and radiative lifetimes that scale as n 3 …

The realization of large-scale fully controllable quantum systems is an exciting frontier in
modern physical science. We use atom-by-atom assembly to implement a platform for the …

Large arrays of individually controlled atoms trapped in optical tweezers are a very
promising platform for quantum engineering applications. However, deterministic loading of …

We present a review of quantum computation with neutral atom qubits. After an overview of
architectural options and approaches to preparing large qubit arrays we examine Rydberg …

The problem of how complex quantum systems eventually come to rest lies at the heart of
statistical mechanics. The maximum-entropy principle describes which quantum states can …

Quantum information processing based on Rydberg atoms emerged as a promising
direction two decades ago. Recent experimental and theoretical progresses have shined …

We realize a quantum-gas microscope for fermionic K 40 atoms trapped in an optical lattice,
which allows one to probe strongly correlated fermions at the single-atom level. We combine …

Multimetallic nanoparticles are useful in many fields, yet there are no effective strategies for
synthesizing libraries of such structures, in which architectures can be explored in a …

Ultracold atoms in optical lattices provide a versatile tool with which to investigate
fundamental properties of quantum many-body systems. In particular, the high degree of …