Fully controllable ultracold atomic systems are creating opportunities for quantum sensing,
yet demonstrating a quantum advantage in useful applications by harnessing entanglement …

Charged microparticles confined in electrodynamic traps evolve into strongly coupled
Coulomb systems (SCCS) which are the subject of current investigation. Recent results with …

The nanomechanical resonator based on a levitated particle exhibits unique advantages in
the development of ultrasensitive electric field detectors. We demonstrate a three …

We study a bulk fermionic dipolar molecular gas in the quantum degenerate regime
confined in a two-dimensional geometry. Using two rotational states of the molecules, we …

Developing nanomechanical oscillators for ultrasensitive force detection is very useful in
exploring science. We report our achievement of ultrasensitive detection of the external force …

Improving coherence is a fundamental challenge in quantum simulation and sensing
experiments with trapped ions. Here we discuss, experimentally demonstrate, and estimate …

A theory describing the dynamics of quantum systems interacting on a classical spacetime
was recently put forward by Oppenheim et al. Quantum states may retain their coherence, at …

We propose a highly feasible technique with no experimental overhead to rapidly cool the in-
plane degrees of freedom of large two-dimensional ion crystals in Penning traps. Through …

Penning traps have been used for performing quantum simulations and sensing with
hundreds of ions and provide a promising route toward scaling up trapped ion quantum …

In quantum logic spectroscopy (QLS), one species of trapped ion is used as a sensor to
detect the state of an otherwise inaccessible ion species. This extends precision …