Quantum sensing and metrology use coherent superposition states of quantum systems to
detect and measure physical effects of interest. Their sensitivity is typically limited by the …

Molecules containing short-lived, radioactive nuclei are uniquely positioned to enable a
wide range of scientific discoveries in the areas of fundamental symmetries, astrophysics …

We present a new framework to study the time variation of fundamental constants in a model-
independent way. Model independence implies more free parameters than assumed in …

Neutral quantum absorbers in optical lattices have emerged as a leading platform for
achieving clocks with exquisite spectroscopic resolution. However, the studies of these …

Recent studies of quantum field theory in FLRW spacetime suggest that the cause of the
speeding up of the universe is the running vacuum (RV), see Moreno-Pulido and Solà …

Phenomenological work in the last few years has provided significant support to the idea
that the vacuum energy density (VED) is a running quantity with the cosmological evolution …

We introduce the pCI software package for high-precision atomic structure calculations. The
standard method of calculation is based on the configuration interaction (CI) method to …

We implement coherent delocalization as a tool for improving the two primary metrics of
atomic clock performance: systematic uncertainty and instability. By decreasing atomic …

Molecules containing a lanthanide atom have sets of electronic states arising from excitation
of an inner-shell electron. These states have received little attention but are thought to play …

Quantum sensing uses properties of quantum mechanics to go beyond what is possible with
traditional measurement techniques. In particle physics, key problems in which quantum …