We present the theoretical design and experimental implementation of mirror and
beamsplitter pulses that improve the fidelity of atom interferometry and increase its tolerance …

Atom matterwave interferometry requires mirror and beam splitter pulses that are robust to
inhomogeneities in field intensity, magnetic environment, atom velocity, and Zeeman …

We present a methodology for the design of optimal Raman beam-splitter pulses suitable for
cold atom inertial sensors. The methodology, based on time-dependent perturbation theory …

We present an elegant application of matter-wave interferometry to the velocimetry of cold
atoms whereby, in analogy to Fourier transform spectroscopy, the one-dimensional velocity …

One of the major limitations of atomic gravimeters is represented by the vibration noise of the
measurement platform, which cannot be distinguished from the relevant acceleration signal …

Atom interferometric sensors can enable extremely precise measurements of inertial motion
and external fields by manipulating and interfering atomic states using pulses of laser light …

Cold-atom inertial (CAI) sensors based on light-pulse atom interferometry show much
promise for the next generation of navigation systems thanks to their low scale-factor and …

Ultracold samples of laser-cooled atoms are quantum systems over which modern atomic
physicists can exert exquisite control. Largely decoupled from their environment, they can …

We describe the creation and characterisation of a velocity tunable, spin-polarized beam of
slow metastable argon atoms. We show that the beam velocity can be determined with a …

Atom matterwave interferometry requires mirror and beamsplitter pulses that are robust to
inhomogeneities in field intensity, magnetic environment, atom velocity and Zeeman sub …