Quantum-clock interferometry has been suggested as a quantum probe to test the
universality of free fall and the universality of gravitational redshift. In typical experimental …

A physical artificial complex-valued neuron is formed by four-wave mixing in a
homogeneous three-dimensional Bose-Einstein condensate. Bragg beam-splitter pulses …

We present a detailed study of the effects of imperfect atom-optical manipulation in Bragg-
based light-pulse atom interferometers. Off-resonant higher-order diffraction leads to …

Atom interferometers are versatile instruments offering great accuracy and stability, suitable
for fundamental science and practical applications. In usual setups, the sensitivity of the …

Technical optics with matter waves requires a universal description of three-dimensional
traps, lenses, and complex matter-wave fields. In analogy to the two-dimensional Zernike …

We propose and numerically benchmark light-pulse atom interferometry with ultra-cold
quantum gases as a platform to test the modulo-square hypothesis of Born's rule. Our …

Atomic diffraction is the central concept of matter-wave interferometers, which provide the
opportunity of high-precision rotation and acceleration sensing. Ultracold atoms are the …

Atom interferometers are versatile quantum sensors that enable a wide range of high-
precision and high-accuracy measurements ranging from fundamental physics to real-world …

Cold atomic gases are the ultimate quantum sensors. Embedded in a matter-wave
interferometer, they provide a platform for high-precision sensing of accelerations and …

In recent years, machine learning techniques have found countless applications in industry,
research, as well as everyday life. The realization of such systems relies heavily on the ever …