Antihydrogen atoms with K or sub-K temperature are a powerful tool to precisely probe the
validity of fundamental physics laws and the design of highly sensitive experiments needs …

In this work, we discuss the possibility of inertial sensing with positronium in the 2 3 S
metastable state for the measurement of optical dipole, relativistic and gravitational forces on …

We characterized the pulsed Rydberg-positronium production inside the Antimatter
Experiment: Gravity, Interferometry, Spectroscopy (AE g¯ IS) apparatus in view of …

This work presents a real-time diagnostic method to monitor and characterize a positron
beam by using a microchannel plate (MCP), a phosphor screen and a CCD camera. We …

We present a hybrid imaging/timing detector for force sensitive inertial measurements
designed for measurements on positronium, the metastable bound state of an electron and a …

In this contribution, the system of the external plastic scintillator slabs of the AEgIS
experiment is presented. These slabs, surrounding the superconducting magnet and …

In this work we present a hybrid detection method providing simultaneous imaging and
timing information suitable for fully monitoring positronium (Ps) formation, its laser excitation …

The highly collaborative result of pulsed antihydrogen production in a 80 ns (FWHM) time
window [1] presents a landmark in the AEgIS experimental scheme of testing the weak …

A main scientific goal of the AEgIS experiment is the direct measurement of the Earth's local
gravitational acceleration g on antihydrogen. The Weak Equivalence Principle is a …

The primary goal of the AEgIS collaboration at CERN is to measure the gravitational
acceleration on neutral antimatter. Positronium (Ps), the bound state of an electron and a …