Physicists at CERN have conducted a test run for transporting antimatter out of the lab, aiming to study antimatter in different settings to understand matter-antimatter differences.
According to the Standard Model, the universe should have equal amounts of antimatter and matter, leading to the mystery of why there is more matter today.
The Baryon-Antibaryon Symmetry Experiment at CERN focuses on measuring the magnetic moment of protons and antiprotons to explore matter-antimatter asymmetry.
To enable more precise measurements, a transportable device named BASE-STEP has been developed to carry antiprotons to better-shielded labs.
The BASE-STEP device, tested successfully with protons, aims to transport antiprotons for further experiments with enhanced precision.
The device, mounted on an aluminum frame, uses a Penning trap and superconducting magnet to trap and shield protons from collisions during transport.
The transport system is designed to withstand accelerations and slopes, enabling the safe movement of particles for experiments at other research facilities.
The team plans to transport the device to a new Penning-trap system in Germany to continue studying matter-antimatter symmetry at higher precision levels.
This advancement in transporting antimatter for experiments may provide insights into fundamental physics principles beyond the Standard Model.
The research at CERN's BASE aims to conduct the most precise matter-antimatter symmetry tests in the baryon sector by transporting particles for improved experiments.