The proton magnetic moment in nuclear magnetons is measured to be $\mu_p/\mu_N \equiv g/2 = 2.792\,846 \pm 0.000\,007$, a 2.5 ppm (parts per million) uncertainty. The direct determination, using a single proton in a Penning trap, demonstrates the first method that should work as well with an antiproton as with a proton. This opens the way to measuring the antiproton magnetic moment (whose uncertainty has essentially not been reduced for 20 years) at least $10^3$ times more precisely
Previous measurements with a single trapped proton or antiproton detected spin resonance from the in...
This thesis describes high precision measurements on the fundamental properties of the antiproton, n...
The Baryon Antibaryon Symmetry Experiment (BASE-CERN) at CERN’s antiproton decelerator facility is a...
One of the fundamental properties of the proton is its magnetic moment, µp. So far µp has been measu...
The antiproton $(\bar{p})$ magnetic moment $\mu \bar{p} = \mu_{\bar{p}} S/(\bar{h}/2)$ is proportion...
Precise knowledge of the fundamental properties of the proton is essential for our understanding of ...
Recent exciting progress in the preparation and manipulation of the motional quantum states of a sin...
A comparison of the magnetic moments of the proton and the antiproton provides a sensitive test of m...
Precise knowledge of the fundamental properties of the proton is essential for our understanding of ...
The BASE collaboration performed the most precise measurement of the proton magnetic moment. By appl...
The BASE collaboration performed the most precise measurement of the proton magnetic moment. By appl...
The recent observation of single spins flips with a single proton in a Penning trap opens the way to...
Precise comparisons of the fundamental properties of matter-antimatter conjugates provide sensitive ...
Our current understanding of the Universe comes, among others, from particle physics and cosmology. ...
The spin magnetic moment of a single proton in a cryogenic Penning trap was coupled to the particle’...
Previous measurements with a single trapped proton or antiproton detected spin resonance from the in...
This thesis describes high precision measurements on the fundamental properties of the antiproton, n...
The Baryon Antibaryon Symmetry Experiment (BASE-CERN) at CERN’s antiproton decelerator facility is a...
One of the fundamental properties of the proton is its magnetic moment, µp. So far µp has been measu...
The antiproton $(\bar{p})$ magnetic moment $\mu \bar{p} = \mu_{\bar{p}} S/(\bar{h}/2)$ is proportion...
Precise knowledge of the fundamental properties of the proton is essential for our understanding of ...
Recent exciting progress in the preparation and manipulation of the motional quantum states of a sin...
A comparison of the magnetic moments of the proton and the antiproton provides a sensitive test of m...
Precise knowledge of the fundamental properties of the proton is essential for our understanding of ...
The BASE collaboration performed the most precise measurement of the proton magnetic moment. By appl...
The BASE collaboration performed the most precise measurement of the proton magnetic moment. By appl...
The recent observation of single spins flips with a single proton in a Penning trap opens the way to...
Precise comparisons of the fundamental properties of matter-antimatter conjugates provide sensitive ...
Our current understanding of the Universe comes, among others, from particle physics and cosmology. ...
The spin magnetic moment of a single proton in a cryogenic Penning trap was coupled to the particle’...
Previous measurements with a single trapped proton or antiproton detected spin resonance from the in...
This thesis describes high precision measurements on the fundamental properties of the antiproton, n...
The Baryon Antibaryon Symmetry Experiment (BASE-CERN) at CERN’s antiproton decelerator facility is a...