The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiabatically for an efficient production of cold antihydrogen atoms using a direct injection scheme. We successfully observed a high production rate of antihydrogen atoms immediately after the mixing of antiprotons
Cold antihydrogen is produced when antiprotons are repeatedly driven into collisions with cold posit...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
A low energy antiproton transport from the ASACUSA's antiproton accumulation trap (MUSASHI trap) to ...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
The atomic spectroscopy and collisions using slow antiprotons (ASACUSA) project aims at studying col...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
Here we demonstrate the production of antihydrogen atoms at very low energy by mixing trapped antip...
We report on the first production of an antihydrogen beam by charge exchange of 6.1 keV antiprotons ...
Cold antihydrogen atoms are a powerful tool to probe the validity of fundamental physics laws, and i...
Antihydrogen, a positron bound to an antiproton, is the simplest anti-atom. Its structure and proper...
ASACUSA (\underline{A}tomic \underline{S}pectroscopy \underline{A}nd \underline{C}ollisions \underli...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
Cold antihydrogen is produced when antiprotons are repeatedly driven into collisions with cold posit...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
A low energy antiproton transport from the ASACUSA's antiproton accumulation trap (MUSASHI trap) to ...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
The atomic spectroscopy and collisions using slow antiprotons (ASACUSA) project aims at studying col...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
Here we demonstrate the production of antihydrogen atoms at very low energy by mixing trapped antip...
We report on the first production of an antihydrogen beam by charge exchange of 6.1 keV antiprotons ...
Cold antihydrogen atoms are a powerful tool to probe the validity of fundamental physics laws, and i...
Antihydrogen, a positron bound to an antiproton, is the simplest anti-atom. Its structure and proper...
ASACUSA (\underline{A}tomic \underline{S}pectroscopy \underline{A}nd \underline{C}ollisions \underli...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
Cold antihydrogen is produced when antiprotons are repeatedly driven into collisions with cold posit...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...