A low energy antiproton transport from the ASACUSA's antiproton accumulation trap (MUSASHI trap) to the antihydrogen production trap (double cusp trap) is developed. The longitudinal antiproton energy spread after the transport line is 0.23±0.02 eV, compared with 15 eV with a previous method used in 2012. This reduction is achieved by an adiabatic transport beamline with several pulse-driven coaxial coils. Antihydrogen atoms are synthesized by directly injecting the antiprotons into a positron plasma, resulting in the higher production rate.ISSN:1748-022
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
A low energy antiproton transport from the ASACUSA's antiproton accumulation trap (MUSASHI trap) to ...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
Recently, the production of low energy anti-hydrogen atoms in the cusp trap with the use of 150eV an...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
The ALPHA experiment produces antihydrogen atoms by slowly merging cold plasmas of positrons and ant...
The ALPHA Collaboration, based at the CERN Antiproton Decelerator, has recently implemented a novel ...
The ASACUSA CUSP experiment plans a high precision spectroscopy of the ground-state hyperfine splitt...
The aim of the ASACUSA-CUSP experiment at CERN is to produce a cold, polarised antihydrogen beam and...
We report on the first production of an antihydrogen beam by charge exchange of 6.1 keV antiprotons ...
We report the progress of the $\bar{\text{H}}$ beam production experiment and recent developments of...
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
A low energy antiproton transport from the ASACUSA's antiproton accumulation trap (MUSASHI trap) to ...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
The ASACUSA collaboration is developing methods to extract and transport antiprotons at 20 eV adiaba...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
Recently, the production of low energy anti-hydrogen atoms in the cusp trap with the use of 150eV an...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
The ALPHA experiment produces antihydrogen atoms by slowly merging cold plasmas of positrons and ant...
The ALPHA Collaboration, based at the CERN Antiproton Decelerator, has recently implemented a novel ...
The ASACUSA CUSP experiment plans a high precision spectroscopy of the ground-state hyperfine splitt...
The aim of the ASACUSA-CUSP experiment at CERN is to produce a cold, polarised antihydrogen beam and...
We report on the first production of an antihydrogen beam by charge exchange of 6.1 keV antiprotons ...
We report the progress of the $\bar{\text{H}}$ beam production experiment and recent developments of...
The Trap group of ASACUSA collaboration has decelerated and confined millions of cooled antiprotons ...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...