Antihydrogen, a positron bound to an antiproton, is the simplest antiatom. Its counterpart - hydrogen - is one of the most precisely investigated and best understood systems in physics research. High-resolution comparisons of both systems provide sensitive tests of CPT symmetry, which is the most fundamental symmetry in the Standard Model of elementary particle physics. Any measured difference would point to CPT violation and thus to new physics. Here we report the development of an antihydrogen source using a cusp trap for in-flight spectroscopy. A total of 80 antihydrogen atoms are unambiguously detected 2.7 m downstream of the production region, where perturbing residual magnetic fields are small. This is a major step towards precision s...
Antihydrogen, the lightest atom consisting purely of antimatter, is an ideal laboratory to study the...
In order to test CPT symmetry between antihydrogen and its counterpart hydrogen, the ASACUSA collabo...
The goal of the ASACUSA-CUSP collaboration at the Antiproton Decelerator of CERN is to measure the g...
Antihydrogen, a positron bound to an antiproton, is the simplest antiatom. Its counterpart - hydroge...
The ground-state hyperfine splitting of antihydrogen promises one of the most sensitive tests of CPT...
The ASACUSA CUSP experiment plans a high precision spectroscopy of the ground-state hyperfine splitt...
We have been developing ground-state antihydrogen atomic beams to test CPT symmetry via in-flight hy...
ASACUSA collaboration has been making a path to realize high precision microwave spectroscopy of gro...
The goal of the ASACUSA-CUSP collaboration at the Antiproton Decelerator of CERN is to measure the g...
Antihydrogen, the lightest atom consisting purely of antimatter, is an ideal laboratory to study the...
In order to test CPT symmetry between antihydrogen and its counterpart hydrogen, the ASACUSA collabo...
The goal of the ASACUSA-CUSP collaboration at the Antiproton Decelerator of CERN is to measure the g...
Antihydrogen, a positron bound to an antiproton, is the simplest antiatom. Its counterpart - hydroge...
The ground-state hyperfine splitting of antihydrogen promises one of the most sensitive tests of CPT...
The ASACUSA CUSP experiment plans a high precision spectroscopy of the ground-state hyperfine splitt...
We have been developing ground-state antihydrogen atomic beams to test CPT symmetry via in-flight hy...
ASACUSA collaboration has been making a path to realize high precision microwave spectroscopy of gro...
The goal of the ASACUSA-CUSP collaboration at the Antiproton Decelerator of CERN is to measure the g...
Antihydrogen, the lightest atom consisting purely of antimatter, is an ideal laboratory to study the...
In order to test CPT symmetry between antihydrogen and its counterpart hydrogen, the ASACUSA collabo...
The goal of the ASACUSA-CUSP collaboration at the Antiproton Decelerator of CERN is to measure the g...