The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the cold antiprotons that are needed for low energy experiments. Both the largest possible number and the lowest possible temperature are desired, especially for the production and study of cold antihydrogen. The antiprotons accumulated in our particle trap have an energy 10/sup 10/ times lower than the energy of those delivered by CERN's Antiprotons Decelerator (AD). The number accumulated (more than 0.4 million in this demonstration) is linear in the number of accepted high energy antiproton pulses (32 in this demonstration). Accumulation efficiencies and losses are measured and discussed. (12 refs)
%AD-2 %title\\ \\The Antihydrogen TRAP Collaboration (ATRAP) seeks to do precise laser spectroscopy ...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
We begin by discussing the concept and field of antimatter and how quantum mechanics and relativity ...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
AbstractThe stacking of cold antiprotons is currently the only way to accumulate the large numbers o...
Progress in the quest for cold antihydrogen includes the first substantial accumulation of cold posi...
Only our ATRAP Collaboration is yet able to accumulate and store 4.2 K antiprotons and positrons. Th...
The production and study of cold antihydrogen will require the manipulation of dense and cold, singl...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
A new physical mechanism for positron accumulation is explained and demonstrated. Strongly magnetize...
Positrons are used to cool antiprotons for the first time. The oppositely charged positrons and anti...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
A theoretical underpinning of the standard model of fundamental particles and interactions is CPT in...
Low energy antiprotons and cold positrons are stored together and observed to interact for the first...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
%AD-2 %title\\ \\The Antihydrogen TRAP Collaboration (ATRAP) seeks to do precise laser spectroscopy ...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
We begin by discussing the concept and field of antimatter and how quantum mechanics and relativity ...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
AbstractThe stacking of cold antiprotons is currently the only way to accumulate the large numbers o...
Progress in the quest for cold antihydrogen includes the first substantial accumulation of cold posi...
Only our ATRAP Collaboration is yet able to accumulate and store 4.2 K antiprotons and positrons. Th...
The production and study of cold antihydrogen will require the manipulation of dense and cold, singl...
The first observations of antihydrogen (H) atoms [1, 2] in 1995 opened a new way of testing the fund...
A new physical mechanism for positron accumulation is explained and demonstrated. Strongly magnetize...
Positrons are used to cool antiprotons for the first time. The oppositely charged positrons and anti...
Recent progress of ASACUSA (Atomic Spectroscopy And Collisions Using Slow Antiprotons) project, part...
A theoretical underpinning of the standard model of fundamental particles and interactions is CPT in...
Low energy antiprotons and cold positrons are stored together and observed to interact for the first...
The development of techniques to decelerate, cool and confine antiprotons in vacuo with an electroma...
%AD-2 %title\\ \\The Antihydrogen TRAP Collaboration (ATRAP) seeks to do precise laser spectroscopy ...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
We begin by discussing the concept and field of antimatter and how quantum mechanics and relativity ...