Adiabatic cooling is shown to be a simple and effective method to cool many charged particles in a trap to very low temperatures. Up to 3 x 10(6) (p) over bar are cooled to 3.5 K-10(3) times more cold (p) over bar and a 3 times lower (p) over bar temperature than previously reported. A second cooling method cools (p) over bar plasmas via the synchrotron radiation of embedded (p) over bar (with many fewer (p) over bar than (p) over bar) in preparation for adiabatic cooling. No (p) over bar are lost during either process-a significant advantage for rare particles
We report on an experimental demonstration of electron cooling of high-energy antiprotons circulatin...
The production and study of cold antihydrogen will require the manipulation of dense and cold, singl...
Only our ATRAP Collaboration is yet able to accumulate and store 4.2 K antiprotons and positrons. Th...
Adiabatic cooling is shown to be a simple and effective method to cool many charged particles in a t...
An antiproton cloud cooled at 4.2 K in a Penning trap can be further cooled by adiabatic reduction o...
We report the application of evaporative cooling to clouds of trapped antiprotons, resulting in plas...
An ion cloud in a Penning trap can be cooled by adiabatic expansion by reducing the trap's magnetic ...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
Positrons are used to cool antiprotons for the first time. The oppositely charged positrons and anti...
We describe the implementation of evaporative cooling of charged particles in the ALPHA apparatus. F...
In order to improve the luminosity of pp colliders increased antiproton accumulation and decreased a...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
Beam cooling methods developed for the accumulation of antiprotons are being employed to assist in t...
AbstractThe stacking of cold antiprotons is currently the only way to accumulate the large numbers o...
In this work I investigated the sympathetic cooling effect of antipro- tons with a plasma of charged...
We report on an experimental demonstration of electron cooling of high-energy antiprotons circulatin...
The production and study of cold antihydrogen will require the manipulation of dense and cold, singl...
Only our ATRAP Collaboration is yet able to accumulate and store 4.2 K antiprotons and positrons. Th...
Adiabatic cooling is shown to be a simple and effective method to cool many charged particles in a t...
An antiproton cloud cooled at 4.2 K in a Penning trap can be further cooled by adiabatic reduction o...
We report the application of evaporative cooling to clouds of trapped antiprotons, resulting in plas...
An ion cloud in a Penning trap can be cooled by adiabatic expansion by reducing the trap's magnetic ...
Evaporative cooling has proven to be an invaluable technique in atomic physics, allowing for the stu...
Positrons are used to cool antiprotons for the first time. The oppositely charged positrons and anti...
We describe the implementation of evaporative cooling of charged particles in the ALPHA apparatus. F...
In order to improve the luminosity of pp colliders increased antiproton accumulation and decreased a...
The stacking of cold antiprotons is currently the only way to accumulate the large numbers of the co...
Beam cooling methods developed for the accumulation of antiprotons are being employed to assist in t...
AbstractThe stacking of cold antiprotons is currently the only way to accumulate the large numbers o...
In this work I investigated the sympathetic cooling effect of antipro- tons with a plasma of charged...
We report on an experimental demonstration of electron cooling of high-energy antiprotons circulatin...
The production and study of cold antihydrogen will require the manipulation of dense and cold, singl...
Only our ATRAP Collaboration is yet able to accumulate and store 4.2 K antiprotons and positrons. Th...