The ALPHA experiment at CERN has successfully produced and trapped atoms of antihydrogen, a significant step forward in understanding the difference between matter and antimatter. This development allows for new ways of making detailed measurements of antihydrogen, which will enable scientists to compare matter and antimatter.
The ACE experiment found that antiprotons are four times more effective at terminating live cells than protons, with the potential to reduce damage to healthy tissue. Researchers plan further tests to assess the effectiveness of antiprotons for cancer therapy and ensure minimal harm to surrounding tissues.
The Enabling Grids for E-sciencE (EGEE) project maintains a global Grid infrastructure that sustains over 1 million jobs per month, with clusters of PCs executing calculations worldwide. The EGEE project involves 91 institutional partners and produces a production-quality Grid middleware distribution called gLite.
The CERN Council has adopted a European strategy for particle physics, providing for European engagement and leadership. This marks an important step for the field, as the world's particle physicists embark on a new adventure with the Large Hadron Collider project.
CERN has been awarded a high-performance computing prize at the Supercomputing 2005 conference. The recognition is due to CERN's pioneering work on the LHC Computing Grid and its collaborative efforts with industrial partners in developing grid technology.
Researchers at CERN and European universities have re-evaluated the primary reaction creating carbon in stars, modifying the rate of this process. The findings suggest that the amount of carbon produced in the first stars was twice as fast as previously thought, with implications for element production in supernovae.