We shortly review electron cloud effects in the CERN Large Hadron Collider. In particular, we discuss recent simulations showing a significant reduction of the beam induced heat load on the cold beam screen with weak satellite bunches at 5 ns from the main proton bunches. This can be an effective solution to shorten the conditioning period required to lower the secondary electron yield of the screen surface. (13 refs)
Electron cloud effects are one of the main limitations of the performance of the LHC and its injecto...
Several indicators have pointed to the presence of an Electron Cloud (EC) in some of the CERN accele...
The LHC began operation with 50ns beams in early April, 2011. The observation of pressure rise, heat...
The heat load due to the electron cloud in the Large Hadron Collider (LHC) cold arcs is a concern fo...
In high energy accelerators operating with positively charged particles, photoemission and secondary...
The additional heat load on the LHC beam screens of the cold magnets of the LHC bending sections (th...
In 2015 and in 2016 the Large Hadron Collider has been routinely operated with 25 ns bunch spacing. ...
An adequate dose of photoelectrons, accelerated by low-intensity proton bunches and hitting the LHC ...
Operation of LHC with bunch trains at different spacings has revealed the formation of an electron c...
Operation with closely spaced bunched beams causes the build-up of an Electron Cloud (EC) in both t...
Electron cloud build-up resulting from beam-induced multipacting is one of the major limitations for...
The heat load generated by an electron cloud in the cold arcs of the Large Hadron Collider (LHC) is ...
During the beam commissioning of the Large Hadron Collider (LHC) with 150, 75, 50, and 25-ns bunch s...
Several indicators have pointed to the presence of an Electron Cloud (EC) in some of the CERN accele...
At the beginning of the 2016 run, an anomalous beam instability was systematically observed at the C...
Electron cloud effects are one of the main limitations of the performance of the LHC and its injecto...
Several indicators have pointed to the presence of an Electron Cloud (EC) in some of the CERN accele...
The LHC began operation with 50ns beams in early April, 2011. The observation of pressure rise, heat...
The heat load due to the electron cloud in the Large Hadron Collider (LHC) cold arcs is a concern fo...
In high energy accelerators operating with positively charged particles, photoemission and secondary...
The additional heat load on the LHC beam screens of the cold magnets of the LHC bending sections (th...
In 2015 and in 2016 the Large Hadron Collider has been routinely operated with 25 ns bunch spacing. ...
An adequate dose of photoelectrons, accelerated by low-intensity proton bunches and hitting the LHC ...
Operation of LHC with bunch trains at different spacings has revealed the formation of an electron c...
Operation with closely spaced bunched beams causes the build-up of an Electron Cloud (EC) in both t...
Electron cloud build-up resulting from beam-induced multipacting is one of the major limitations for...
The heat load generated by an electron cloud in the cold arcs of the Large Hadron Collider (LHC) is ...
During the beam commissioning of the Large Hadron Collider (LHC) with 150, 75, 50, and 25-ns bunch s...
Several indicators have pointed to the presence of an Electron Cloud (EC) in some of the CERN accele...
At the beginning of the 2016 run, an anomalous beam instability was systematically observed at the C...
Electron cloud effects are one of the main limitations of the performance of the LHC and its injecto...
Several indicators have pointed to the presence of an Electron Cloud (EC) in some of the CERN accele...
The LHC began operation with 50ns beams in early April, 2011. The observation of pressure rise, heat...