Despite a number of improvements already applied in the course of the year, the magnet powering system of the LHC still accounts for around 50% of the premature beam dumps. This number might even further increase when moving to higher beam energies in the next years. With mitigations of radiation effects and the prospects for beam induced magnet quenches being discussed elsewhere, we aim at identifying possible mid- and long-term improvements within the various equipment systems to further reduce the number of equipment failures leading to a loss of the particle beams. Amongst others, this includes the sensitivity of equipment to external causes such as electromagnetic perturbations or perturbations on the electrical network. To conclude, t...
In the years 2009–2013 the Large Hadron Collider (LHC) has been operated with the top beam energies ...
For nominal beam parameters at 7 TeV/c, each of the two LHC proton beams has a stored energy of 350 ...
The application of superconducting materials in the field of high energy accelerator physics not onl...
After the initial plans in 2007 to run the LHC at 7 TeV, a number of unexpected events, and the exte...
In the years 2009-2013 LHC has been operated with the top beam energies of 3.5 TeV and 4 TeV instead...
Crossing the Franco-Swiss border, the Large Hadron Collider (LHC), designed to collide 7 TeV proton ...
During the LHC operation, energies up to 360 MJ will be stored in each proton beam and over 10 GJ in...
The LHC magnet system, as any other electrical machine, could suffer from electromechanical faults t...
An energy of 362 MJ is stored in each of the two LHC proton beams for nominal beam parameters. This ...
The LHC has been designed to operate at an energy of 7 TeV with a luminosity of . This requires tw...
An energy of 362 MJ is stored in each of the two LHC proton beams for nominal beam parameters. This ...
The LHC has 1572 superconducting circuits. Most of the time and resources during the Hardware Commis...
The Large Hadron Collider (LHC) has a nominal energy of 362MJ stored in each of its two counter-rota...
For nominal beam parameters at 7 TeV/c, each of the two LHC proton beams has a stored energy of 350 ...
At the end of the LHC Run1 a 48-hour quench-test campaign took place to investigate the quench level...
In the years 2009–2013 the Large Hadron Collider (LHC) has been operated with the top beam energies ...
For nominal beam parameters at 7 TeV/c, each of the two LHC proton beams has a stored energy of 350 ...
The application of superconducting materials in the field of high energy accelerator physics not onl...
After the initial plans in 2007 to run the LHC at 7 TeV, a number of unexpected events, and the exte...
In the years 2009-2013 LHC has been operated with the top beam energies of 3.5 TeV and 4 TeV instead...
Crossing the Franco-Swiss border, the Large Hadron Collider (LHC), designed to collide 7 TeV proton ...
During the LHC operation, energies up to 360 MJ will be stored in each proton beam and over 10 GJ in...
The LHC magnet system, as any other electrical machine, could suffer from electromechanical faults t...
An energy of 362 MJ is stored in each of the two LHC proton beams for nominal beam parameters. This ...
The LHC has been designed to operate at an energy of 7 TeV with a luminosity of . This requires tw...
An energy of 362 MJ is stored in each of the two LHC proton beams for nominal beam parameters. This ...
The LHC has 1572 superconducting circuits. Most of the time and resources during the Hardware Commis...
The Large Hadron Collider (LHC) has a nominal energy of 362MJ stored in each of its two counter-rota...
For nominal beam parameters at 7 TeV/c, each of the two LHC proton beams has a stored energy of 350 ...
At the end of the LHC Run1 a 48-hour quench-test campaign took place to investigate the quench level...
In the years 2009–2013 the Large Hadron Collider (LHC) has been operated with the top beam energies ...
For nominal beam parameters at 7 TeV/c, each of the two LHC proton beams has a stored energy of 350 ...
The application of superconducting materials in the field of high energy accelerator physics not onl...