All the activities necessary to consolidate the LHC superconducting circuits are given, especially the consolidation of the main splices, replacement of weak cryomagnets, the consolidation of the DFBAs and the special interventions. For each of them, the baseline strategy will be presented, highlighting the reasons that led to these choices and the remaining risk level. In particular, the progress of the work of the LHC splices task force, the recommendations of the second LHC splices review (November 2011) and their analysis are reported. Finally, the work planning, the organization chart and the associated resources are detailed
The Large Hadron Collider (LHC) is systematically undergoing periods of maintenance stop (either 4-5...
In addition to the main 1232 bending dipoles and 474 focusing and defocusing quadrupoles, more than ...
The two-yearLong Shut-Down 1 (LS1), triggered by the repair of the splices in the interconnections o...
The first Large Hadron Collider (LHC) Long Shutdown (LS1) started in February 2013. It was triggered...
The first LHC long shutdown (LS1) started in February 2013. It was triggered by the need to consolid...
Following the incident in one of the main dipole circuits of the Large Hadron Collider (LHC) in Sept...
The first long shutdown (LS1) of the LHC machine at CERN started in February 2013. The main trigger ...
In 2008 a defective connection in one of the 13 kA dipole circuits of the LHC caused an electric bre...
The present paper will provide an overview of the main technical developments that have been carried...
Following the analysis of the September 2008 LHC incident, the assembly process and the quality assu...
The electrical interconnections between the LHC main magnets are made of soldered joints (splices) o...
Following the analysis of the September 2008 LHC incident, the assembly process and the quality assu...
To eliminate the risk of thermal runaways in LHC interconnections a consolidation by placing shunts ...
The Large Hadron Collider (LHC) is designed to operate at a nominal energy of 14 TeV in the center o...
The Large Hadron Collider (LHC) has been delivering data to the physics experiments since 2009. It f...
The Large Hadron Collider (LHC) is systematically undergoing periods of maintenance stop (either 4-5...
In addition to the main 1232 bending dipoles and 474 focusing and defocusing quadrupoles, more than ...
The two-yearLong Shut-Down 1 (LS1), triggered by the repair of the splices in the interconnections o...
The first Large Hadron Collider (LHC) Long Shutdown (LS1) started in February 2013. It was triggered...
The first LHC long shutdown (LS1) started in February 2013. It was triggered by the need to consolid...
Following the incident in one of the main dipole circuits of the Large Hadron Collider (LHC) in Sept...
The first long shutdown (LS1) of the LHC machine at CERN started in February 2013. The main trigger ...
In 2008 a defective connection in one of the 13 kA dipole circuits of the LHC caused an electric bre...
The present paper will provide an overview of the main technical developments that have been carried...
Following the analysis of the September 2008 LHC incident, the assembly process and the quality assu...
The electrical interconnections between the LHC main magnets are made of soldered joints (splices) o...
Following the analysis of the September 2008 LHC incident, the assembly process and the quality assu...
To eliminate the risk of thermal runaways in LHC interconnections a consolidation by placing shunts ...
The Large Hadron Collider (LHC) is designed to operate at a nominal energy of 14 TeV in the center o...
The Large Hadron Collider (LHC) has been delivering data to the physics experiments since 2009. It f...
The Large Hadron Collider (LHC) is systematically undergoing periods of maintenance stop (either 4-5...
In addition to the main 1232 bending dipoles and 474 focusing and defocusing quadrupoles, more than ...
The two-yearLong Shut-Down 1 (LS1), triggered by the repair of the splices in the interconnections o...