In order to handle stored beam energies up to 360 MJ, the LHC relies on a collimation system that consists of 100 movable collimators. Compared to other accelerators, the complexity of this system is unique: more than 400 motors and about 600 interlocked position sensors must be controlled in all the machine phases in order to ensure appropriate cleaning and machine protection. In this paper, the operational experience accumulated in the two first years of LHC operation is discussed, focusing in particular on failure and availability during the LHC operation and on the impact of failures on the machine downtime
The LHC beam operation at 3.5 TeV has seen a rapid and quite worry-free increase of beam intensity. ...
A full-scale prototype of the Large Hadron Collider (LHC) collimator was installed in 2004 in the CE...
Collimation systems in particle accelerators are designed to dispose of unavoidable losses safely an...
The LHC collimation system must be available in all phases of the machine operation in order to hand...
The high luminosity performance of the LHC relies on storing, accelerating, and colliding beams with...
The main task of the LHC collimation system is to ensure safe and efficient operation, acting as fir...
The Large Hadron Collider (LHC) collimation system is designed to protect the machine against beam l...
The Large Hadron Collider (LHC) collimation system is designed to protect the machine against beam l...
The LHC collimation system has been used for beam cleaning and passive machine protection this year ...
The LHC collimation system protects passively the most sensitive machine equipment against beam loss...
The stored energy and intensity of the LHC beam exceed the damage level of the machine and the quenc...
The Large Hadron Collider extends the present stateof- the-art in stored beam energy by 2-3 orders o...
An overview of the collimation system performance during 2012 is described. The collimator " tight "...
An overview of the collimation system performance during 2012 is described. The collimator “tight” s...
For nominal beam parameters at 7 TeV/c each proton beam with a stored energy of 362 MJ threatens to ...
The LHC beam operation at 3.5 TeV has seen a rapid and quite worry-free increase of beam intensity. ...
A full-scale prototype of the Large Hadron Collider (LHC) collimator was installed in 2004 in the CE...
Collimation systems in particle accelerators are designed to dispose of unavoidable losses safely an...
The LHC collimation system must be available in all phases of the machine operation in order to hand...
The high luminosity performance of the LHC relies on storing, accelerating, and colliding beams with...
The main task of the LHC collimation system is to ensure safe and efficient operation, acting as fir...
The Large Hadron Collider (LHC) collimation system is designed to protect the machine against beam l...
The Large Hadron Collider (LHC) collimation system is designed to protect the machine against beam l...
The LHC collimation system has been used for beam cleaning and passive machine protection this year ...
The LHC collimation system protects passively the most sensitive machine equipment against beam loss...
The stored energy and intensity of the LHC beam exceed the damage level of the machine and the quenc...
The Large Hadron Collider extends the present stateof- the-art in stored beam energy by 2-3 orders o...
An overview of the collimation system performance during 2012 is described. The collimator " tight "...
An overview of the collimation system performance during 2012 is described. The collimator “tight” s...
For nominal beam parameters at 7 TeV/c each proton beam with a stored energy of 362 MJ threatens to ...
The LHC beam operation at 3.5 TeV has seen a rapid and quite worry-free increase of beam intensity. ...
A full-scale prototype of the Large Hadron Collider (LHC) collimator was installed in 2004 in the CE...
Collimation systems in particle accelerators are designed to dispose of unavoidable losses safely an...