The physics reach of the LHC requires unprecedented luminosity and beam intensity in
proton-proton collisions. The maximum intensity in the LHC is directly coupled to the …

Abstract The Future Circular Collider (FCC-hh) is being designed as a 100 km ring that
should collide 50 TeV proton beams. At 8.3 GJ, its stored beam energy will be a factor 28 …

In response to recommendations in the 2013 update of the European Strategy for Particle
Physics, a conceptual design effort for an energy upgrade of the Large Hadron Collider …

The application of integrated simulation frameworks, which include particle tracking and
physical interactions, to heavy-ion beam collimation in existing and future hadron colliders is …

Given certain operational assumptions, estimates are made for annual total number of
protons lost in the cleaning insertions (IR3 and IR7), the arcs, and the high luminosity …

The operation of the LHC will present some challenges. It is important to anticipate how the
machine will be run and attempt to ensure that the functionality and integration that will be …

Abstract The LHC Beam Cleaning Study Group organized a CERN meeting on absorbers
and collimators for the LHC on January 25th, 2002. This meeting tried to bring together the …

Description of the collimation system baseline design including a list of beam-line elements
(type, description, quantity, physical element characteristics). Description of the …

The Large Hadron Collider (LHC) at CERN is a 7 TeV proton synchrotron, with a design
stored energy of 362 MJ per beam. The high-luminosity (HL-LHC) upgrade will increase this …

During about one month per operational year, the Large Hadron Collider (LHC) at CERN
works as a heavy-ion collider. Fully-stripped Pb-208 ions are accelerated up to 7 Z TeV and …