Non-invasive beam profile monitor using supersonic gas jet furthers our understanding of the beam dynamics and supports new discoveries.

The completion of the High Order Corrector Magnet project was only made possible by the collaborative efforts of INFN, CERN, and industry.

With its first major equipment now in place and infrastructure nearly installed, HL-LHC’s test bed is on track to start operation in 2024.

Since its construction in 2011, HiRadMat has been a unique experimental facility for testing materials under beam impact.

The North Area, part of the Super Proton Synchrotron complex, will see a major two-phased facelift in the upcoming years

Lucio Rossi, coordinator of the HL-LHC project until July 2020, tells us about a new community-building intiative of INFN.

Two 90-mm Niobium-titanium (NbTi) double-aperture quadrupole magnets, also called MQYY in the LHC vernacular, have been developed and manufactured by the companies Elytt Energy and SigmaPhi under the QUACO project for the High-Luminosity LHC upgrades.

Uppsala University is upgrading its FREIA Laboratory, initially constructed for the ESS project, to test superconducting magnets and crab cavities for the HL-LHC

35 niobium–tin superconducting coils have been manufactured as part of a fruitful collaboration with the company General Electric. They will be used in the 11 T dipoles for the HL-LHC.

Nb-Ti, MgB2 and ReBCO: a combination of conventional and novel superconductors for the powering of the HL-LHC magnets. Demo 2 and Demo 3 demonstration systems were successfully qualified at CERN in 2020.