
LHCb is an experiment set up to explore what happened after the Big Bang that allowed matter to survive and build the Universe we inhabit today
Fourteen billion years ago, the Universe began with a bang. Crammed within an infinitely small space, energy coalesced to form equal quantities of matter and antimatter. But as the Universe cooled and expanded, its composition changed. Just one second after the Big Bang, antimatter had all but disappeared, leaving matter to form everything that we see around us — from the stars and galaxies, to the Earth and all life that it supports.
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LHCb Upgrade II Scoping Document
The scientific review of the LHCb Upgrade II Scoping Document has been concluded by the LHC Committee, and the CERN Research Board has endorsed their conclusions reaching in this way an important milestone towards the construction of the LHCb Upgrade II detector. A second major upgrade of the LHCb detector is necessary to allow full…
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The 2025 Breakthrough Prize in Fundamental Physics awarded to the LHCb collaboration
The LHCb collaboration has been awarded yesterday the 2025 Breakthrough Prize in Fundamental Physics, together with the three other CERN’s Large Hadron Collider collaborations: ALICE, ATLAS and CMS, “For detailed measurements of Higgs boson properties confirming the symmetry-breaking mechanism of mass generation, the discovery of new strongly interacting particles, the study of rare processes and…
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End of successful proton-proton collision data taking period
The 2024 proton-proton collision period at the LHC ended this week. This period was particularly successful for LHCb, also owing to the excellent performance of the LHC. The rate at which the experiment was able to acquire integrated luminosity was spectacularly higher than in previous years, as shown in the luminosity plots presented in this…
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Test of lepton flavour universality with Bs0 → ϕℓ+ℓ− decays
The LHCb collaboration submitted today a paper reporting new tests of lepton flavour universality, one of the cornerstone of the Standard Model (SM) of particle physics. It implies that the SM treats the three charged leptons (electrons, muons and taus) identically, except for differences due to their masses. The results were also presented at the…