First results at 13 TeV and more from Run 1
The highlight of EPS-HEP 2015 for the CMS collaboration was the publication of the first physics result exploring the new territory at the LHC energy of 13 TeV: the measurement of the charged-hadron ...
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The highlight of EPS-HEP 2015 for the CMS collaboration was the publication of the first physics result exploring the new territory at the LHC energy of 13 TeV: the measurement of the charged-hadron ...
At EPS-HEP2015, the LHCb collaboration presented the first measurement of the J/ψ production cross-section in proton–proton (pp) collisions at 13 TeV. Using this measurement, they also...
PAUCam, the camera for the Physics of the Accelerating Universe (PAU) project, has been successfully installed and commissioned at the William Herschel Telescope (WHT) at the Roque de los Muchachos Ob...
In June, Fermilab’s Main Injector accelerator sustained a 521 kW proton beam, and set a world record for the production of high-energy neutrinos with a proton accelerator. The 120 GeV ...
Based on optical observations, a team of astronomers has, for the first time, demonstrated a link between a very long-lasting gamma-ray burst (GRB) and an unusually bright supernova explosion. The res...
The motivation of LHCf is to understand the hadronic interactions taking place when high-energy cosmic rays collide with the Earth’s atmosphere.
At 10.40 a.m. on 3 June, the LHC operators declared “stable beams”, signalling the official start of Run 2.
Setting out from CERN as a muon neutrino, the particle was detected at Gran Sasso as a ντ after travelling 730 km through the Earth.
The HL-LHC will contain magnets, relying on Nb3Sn and Nb-Ti superconductors in the form of Rutherford cable, and super-ferric magnets with Nb-Ti coils.
The Korean Tier-1 site of the Worldwide LHC Computing Grid (WLCG) completed the upgrade to 10 Gbps of the bandwidth of its optical-fibre link to CERN.