Category: Newsletter

  • Tracing the Path to Precision: The Historical Evolution of Electroweak Physics at the LHC

    Tracing the Path to Precision: The Historical Evolution of Electroweak Physics at the LHC

    Tracing the Path to Precision: The Historical Evolution of Electroweak Physics at the LHC The unification of the electromagnetic and weak-nuclear forces into an electroweak theory was one of the major breakthroughs of 20th century particle physics. In the 1960s, Steven Weinberg, Sheldon Glashow, and Abdus Salam proposed that these two forces, which appear at

    Explore →

  • ATLAS hones in on Higgs-Boson Couplings to Heavy Flavour Quarks

    ATLAS hones in on Higgs-Boson Couplings to Heavy Flavour Quarks

    ATLAS hones in on Higgs-Boson Couplings to Heavy Flavour Quarks Candidate event for the ZH → μμ cc process, where a Z boson and a Higgs boson decay to two muons (red tracks) and two charm-tagged jets (blue cones). (Image: ATLAS collaboration) In the summer of 2024, the ATLAS collaboration released two new publications that

    Explore →

  • The origin of Lead and the s-process branching points

    The origin of Lead and the s-process branching points

    The origin of Lead and the s-process branching points Lead is an abundant element of the solar system and is particularly abundant on the Earth’s crust (Figure 1). The origin of three of its four stable isotopes (206Pb, 207Pb, and 208Pb) can be partially traced back to the decay of uranium and thorium (radiogenic origin)

    Explore →

  • The TOTEM experiment: a pioneering journey into proton-proton interactions and forward physics. 

    The TOTEM experiment: a pioneering journey into proton-proton interactions and forward physics. 

    The TOTEM experiment: a pioneering journey into proton-proton interactions and forward physics. The TOTEM experiment is designed to explore the proton interactions when they survive intact after the collisions. With this goal, special detectors have been placed far from the interaction points to detect a small angular deflection, due to elastic and inelastic interactions. This

    Explore →

  • SND@LHC Experiment: hunting for high-energy neutrinos and preparing for the HL run

    SND@LHC Experiment: hunting for high-energy neutrinos and preparing for the HL run

    SND@LHC Experiment: hunting for high-energy neutrinos and preparing for the HL run Using the Large Hadron Collider as a neutrino source is the goal of the SND@LHC experiment. High-energy neutrinos, from a few hundred GeV to a few TeV, have never been studied. Moreover, neutrinos, particularly electron and tau species, in the SND pseudo-rapidity region

    Explore →

  • The 2024 n_TOF run: Highlights and perspectives

    The 2024 n_TOF run: Highlights and perspectives

    The 2024 n_TOF run: Highlights and perspectives Thanks to the excellent beam conditions provided by the PS staff, combined with the efficiency of research groups participating in the n_TOF Collaboration, an intense experimental program has been performed during the 252 days of measurements of the 2024 data-taking campaign at n_TOF. The facility will approach 2026

    Explore →

  • CERN’s BASE-STEP: A Leap Forward in Antimatter Transport

    CERN’s BASE-STEP: A Leap Forward in Antimatter Transport

    CERN's BASE-STEP: A Leap Forward in Antimatter Transport Antimatter, often portrayed as the elusive counterpart to ordinary matter, has long captivated the scientific community with its potential to unlock some of the universe's most profound mysteries. Yet, one of the most significant challenges in studying antimatter is its inherent instability—it annihilates upon contact with matter,

    Explore →

  • Silicon Photonics Circuits for Integrated Optical Readout of future High Energy Physics detectors

    Silicon Photonics Circuits for Integrated Optical Readout of future High Energy Physics detectors

    Silicon Photonics Circuits for Integrated Optical Readout of future High Energy Physics detectors Fibre optic links are crucial in High Energy Physics (HEP) experiments, allowing the transmission of large volumes of data from particle detectors operating in harsh radiation environments to radiation-free zones. Silicon Photonics (SiPh) [1] has emerged as a promising optoelectronic technology for

    Explore →

  • In discussion with Michael Campbell: Unpacking the Medipix/Timepix Revolution

    In discussion with Michael Campbell: Unpacking the Medipix/Timepix Revolution

    In discussion with Michael Campbell: Unpacking the Medipix/Timepix Revolution The Medipix and Timepix family of hybrid pixel detectors represents one of the most groundbreaking innovations to emerge from CERN’s detector technology. These chips, based on the hybrid pixel technology developed for high-energy physics experiments, have found remarkable applications in diverse fields such as medical imaging,

    Explore →

  • CAST Sets New Benchmarks in the Quest for Axions

    CAST Sets New Benchmarks in the Quest for Axions

    CAST Sets New Benchmarks in the Quest for Axions Within the CERN Axion Solar Telescope (CAST) collaboration, scientists from the Center for Astroparticles and High-Energy Physics (CAPA) at the University of Zaragoza led the research that has achieved a significant milestone in the search for axion-like particles (ALPs). Published in Physical Review Letters, their latest

    Explore →