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| Progress in Particle and Nuclear Physics | |
|---|---|
| Title | Progress in Particle and Nuclear Physics |
| Discipline | Particle physics; Nuclear physics |
| Publisher | Academic journals; Research institutions |
| Country | International |
Progress in Particle and Nuclear Physics
Progress in Particle and Nuclear Physics surveys advances across CERN, Fermilab, Brookhaven National Laboratory, Lawrence Berkeley National Laboratory and other institutions. It synthesizes contributions from theorists at Institute for Advanced Study, Cavendish Laboratory, Princeton University, University of Cambridge and experimental collaborations such as ATLAS experiment, CMS experiment, ALICE experiment, LHCb experiment and Super-Kamiokande. The field integrates results from facilities including the Large Hadron Collider, Relativistic Heavy Ion Collider, Thomas Jefferson National Accelerator Facility and European Organization for Nuclear Research projects.
The discipline links discoveries at SLAC National Accelerator Laboratory, DESY, TRIUMF, KEK and Riken with theoretical frameworks from groups at Harvard University, Massachusetts Institute of Technology, California Institute of Technology and Stanford University. Milestones involve collaborations among Nobel Prize laureates and institutes such as Max Planck Society, Los Alamos National Laboratory, Oak Ridge National Laboratory and Rutherford Appleton Laboratory. Major experiments have been supported by funding agencies including National Science Foundation, European Commission, Department of Energy and Wellcome Trust.
Early nuclear investigations trace to Ernest Rutherford and experiments at University of Manchester; the discovery of the nucleus influenced work at University of Göttingen and University of Cambridge laboratories. Developments in quantum field theory involved figures at Niels Bohr Institute, Copenhagen University, Institute for Theoretical Physics and collaborations with Paul Dirac and Werner Heisenberg. Accelerator history includes construction of the Bevatron, Cyclotron at Lawrence Berkeley National Laboratory, the Synchrotron at Brookhaven National Laboratory and the Proton Synchrotron at CERN. The discovery of strange particles at Brookhaven National Laboratory and kaon decay studies at Brookhaven National Laboratory and CERN shaped understanding leading to work by Murray Gell-Mann, Richard Feynman, Yoichiro Nambu and Sheldon Glashow.
Theoretical progress reflects the Standard Model construction by teams at CERN, Fermilab and University of Chicago with input from Steven Weinberg, Abdus Salam, Sheldon Glashow and Gerard 't Hooft. Quantum chromodynamics gained traction through research at SLAC, DESY and Brookhaven National Laboratory and with contributions from Frank Wilczek, David Gross and H. David Politzer. Neutrino oscillation theory was formulated in contexts involving Super-Kamiokande, Sudbury Neutrino Observatory and theorists such as Bruno Pontecorvo and V. Gribov. Beyond-Standard-Model proposals include work on supersymmetry from Northeastern University and CERN groups, grand unified theories advanced at Princeton University and Institute for Advanced Study, and string-theory-inspired models developed at California Institute of Technology and Institute for Advanced Study by researchers like Edward Witten. Effective field theory techniques used at Yale University and University of California, Berkeley inform nuclear interactions studied by Hans Bethe-influenced groups and modern chiral EFT programs at University of Washington.
Detector technology evolved via projects at ATLAS experiment, CMS experiment, CERN, DESY, SLAC National Accelerator Laboratory and KEK. Calorimetry, silicon pixel detectors and time projection chambers were developed at Fermilab, TRIUMF, Rutherford Appleton Laboratory and Stanford Linear Accelerator Center. Neutron scattering and isotope production at Oak Ridge National Laboratory and Argonne National Laboratory support nuclear spectroscopy done at GANIL and GSI Helmholtz Centre for Heavy Ion Research. Radioactive beam facilities at ISOLDE and Riken underpin nuclear structure studies, while cryogenic detectors at SNOLAB and Gran Sasso National Laboratory enable low-background searches. Computational advances harness supercomputers at Argonne National Laboratory, National Energy Research Scientific Computing Center and Lawrence Livermore National Laboratory for lattice QCD, Monte Carlo modeling and data reconstruction used by ATLAS experiment and CMS experiment collaborations.
Recent results include the observation of the Higgs boson at CERN by ATLAS experiment and CMS experiment, precision measurements at Fermilab such as the muon g-2 experiment and neutrino mixing parameter constraints from T2K and NOvA conducted with support from KEK and Fermilab. Heavy-ion programs at Relativistic Heavy Ion Collider and LHC revealed quark–gluon plasma signatures studied by ALICE experiment, STAR experiment and PHENIX experiment. Searches for neutrinoless double beta decay occur in experiments at Gran Sasso National Laboratory, SNOLAB and KamLAND-Zen; dark matter direct detection efforts include LUX-ZEPLIN, XENON collaboration and PandaX located at SURF and Chinese Academy of Sciences facilities. Precision electroweak fits incorporate data from LEP and SLAC, while exotic hadron states such as tetraquarks and pentaquarks were reported by LHCb experiment and Belle experiment at KEK.
Techniques from CERN and Fermilab translate to medical imaging at institutions like Mayo Clinic and Johns Hopkins Hospital via proton therapy systems originally developed at Lawrence Berkeley National Laboratory and CERN. Accelerator-driven neutron sources at Oak Ridge National Laboratory and ISIS Neutron and Muon Source support materials science programs at Diamond Light Source and ESRF. Radiation-detection innovations have industrial and security applications deployed by Siemens and GE Healthcare. Cryogenics and superconducting magnet technologies pioneered at Brookhaven National Laboratory and Fermi National Accelerator Laboratory inform projects at Tesla, Inc. and Siemens. Computational frameworks from CERN's data grid and Open Science Grid enable collaborations across University of California campuses and national laboratories.
Future plans include upgrades at Large Hadron Collider with the High-Luminosity Large Hadron Collider program, proposed facilities like the Future Circular Collider, International Linear Collider, Muon Collider studies at Fermilab and concepts from CERN task forces. Open questions address the nature of dark matter investigated by European Space Agency missions and underground detectors at SNOLAB; the matter–antimatter asymmetry studied through experiments at J-PARC and CERN; the hierarchy problem debated by communities at Princeton University, University of Oxford and Harvard University; and the origin of neutrino mass pursued by DUNE and Hyper-Kamiokande collaborations. Nuclear astrophysics goals intersect with observations from Hubble Space Telescope, James Webb Space Telescope, LIGO Scientific Collaboration and IceCube Neutrino Observatory to constrain nucleosynthesis and compact-object physics probed by GSI Helmholtz Centre for Heavy Ion Research and FRIB.