by Davide Sgalaberna, Umut Kose & Albert De Roeck (CERN)
A new R&D collaboration strives to explore how additive manufacturing techniques and 3D printing of polystyrene-based scintillator can be used in producing read detectors for neutrino experiments.
A new generation of neutrino experiments, leveraging high-intensity neutrino beams for precision measurements, could complement high-energy searches for new physics.
A discussion with Professor Stefan Söldner-Rembold, co-spokesperson of the DUNE collaboration, on the main particle physics questions from a neutrino perspective, the birth of DUNE and the next steps of the collaboration.
Prototype for Magnetised Iron Neutrino Detector (MIND) developed at CERN to measure muons produced in neutrino interactions in the WAGASCI detector, Japan.
A new R&D collaboration strives to explore how additive manufacturing techniques and 3D printing of polystyrene-based scintillator can be used in producing read detectors for neutrino experiments.
A new generation of neutrino experiments, leveraging high-intensity neutrino beams for precision measurements, could complement high-energy searches for new physics.
A discussion with Professor Stefan Söldner-Rembold, co-spokesperson of the DUNE collaboration, on the main particle physics questions from a neutrino perspective, the birth of DUNE and the next steps of the collaboration.
Testing the ProdoDUNE-SP prototype detector at CERN is a crucial milestone for the DUNE experiment.
The Baby MIND muon spectrometer has started recording its first muon tracks from neutrino interactions at J-PARC since 10th March
Prototype for Magnetised Iron Neutrino Detector (MIND) developed at CERN to measure muons produced in neutrino interactions in the WAGASCI detector, Japan.
The future of the Deep Underground Neutrino Experiment appears bright, as construction of the two protoDUNE detectors begins at CERN.