113,99 €
inkl. MwSt.
Versandkostenfrei*
Erscheint vorauss. 20. Dezember 2025
payback
57 °P sammeln
  • Gebundenes Buch

This book is a revolutionary new method to measure neutrino oscillation parameters in accelerator-based long-baseline experiments. In traditional experiments, a beam of muon neutrino is sent over a distance of several hundred kilometres and the neutrino beam composition is measured with a set of detectors very close to the production point to evaluate the original beam composition and a far detector to evaluate how this composition has changed. To perform these measurements, both the neutrino flux and their interaction cross section must be known. Dr. Hasnip developed a new method using a near…mehr

Produktbeschreibung
This book is a revolutionary new method to measure neutrino oscillation parameters in accelerator-based long-baseline experiments. In traditional experiments, a beam of muon neutrino is sent over a distance of several hundred kilometres and the neutrino beam composition is measured with a set of detectors very close to the production point to evaluate the original beam composition and a far detector to evaluate how this composition has changed. To perform these measurements, both the neutrino flux and their interaction cross section must be known. Dr. Hasnip developed a new method using a near detector system that is movable transverse to the beam direction. Sampling the beam at many different off-axis positions, he predicted predict the neutrino spectrum directly from the near detector data with a much-reduced dependence of the neutrino cross section. He developed the method in such a way that both the disappearance of muon neutrinos as well the appearance of electron neutrino can be predicted with reduced systematic uncertainties. He developed this so-called PRISM method in the context of the future DUNE experiment, but it will have applications for both short- and other long-baseline experiments. It is an essential tool for oscillation measurements of the next generation of precision experiments. Dr. Hasnip developed and implemented these methods in a common analysis structure and educated the collaboration about its advantages. His work convinced the collaboration and funding agencies to enlarge the underground experimental hall and make the near detectors movable, something which originally was not foreseen. This is an impressive piece of work, which will have lasting impact on neutrino oscillation experiments.
Autorenporträt
Ciaran Hasnip is a Research Fellow at CERN whose work focuses on accelerator neutrino physics for the DUNE and T2K experiments. His research has covered exploring beyond-standard model physics searches in neutrino detectors, developing a new, less model-dependent method for measuring neutrino oscillations at DUNE and designing trigger algorithms for the DUNE data acquisition system. Ciaran obtained his undergraduate degree from the University of Manchester and completed his DPhil at the University of Oxford in 2023 before joining the CERN experimental physics neutrino (EP-NU) group as a Research Fellow.