A modern look at the oscillation physics case for a neutrino factory

The next generation of neutrino oscillation experiments, JUNO, DUNE, and HK, are under construction now and will collect data over the next decade and beyond. As there are no approved plans to follow up this program with more advanced neutrino oscillation experiments, we consider here one option that had gained considerable interest more than a decade ago: a neutrino factory. Such an experiment uses stored muons in a racetrack configuration with extremely well characterized decays reducing systematic uncertainties and providing for more oscillation channels. Such a machine could also be one step towards a high energy muon collider program. We consider a long-baseline configuration to SURF using the DUNE far detectors or modifications thereof, and compare the expected sensitivities of the three-flavor oscillation parameters to the anticipated results from DUNE and HK. We show optimal beam configurations, the impact of charge identification, the role of statistics and systematics, and the expected precision to the relevant standard oscillation parameters in different DUNE vs. neutrino factory configurations.

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Publication Details

Journal
Nuclear Physics B
Published
2025-02-03
DOI
https://doi.org/10.1016/j.nuclphysb.2025.116818
Citations
3
Primary Topic
Neutrino Physics Research
Type
article
Field-Weighted Citation Impact
5.61

Funders

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article

A modern look at the oscillation physics case for a neutrino factory

Peter B. Denton, Julia Gehrlein
3 citations
Nuclear Physics B
Neutrino Physics Research
5.61
article

A modern look at the oscillation physics case for a neutrino factory

Peter B. Denton, Julia Gehrlein
article en
3 citations

Abstract

The next generation of neutrino oscillation experiments, JUNO, DUNE, and HK, are under construction now and will collect data over the next decade and beyond. As there are no approved plans to follow up this program with more advanced neutrino oscillation experiments, we consider here one option that had gained considerable interest more than a decade ago: a neutrino factory. Such an experiment uses stored muons in a racetrack configuration with extremely well characterized decays reducing systematic uncertainties and providing for more oscillation channels. Such a machine could also be one step towards a high energy muon collider program. We consider a long-baseline configuration to SURF using the DUNE far detectors or modifications thereof, and compare the expected sensitivities of the three-flavor oscillation parameters to the anticipated results from DUNE and HK. We show optimal beam configurations, the impact of charge identification, the role of statistics and systematics, and the expected precision to the relevant standard oscillation parameters in different DUNE vs. neutrino factory configurations.

Nuclear Physics BVol. 1012
Brookhaven National Laboratory (US), Colorado State University (US)
Office of Science
Affordable and clean energy
Openalex Percentile: Top 6%
Neutrino Physics Research
5.61
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