A proof-of-concept study shows that elastic antineutrino-electron scattering at JUNO could in principle detect reactor appearance and probe CP violation, but the CP signal is tiny.
Reactor Neutrino Experiments: Present and Future
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abstract
Reactor neutrinos have been an important tool for both discovery and precision measurement in the history of neutrino studies. Since the first generation of reactor neutrino experiments in the 1950s, the detector technology has been greatly advanced. New ideas, new knowledge, and modern software also enhanced the power of the experiments. The current reactor neutrino experiments, Daya Bay, Double Chooz, and RENO have led neutrino physics into the precision era. In this article, we will review these developments and accumulations, address the key issues in designing a state-of-art reactor neutrino experiment, and explain how the challenging requirements of determining the neutrino mass hierarchy with the next generation experiment JUNO could be realized in the near future.
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Towards a detection of reactor $\overline{\nu}^{}_e \to \overline{\nu}^{}_\mu$ and $\overline{\nu}^{}_e \to \overline{\nu}^{}_\tau$ oscillations with possible CP violation
A proof-of-concept study shows that elastic antineutrino-electron scattering at JUNO could in principle detect reactor appearance and probe CP violation, but the CP signal is tiny.