Investigating Lorentz Violation with the long baseline experiment P2O
Nishat Fiza, Nafis Rezwan Khan Chowdhury, Mehedi Masud

TL;DR
This paper explores how the P2O long baseline neutrino experiment can detect Lorentz invariance violation by analyzing neutrino oscillations, deriving sensitivities, and improving existing constraints through combined data analysis with DUNE.
Contribution
It provides a detailed analytical and numerical study of LIV effects on neutrino oscillations at P2O, including sensitivity estimates and combined analysis with DUNE for the first time.
Findings
P2O can significantly improve constraints on LIV parameters.
Analytical expressions reveal degeneracies and sensitivities.
Combined P2O and DUNE data lift degeneracies and tighten bounds.
Abstract
One of the basic propositions of quantum field theory is Lorentz invariance. The spontaneous breaking of Lorentz symmetry at a high energy scale can be studied at low energy extensions like the Standard model in a model-independent way through effective field theory (EFT). The present and future Long-baseline neutrino experiments can give a scope to observe such a Planck-suppressed physics of Lorentz invariance violation (LIV). A proposed long baseline experiment, Protvino to ORCA (dubbed "P2O") with a baseline of 2595 km, is expected to provide good sensitivities to unresolved issues, especially neutrino mass ordering. P2O can offer good statistics even with a moderate beam power and runtime, owing to the very large ( Mt) detector volume at KM3NeT/ ORCA. Here we discuss in detail, how the individual LIV parameters affect neutrino oscillations at P2O and DUNE baselines at the…
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Taxonomy
TopicsQuantum Mechanics and Applications · Noncommutative and Quantum Gravity Theories · Relativity and Gravitational Theory
