Detection techniques and investigation of different neutrino experiments

TL;DR

This paper reviews various neutrino detection techniques and experiments over time, highlighting their contributions to understanding neutrino properties and discussing future prospects in neutrino research.

Contribution

It provides a comprehensive chronological analysis of neutrino experiments, detailing their detection mechanisms and proposing upgrades for future experiments to enhance neutrino research.

Findings

Neutrino experiments have significantly advanced knowledge of neutrino oscillations.

Current experiments are refining measurements of neutrino parameters.

Future experiments aim to resolve unknowns like neutrino mass hierarchy and CP violation.

Abstract

Neutrino physics is an experimentally driven field. So, we investigate the different detection techniques available in the literature and study the various neutrino oscillation experiments in a chronological manner. Our primary focus is on the construction and detection mechanisms of each experiment. Today, we know a lot about this mysterious ghostly particle by performing different experiments at different times with different neutrino sources viz. solar, atmospheric, reactor, accelerators and high energy astrophysical; and they have contributed in the determination of neutrino parameters. Yet the problems are far from over. We need to determine more precise values of the already known parameters and unravel the completely unknown parameters. Some of the unknowns are absolute masses of neutrino, types of neutrino, mass hierarchy, octant degeneracy and existence of leptonic CP Phase(s). We analyse the neutrino experiments into the past, present and the future (or proposed). We include SNO, Kamiokande, K2K, MINOS, MINOS+, Chooz, NEMO and ICARUS in the past; while Borexino, Double Chooz, Super-K, T2K, IceCube, KamLAND, NO$\nu$A, RENO and Daya Bay in the present; and SNO+, Hyper-K, JUNO, RENO-50, INO, DUNE, SuperNEMO, KM3NeT, P2O, LBNO and PINGU in the proposed experiments. We also discuss the necessities of upgrading the present ones to those of the proposed ones thereby summarizing the potentials of the future experiments. We conclude this paper with the current status of the neutrinos.