Studying the physics potential of long-baseline experiments in terms of new sensitivity parameters

We investigate physics opportunities to constraint leptonic CP-violation phase $δ_{CP}$ through numerical analysis of working neutrino oscillation probability parameters, in the context of long base line experiments. Numerical analysis of two parameters, the " transition probability $δ_{CP}$ phase sensitivity parameter ($A^M$) " and " CP-violation probability $δ_{CP}$ phase sensitivity parameter ($A^{CP}$) ", as function of beam energy and/or base line has been preferably carried out. It is an elegant technique to broadly analyze different experiments to constraint $δ_{CP}$ phase and also to investigate mass hierarchy in the leptonic sector. The positive and negative values of parameter $A^{CP}$ corresponding to either of hierarchy in the specific beam energy ranges, could be a very promising way to explore mass hierarchy and $δ_{CP}$ phase. The keys to more robust bounds on $δ_{CP}$ phase are improvements of the involved detection techniques to explore bit low energy and relatively long base line regions with better experimental accuracy.

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