The MINOS detector will study neutrino (mostly nu_mu) beams from the NuMI beam facility at FermiLab. The base-line is 730 km. The 5 Ktom iron calorimeter detector with scintillator detector will detect both nu_mu as well as nu_e and so can study the reappearance of nu_mu as well as oscillations into nu_e directly. If no oscillations are seen, limit plots will show the sensitivity to the mixing parameters; if oscillations are seen, then the measurements will yield precision values for some of the mixing parameters. The NuMI beam is expected to be operational by Dec 2004. All plots are for 10 Kton year of data; i.e., two years of running with beam. Greatest sensitivity is with lowest energy beam. For more details, look up the MINOS (NuMI) web-site at http://www.hep.anl.gov/ndk/hypertext/nu_industry.html or at http://www-numi.fnal.gov/.

Limit plots (in the case of observation of no-oscillations)

* nu_mu to nu_e sensitivity

* nu_mu CC energy analysis


Sensitivity plots (in the event of observation of oscillations)

* CC energy test as low energy; worse discrimination in the plots for me and he.

* nu_mu to nu_e ; delta_23 = 3.10^-3, delta_12 = 10^-5, \theta_13 = 8 degrees; delta_CP = 120 degrees (for matter effect).

* sterile vs active discrimination ; visible energy spectrum of NC events used to discriminate nu_mu -> nu_tau vs. nu_mu -> nu_s. f_s = 1 - sin^2 (2 \theta_23). f_s = 0 implies pure active, f_s = 1 means pure sterile transformation.