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The challenges of precision neutrino physics require measurements of absoluteneutrino cross sections at the GeV scale with exquisite (1%) precision. Thisprecision is presently limited by the uncertainties on neutrino flux at thesource; their reduction by one order of magnitude can be achieved monitoringthe positron production in the decay tunnel originating from the $K_{e3}$decays of charged kaons in a sign and momentum selected narrow band beam. Thisnovel technique enables the measurement of the most relevant cross sections forCP violation ($\nu_e$ and $\overline{\nu}_e$) with a precision of 1% andrequires a special instrumented beam-line. Such non-conventional beam-line willbe developed in the framework of the ENUBET Horizon-2020 Consolidator Grant,recently approved by the European Research Council. The project, the firstexperimental results on ultra-compact calorimeters that can be embedded in theinstrumented decay tunnel and the advances on the simulation of the beamlineare presented. We also discuss the detector and accelerator activities that areplanned in 2016-2021.

The ERC ENUBET Project: high precision neutrino flux measurements in conventional neutrino beams