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The recent observation of Coherent Elastic Neutrino Nucleus Scattering(CE{\nu}NS) with neutrinos from pion decay at rest ({\pi}-DAR) sources by theCOHERENT Collaboration has raised interest in this process in the search fornew physics. Unfortunately, current uncertainties in the determination ofnuclear parameters relevant to those processes can hide new physics effects.This is not the case for processes involving lower-energy neutrino sources suchas nuclear reactors. Note, however, that a CE{\nu}NS measurement with reactorneutrinos depends largely on the determination of the quenching factor, makingits observation more challenging. In the upcoming years, once this signal isconfirmed, a combined analysis of {\pi}-DAR and reactor CE{\nu}NS experimentswill be very useful to probe particle and nuclear physics, with a reduceddependence on the nuclear uncertainties. In this work, we explore this idea bysimultaneously testing the sensitivity of current and future CE{\nu}NSexperiments to neutrino non-standard interactions (NSI) and the neutron rootmean square (rms) radius, considering different neutrino sources as well asseveral detection materials. We show how the interplay between future reactorand accelerator CE{\nu}NS experiments can help to get robust constraints on theneutron rms, and to break degeneracies between the NSI parameters. Our forecastcould be used as a guide to optimize the experimental sensitivity to theparameters under study.

Probing nuclear properties and neutrino physics with current and future CE{\nu}NS experiments