text: 11,51,1118514682367741952,1004365363574902784,Kevin J. Kelly,"One more new paper (but this should be it for a while, I promise!) out today, with my collaborators André de Gouvêa, @StenicoVitti, and Pedro Pasquini. <LINK> Studying tau leptons and tau neutrinos is notoriously hard, but the @DUNEScience experiment should detect hundreds of them! We looked into what kind of physics you can learn by studying tau events. The OPERA Experiment just put out (<LINK>) similar results. Not too surprisingly, studying tau neutrinos isn't as powerful as studying electron and muon neutrinos (which is what DUNE is designed for), but taus can provide an important cross check in seeing whether there's new physics lurking in the neutrino sector. Here's a look at how many events the detector will identify as tau neutrinos in 3.5 years of data collection -- this sample alone will be larger than all existing measurements of tau neutrinos to date! <LINK> Finally, here's how well you can measure the amplitude and frequency of neutrino oscillations using each channel alone (electrons blue, taus green, muons red). Again, the tau neutrino measurement isn't powerful compared to the others, but it's a cross check that needs to be done! <LINK> Again, this couldn't have been done without my collaborators. Thanks André, @StenicoVitti, and Pedro!",https://arxiv.org/abs/1904.07265,"We explore the capabilities of the upcoming Deep Underground Neutrino Experiment (DUNE) to measure $\nu_\tau$ charged-current interactions and the associated oscillation probability $P(\nu_\mu \to \nu_\tau)$ at its far detector, concentrating on how such results can be used to probe neutrino properties and interactions. DUNE has the potential to identify significantly more $\nu_\tau$ events than all existing experiments and can use this data sample to nontrivially test the three-massive-neutrinos paradigm by providing complementary measurements to those from the $\nu_e$ appearance and $\nu_\mu$ disappearance channels. We further discuss the sensitivity of the $\nu_\tau$ appearance channel to several hypotheses for the physics that may lurk beyond the three-massive-neutrinos paradigm: a non-unitary lepton mixing matrix, the $3+1$ light neutrinos hypothesis, and the existence of non-standard neutral-current neutrino interactions. Throughout, we also consider the relative benefits of the proposed high-energy tune of the Long-Baseline Neutrino Facility (LBNF) beam-line. ",Physics with Beam Tau-Neutrino Appearance at DUNE,6,"['One more new paper (but this should be it for a while, I promise!) out today, with my collaborators André de Gouvêa, @StenicoVitti, and Pedro Pasquini.\n\n<LINK>', 'Studying tau leptons and tau neutrinos is notoriously hard, but the @DUNEScience experiment should detect hundreds of them!\n\nWe looked into what kind of physics you can learn by studying tau events. The OPERA Experiment just put out (https://t.co/gV7dSU4kDv) similar results.', ""Not too surprisingly, studying tau neutrinos isn't as powerful as studying electron and muon neutrinos (which is what DUNE is designed for), but taus can provide an important cross check in seeing whether there's new physics lurking in the neutrino sector."", ""Here's a look at how many events the detector will identify as tau neutrinos in 3.5 years of data collection -- this sample alone will be larger than all existing measurements of tau neutrinos to date! https://t.co/Tvn9rUYKkj"", ""Finally, here's how well you can measure the amplitude and frequency of neutrino oscillations using each channel alone (electrons blue, taus green, muons red). Again, the tau neutrino measurement isn't powerful compared to the others, but it's a cross check that needs to be done! https://t.co/RZJp4eFdgy"", ""Again, this couldn't have been done without my collaborators. Thanks André, @StenicoVitti, and Pedro!""]",19,04,1272