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Nuclear Physics with MINERvA

Tice, Brian G
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Abstract

MINERvA is a precision neutrino experiment designed to improve our understanding of the neutrino-nucleus interaction. The experiment uses a fully active scintillation detector to allow full event reconstruction and includes nuclear targets helium, water, carbon, iron and lead. Here we describe the first steps in measuring lead to iron to carbon cross section ratios.

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72 PHYSICS OF ELEMENTARY PARTICLES AND FIELDS73 NUCLEAR PHYSICS AND RADIATION PHYSICSCARBON 12 TARGETCROSS SECTIONSELEMENTARY PARTICLESFERMIONSHELIUM 4 TARGETHYDROGEN 1 TARGETINTERACTIONSIRON 56 TARGETLEAD 208 TARGETLEPTON REACTIONSLEPTON-BARYON INTERACTIONSLEPTON-HADRON INTERACTIONSLEPTON-NUCLEON INTERACTIONSLEPTONSMASSLESS PARTICLESMEASURING INSTRUMENTSNEUTRINO REACTIONSNEUTRINO-NUCLEON INTERACTIONSNEUTRINOSNUCLEAR REACTIONSOXYGEN 16 TARGETPARTICLE INTERACTIONSRADIATION DETECTORSSCATTERINGSCINTILLATION COUNTERSSOLID SCINTILLATION DETECTORSTARGETS

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Tice, Brian G. 2011-11-23. Nuclear Physics with MINERvA. https://doi.org/10.1063/1.3661585

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