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Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE: data vs. theory

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Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE: data vs. theory. / MiniBooNE Collaboration.
In: AIP Conference Proceedings, Vol. 1189, 2009, p. 243-248.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

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MiniBooNE Collaboration. Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE: data vs. theory. AIP Conference Proceedings. 2009;1189:243-248. doi: 10.1063/1.3274164

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MiniBooNE Collaboration. / Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE : data vs. theory. In: AIP Conference Proceedings. 2009 ; Vol. 1189. pp. 243-248.

Bibtex

@article{5f731b8f5e5d4c81bf63f2052fc70a41,
title = "Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE: data vs. theory",
abstract = "The MiniBooNE experiment has collected what is currently the world{\textquoteright}s largest sample of vμ charged current single charged pion (CC1π+) interactions, roughly 46,000 events. The purity of the (CC1π+) sample is 87% making this the purest event sample observed in the MiniBooNE detector [1]. The average energy of neutrinos producing (CC1π+) interactions in MiniBooNE is about 1 GeV[2], therefore the study of these events can provide insight into both resonant and coherent pion production processes. In this talk, we will discuss the long‐standing discrepancy in four‐momentum transfer observed between (CC1π+) data and existing predictions. Several attempts to address this problem will be presented. Specifically, the Rein‐Sehgal [3, 4] model has been extended to include muon mass terms for both resonant [5, 6] and coherent [7] production. Using calculations from [8], an updated form for the vector form factor [9] has also been adopted. The results of this improved description of (CC1π+) production will be compared to the high statistics MiniBooNE (CC1π+) data and several existing parametrisations of the axial vector form factor [8, 9, 11].",
author = "Nowak, {Jaroslaw A.} and {MiniBooNE Collaboration}",
year = "2009",
doi = "10.1063/1.3274164",
language = "English",
volume = "1189",
pages = "243--248",
journal = "AIP Conference Proceedings",
issn = "0094-243X",
publisher = "American Institute of Physics Publising LLC",

}

RIS

TY - JOUR

T1 - Four momentum transfer discrepancy in the charged current πplus; production in the MiniBooNE

T2 - data vs. theory

AU - Nowak, Jaroslaw A.

AU - MiniBooNE Collaboration

PY - 2009

Y1 - 2009

N2 - The MiniBooNE experiment has collected what is currently the world’s largest sample of vμ charged current single charged pion (CC1π+) interactions, roughly 46,000 events. The purity of the (CC1π+) sample is 87% making this the purest event sample observed in the MiniBooNE detector [1]. The average energy of neutrinos producing (CC1π+) interactions in MiniBooNE is about 1 GeV[2], therefore the study of these events can provide insight into both resonant and coherent pion production processes. In this talk, we will discuss the long‐standing discrepancy in four‐momentum transfer observed between (CC1π+) data and existing predictions. Several attempts to address this problem will be presented. Specifically, the Rein‐Sehgal [3, 4] model has been extended to include muon mass terms for both resonant [5, 6] and coherent [7] production. Using calculations from [8], an updated form for the vector form factor [9] has also been adopted. The results of this improved description of (CC1π+) production will be compared to the high statistics MiniBooNE (CC1π+) data and several existing parametrisations of the axial vector form factor [8, 9, 11].

AB - The MiniBooNE experiment has collected what is currently the world’s largest sample of vμ charged current single charged pion (CC1π+) interactions, roughly 46,000 events. The purity of the (CC1π+) sample is 87% making this the purest event sample observed in the MiniBooNE detector [1]. The average energy of neutrinos producing (CC1π+) interactions in MiniBooNE is about 1 GeV[2], therefore the study of these events can provide insight into both resonant and coherent pion production processes. In this talk, we will discuss the long‐standing discrepancy in four‐momentum transfer observed between (CC1π+) data and existing predictions. Several attempts to address this problem will be presented. Specifically, the Rein‐Sehgal [3, 4] model has been extended to include muon mass terms for both resonant [5, 6] and coherent [7] production. Using calculations from [8], an updated form for the vector form factor [9] has also been adopted. The results of this improved description of (CC1π+) production will be compared to the high statistics MiniBooNE (CC1π+) data and several existing parametrisations of the axial vector form factor [8, 9, 11].

U2 - 10.1063/1.3274164

DO - 10.1063/1.3274164

M3 - Journal article

VL - 1189

SP - 243

EP - 248

JO - AIP Conference Proceedings

JF - AIP Conference Proceedings

SN - 0094-243X

ER -