Experimental Neutrino Physics

实验中微子物理

• 批准号: 1806849
• 负责人: Heidi Schellman
• 金额: $ 66.5万
• 依托单位: Oregon State University
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 2018
• 资助国家: 美国
• 起止时间: 2018-08-01 至 2022-07-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=1806849&HistoricalAwards=false
• 关键词: Experimental; Neutrino; Physics

One of the major intellectual achievements of the 20th century was the development of the Standard Model (SM) of particle physics. This model succeeded in classifying all of the elementary particles known at the time into a hierarchy of groups having similar quantum properties. The validity of this model to date was confirmed by the discovery of the Higgs boson at the Large Hadron Collider at CERN. However, the Standard Model as it currently exists leaves open many questions about the universe, including such fundamental questions as to why the Higgs mass has the value it has and why there is no antimatter in the universe. One of the primary areas to search for answers to these and other open questions about the universe, how it came to be, and why it is the way it is, is to focus on a study of the properties of neutrinos and to use what we know and can learn about neutrinos as probes of science Beyond the Standard Model (BSM). Neutrinos are those elementary particles that interact with practically nothing else in the universe. They have no electric charge and were once thought to be massless. Like other elementary particles, they were believed to have an antimatter counterpart, the antineutrino. Moreover, the Standard Model predicted that there were actually three different kinds of neutrinos that were distinguishable through the different interactions that they did undergo whenever there was an interaction. But recent measurements have totally changed our picture of neutrinos. We now know that neutrinos do have a mass and because they do, they can actually change from one type to another. Detailed measurements of neutrino interactions such as those in this project form one of the most promising ways to probe for new physics beyond the Standard Model.The Oregon State Group is studying how neutrinos and antineutrinos interact with normal matter in the MINERvA experiment at Fermilab, and are engaged in R&D for DUNE, the next generation, long baseline neutrino experiment with endpoints at Fermilab in Illinois which provides the neutrino beam and the Sanford Underground Laboratory in South Dakota which is home for the detectors. Presently under test are large detector prototypes called "ProtoDUNEs", which are massive liquid-Argon based detectors called Time Projection Chambers. The testing is underway at CERN, Geneva, Switzerland, and will guide the development of the massive detectors that will be built for DUNE in the next decade. Principal investigator Schellman is co-coordinator of the Computing and Software effort for the overall DUNE project. This includes development and implementation of the experimental computing model and assembling the international scientific and technical team that will be responsible for processing the data from the ProtoDUNE experiments.This project will create computing infrastructure useful across the fields of Particle and Nuclear Physics and will train young scientists in advanced computing techniques for analyzing petabyte data samples which are valuable across the US economy. The PI supervises scientific outreach activities through The Oregon State Physics Department that reaches substantial numbers of people in urban and rural communities every year. The OSU neutrino group attracts a large fraction of women and underrepresented minorities to its research team.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

世纪的主要学术成就之一是粒子物理学标准模型（SM）的发展。该模型成功地将当时已知的所有基本粒子分类为具有相似量子特性的组的层次结构。到目前为止，这个模型的有效性被欧洲核子研究中心大型强子对撞机上发现的希格斯玻色子所证实。然而，目前存在的标准模型留下了许多关于宇宙的问题，包括为什么希格斯质量具有它的价值以及为什么宇宙中没有反物质等基本问题。对于这些和其他关于宇宙的开放性问题，它是如何形成的，以及为什么它是这样的，寻找答案的主要领域之一是专注于中微子性质的研究，并利用我们所知道的和可以了解的关于中微子的知识作为超越标准模型（BSM）的科学探针。中微子是那些基本粒子，在宇宙中几乎不与其他任何东西相互作用。它们不带电荷，曾经被认为是无质量的。像其他基本粒子一样，它们被认为有一个反物质对应物，反中微子。此外，标准模型预测，实际上有三种不同类型的中微子，它们可以通过不同的相互作用来区分，无论何时发生相互作用。但是最近的测量已经完全改变了我们对中微子的看法。我们现在知道中微子确实有质量，因为它们有质量，它们实际上可以从一种类型变成另一种类型。中微子相互作用的详细测量，如在这个项目中的那些，形成了一个最有前途的方法来探索新的物理超越标准模型。俄勒冈州国家组正在研究中微子和反中微子如何与正常物质相互作用在费米实验室的MINERvA实验，并从事&研发的DUNE，下一代，长基线中微子实验的终点在伊利诺斯州的费米实验室，该实验室提供中微子束，而南达科他州的桑福德地下实验室是探测器的所在地。 目前正在测试的是大型探测器原型，称为“ProtoDUNE”，这是一种基于大量液体氩的探测器，称为时间投影室。 测试正在瑞士日内瓦的CERN进行，并将指导未来十年为DUNE建造的大型探测器的开发。 首席研究员Schellman是整个DUNE项目的计算和软件工作的共同协调员。 这包括开发和实施实验计算模型，并组建国际科学和技术团队，负责处理Protodune实验的数据。该项目将创建适用于粒子和核物理领域的计算基础设施，并将培训年轻科学家使用先进的计算技术分析PB数据样本，这些数据样本对美国经济具有重要价值。 PI通过俄勒冈州物理部监督科学推广活动，每年都有大量的城市和农村社区的人参加。俄勒冈州立大学的中微子研究小组吸引了大量女性和少数族裔的研究团队。该奖项反映了NSF的法定使命，并通过使用基金会的知识价值和更广泛的影响审查标准进行评估，被认为值得支持。

项目成果

Exploring neutrino–nucleus interactions in the GeV regime using MINERvA

• DOI: 10.1140/epjs/s11734-021-00296-6
• 发表时间: 2021-07
• 期刊: The European Physical Journal Special Topics
• 作者: X.-G. Lu;Z. A. Dar;F. Akbar;D. A. Andrade;M. Ascencio;G. Barr;A. Bashyal;L. Bellantoni;A. Bercellie;M. Betancourt;A. Bodek;J. L. Bonilla;H. Budd;G. Caceres;T. Cai;M. Carneiro;H. da Motta;G. A. Dı́az;J. Félix;L. Fields;A. Filkins;R. Fine;A. Gago;H. Gallagher;S. Gilligan;R. Gran;D. Harris;S. Henry;D. Jena;S. Jena;J. Kleykamp;A. Klustová;M. Kordosky;D. Last;A. Lozano;E. Maher;S. Manly;W. A. Mann;C. Mauger;K. McFarland;A. McGowan;B. Messerly;J. Miller;J. Morfín;D. Naples;J. Nelson;C. Nguyen;A. Olivier;V. Paolone;G. Perdue;K. Plows;M. A. Ramírez;R. Ransome;H. Ray;P. Rodrigues;D. Ruterbories;H. Schellman;C. J. S. Salinas;H. Su;M. Sultana;V. Syrotenko;E. Valencia;A. Waldron;D. Wark;A. Weber;K. Yang;L. Zazueta

Low exposure long-baseline neutrino oscillation sensitivity of the DUNE experiment

DUNE 实验的低曝光长基线中微子振荡灵敏度

• DOI: 10.1103/physrevd.105.072006
• 发表时间: 2022
• 期刊: Physical Review D
• 影响因子: 5
• 作者: Abud, A. Abed;Abi, B.;Acciarri, R.;Acero, M. A.;Adames, M. R.;Adamov, G.;Adams, D.;Adinolfi, M.;Aduszkiewicz, A.;Aguilar, J.
• 通讯作者: Aguilar, J.

Nucleon binding energy and transverse momentum imbalance in neutrino-nucleus reactions

中微子核反应中的核子结合能和横向动量不平衡

• 发表时间: 2020
• 期刊: Physical review
• 作者: Cai, T.;Lu, X.-G.;Harewood, L. A.;Wret, C.;Akbar, F.;Andrade, D. A.;Ascencio, M. V.;Bellantoni, L.;Bercellie, A.;Betancourt, M.
• 通讯作者: Betancourt, M.

Status and perspectives of neutrino physics

• DOI: 10.1016/j.ppnp.2022.103947
• 发表时间: 2021-11
• 期刊: Progress in Particle and Nuclear Physics
• 影响因子: 9.6
• 作者: M. Athar;S. Barwick;T. Brunner;Jun Cao;M. Danilov;K. Inoue;T. Kajita;M. Kowalski;M. Lindner;K. Long;N. Palanque-Delabrouille;W. Rodejohann;H. Schellman;K. Scholberg;S. Seo;N. Smith;W. Winter;G. Zeller;R. Funchal

Probing nuclear effects with neutrino-induced charged-current neutral pion production

利用中微子诱导的带电电流中性介子产生来探测核效应

• DOI: 10.1103/physrevd.102.072007
• 发表时间: 2020
• 期刊: Physical Review D
• 影响因子: 5
• 作者: Coplowe, D.;Altinok, O.;Ahmad Dar, Z.;Akbar, F.;Andrade, D. A.;Barr, G. D.;Bashyal, A.;Bercellie, A.;Betancourt, M.;Bodek, A.
• 通讯作者: Bodek, A.