吴培文 副研究员 硕导

2010 年本科毕业于南京大学理科强化部物理专业 (DII-NJU)。2015年博士毕业于中国科学院理论物理研究所(ITP-CAS)，2015年至2019年在韩国高等科学院(KIAS)从事博士后研究工作。研究领域为高能粒子物理，特别是超出粒子物理标准模型(SM)的新物理规律(BSM)。

学术报告和访问经历包括：美国费米国家实验室(FermiLab)、英国杜伦大学粒子物理研究所(IPPP)、德国慕尼黑天体粒子物理研究所(MIAPP)、澳大利亚粒子物理卓越中心(CoEPP)、日本高能加速器研究所(KEK)等。

欢迎有意向从事基础物理学研究的同学报考硕士研究生。


姓名
吴培文

邮箱
pwwu [AT] seu.edu.cn

地址
江苏省南京市东南大学物理学院

文章列表

http://inspirehep.net/author/profile/Pei.Wen.Wu.1

https://scholar.google.com/citations?user=ly_xglsAAAAJ&hl=en

研究领域

理论物理，高能物理，粒子物理

工作经历

2019.08–今,
东南大学物理学院，副研究员

2015.08–2019.08,
韩国高等科学院，博士后

教育经历

2010.09–2015.07,
中国科学院，理论物理研究所，博士
导师：杨金民 研究员

2006.09–2010.07,
南京大学，理科强化部，学士

主要荣誉

2015
中国优秀博士研究生代表团成员
出席第 65 届德国林岛诺贝尔奖获得者大会

2010
南京大学 院长特别奖

讲授课程

2020 年，春季:《高等物理》

研究课题

暗物质，希格斯物理，粒子宇宙学

暗物质

宇宙学观测表明，在当今宇宙能量成分中，普通物质(例如构成我们身体的物质)只占约5%，而暗物质占据约27%，暗能量占据约68%。探索暗物质性质以及它与普通物质相互作用的规律，是我们认识新物质世界的窗口。

希格斯物理

希格斯波色子为粒子物理标准模型(SM)中的有质量粒子提供质量来源。2012年，欧洲核子中心(CERN)的大型强子对撞机(LHC)发现了希格斯波色子，证实了半个世纪前标准模型的理论预言。接下来对希格斯粒子性质的高精度检验，将帮助人们加深对自然界基本粒子质量来源的理解。

粒子宇宙学

在大爆炸宇宙模型中，自然界基本粒子的性质深刻影响了早期宇宙演化并决定了当今宇宙许多关键性质。粒子物理学和宇宙学之间密不可分的联系使得粒子宇宙学处于快速发展中。

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Name
PeiwenWU(吴培文)

Email
pwwu [AT] seu.edu.cn

Address
School of Physics,Southeast University,Nanjing 211189, China


Link to Publications

http://inspirehep.net/author/profile/Pei.Wen.Wu.1
https://scholar.google.com/citations?user=ly_xglsAAAAJ&hl=en


Research Field

Theoretical Physics
High Energy Physics
Particle Physics

Chronology of Employment
2019.08 – Now, Junior
School of Physics
Southeast University

2015.08 – 2019.08, PD
Korea Institutefor Advanced Study(KIAS)

Chronology of Education

2010.09–2015.07, Ph.D.
Institute of Theoretical Physics,
Chinese Academy of Science (ITP, CAS)
Supervisor: Prof. Jin Min Yang

2006.09–2010.07, B.S.
Department for Intensive Instruction (DII),
Nanjing University

Courses

2020, Spring: Advanced Physics

Research Subjects


Dark Matter (DM),Higgs phenomenology,particle cosmology

Dark Matter



Cosmological observations have shown that ordinary matter,such as those making up our body, only occupyabout 5% of the energy budget of the current Universe,the left of which consists of dark matter (~27%)and dark energy (~68%). Exploring the nature of DMand how it interacts with the SMwill open a new window for us to the unknow matter world.
Particle Dark Matter: Evidence, Candidates and Constraints
https://arxiv.org/abs/hep-ph/**

A Survey of Dark Matter and Related Topics in Cosmology
(on sale at jd.com etc)

Chinese dark matter experimental facilities:

PandaX: Particle and Astrophysical Xenon Experiments
https://pandax.sjtu.edu.cn
DAMPE: DArk Matter Particle Explore
http://dpnc.unige.ch/dampe/
CDEX: TheChinaDarkMatterExperiment
https://arxiv.org/abs/1303.0601
Higgs Phenomenology



Higgs boson provides the mass origin ofthe massive particles in the SM.Since itstheoretical prediction about half-century ago,Higgs boson was discovered recently in 2012at the Large Hadron Collider (LHC) hosted bythe EuropeanOrganizationforNuclearResearch (CERN).Careful scrutiny of the Higgs boson propertiescompared to the SM predictions will guide ustowards the deeper understanding ofthe mass generations of elementary particles.
Observation of a new particle in the search forthe Standard Model Higgs bosonwith the ATLAS detector at the LHC
https://arxiv.org/abs/1207.7214
Observation of a new boson at a massof 125 GeV with the CMS experiment at the LHC
https://arxiv.org/abs/1207.7235
Chinese next generationhigh energy collider projects: CEPC/SPPC

CEPC Conceptual Design Report:
Volume 1 - Accelerator
https://arxiv.org/abs/1809.00285

CEPC Conceptual Design Report:
Volume 2 - Physics & Detector
https://arxiv.org/abs/1811.10545

Concept for a Future Super Proton-Proton Collider
https://arxiv.org/abs/1507.03224

Particle Cosmology



In the framework of the Big Bang theory,the nature of elementary particles significantlyaffects the cosmological evolution in the early eraand determines the key features of the current Universein a number of respects. The inextricable interplaybetween particle physics and cosmologyhas been increasingly recognizedand been developing rapidly.
Cosmology, 2008
by Steven Weinberg

https://www.amazon.com/Cosmology-Steven-Weinberg/dp/
The Early Universe, 1994
by Edward Kolb, Michael Turner

https://www.amazon.com/Early-Universe-Frontiers-Physics/dp//ref=sr_1_1?keywords=The+Early+Universe&qid=&s=books&sr=1-1