期刊文献+

Probing granular inhomogeneity of a particle-emitting source by imaging two-pion Bose–Einstein correlations

下载PDF
导出
摘要 Using the source imaging technique in two-pion interferometry,we study the image of the hydrodynamic particle-emitting source with the HIJING initial conditions for relativistic heavy-ion collisions on an event-by-event basis.It is shown that the initial-state fluctuations may give rise to bumpy structures of the medium during hydrodynamical evolution,which affects the two-pion emission space and leads to a visible two-tiered shape in the source function imaged using the two-pion Bose–Einstein correlations.This two-tiered shape can be understood within a similar but more analytic granular source model and is found to be closely related to the introduced quantity n,which characterizes the granular inhomogeneity of the source.By fitting the imaged source function with a granular source parametrization,we extract the granular inhomogeneity of the hydrodynamic source,which is found to be sensitive to both the Gaussian smearing width of the HIJING initial condition and the centrality of the collisions.
出处 《Nuclear Science and Techniques》 SCIE EI CAS CSCD 2021年第2期81-89,共9页 核技术(英文)
基金 the Research Start-up Funding of Hubei University of Education(No.201801) Hubei Provincial Natural Science Foundation of China(No.2020CFB697) the China Postdoctoral Science Foundation(No.2019M652929) the MOE Key Laboratory of Quark and Lepton Physics(Central China Normal University)(No.QLPL201802).
  • 相关文献
  • 1刘玉琛,Kazuya Mameda,黄旭光.Covariant spin kinetic theory I:collisionless limit[J].Chinese Physics C,2020,44(9):83-94.
  • 2胡恒菘.关于全同粒子玻色-爱因斯坦关联的两种能量排序事件比较的研究[J].科学与信息化,2020(34):191-195.
  • 3Fang Dong,Hui Cheng,Hideo Ema,Tao Cheng.Probing the fate of transplanted hematopoietic stem cells: is the combinational approach “FIT” for purpose?[J].Science China(Life Sciences),2020,63(11):1755-1758. 被引量:1
  • 4梁作堂,宋军,Isaac Upsal,王群,许长补.Rapidity dependence of global polarization in heavy ion collisions[J].Chinese Physics C,2021,45(1):226-238.
  • 5杨森,刘诚,朱涛,赵力,武强,杨科,Mubasher Jamil.Spherical accretion flow onto general parameterized spherically symmetric black hole spacetimes[J].Chinese Physics C,2021,45(1):325-340.
  • 6Baowen Li,Xiaofei Liu,Wanlin Guo.Probing interactions at two-dimensional heterointerfaces by boron nitride-wrapped tip[J].Nano Research,2021,14(3):692-698. 被引量:1
  • 7L.Adamczyk,J.R.Adams,J.K.Adkins,G.Agakishiev,M.M.Aggarwal,Z.Ahammed,I.Alekseev,D.M.Anderson,A.Aparin,E.C.Aschenauer,M.U.Ashraf,F.G.Atetalla,A.Attri,G.S.Averichev,V.Bairathi,K.Barish,A.Behera,R.Bellwied,A.Bhasin,J.Bielcik,J.Bielcikova,L.C.Bland,I.G.Bordyuzhin,J.D.Brandenburg,A.V.Brandin,J.Butterworth,H.Caines,M.Calderón de la Barca Sánchez,D.Cebra,I.Chakaberia,P.Chaloupka,B.K.Chan,F-H.Chang,Z.Chang,N.Chankova-Bunzarova,A.Chatterjee,D.Chen,J.H.Chen,X.Chen,Z.Chen,J.Cheng,M.Cherney,M.Chevalier,S.Choudhury,W.Christie,X.Chu,H.J.Crawford,M.Csanád,M.Daugherity,T.G.Dedovich,I.M.Deppner,A.A.Derevschikov,L.Didenko,X.Dong,J.L.Drachenberg,J.C.Dunlop,T.Edmonds,N.Elsey,J.Engelage,G.Eppley,S.Esumi,O.Evdokimov,A.Ewigleben,O.Eyser,R.Fatemi,S.Fazio,P.Federic,J.Fedorisin,C.J.Feng,Y.Feng,P.Filip,E.Finch,Y.Fisyak,A.Francisco,L.Fulek,C.A.Gagliardi,T.Galatyuk,F.Geurts,A.Gibson,K.Gopal,D.Grosnick,W.Guryn,A.I.Hamad,A.Hamed,S.Harabasz,J.W.Harris,S.He,W.He,X.H.He,S.Heppelmann,S.Heppelmann,N.Herrmann,E.Hoffman,L.Holub,Y.Hong,S.Horvat,Y.Hu,H.Z.Huang,S.L.Huang,T.Huang,X.Huang,T.J.Humanic,P.Huo,G.Igo,D.Isenhower,W.W.Jacobs,C.Jena,A.Jentsch,Y.JI,J.Jia,K.Jiang,S.Jowzaee,X.Ju,E.G.Judd,S.Kabana,M.L.Kabir,S.Kagamaster,D.Kalinkin,K.Kang,D.Kapukchyan,K.Kauder,H.W.Ke,D.Keane,A.Kechechyan,M.Kelsey,Y.V.Khyzhniak,D.P.Kikoła,C.Kim,B.Kimelman,D.Kincses,T.A.Kinghorn,I.Kisel,A.Kiselev,M.Kocan,L.Kochenda,L.K.Kosarzewski,L.Kramarik,P.Kravtsov,K.Krueger,N.Kulathunga Mudiyanselage,L.Kumar,S.Kumar,R.Kunnawalkam Elayavalli,J.H.Kwasizur,R.Lacey,S.Lan,J.M.Landgraf,J.Lauret,A.Lebedev,R.Lednicky,J.H.Lee,Y.H.Leung,C.Li,W.Li,W.Li,X.Li,Y.Li,Y.Liang,R.Licenik,T.Lin,Y.Lin,M.A.Lisa,F.Liu,H.Liu,P.Liu,P.Liu,T.Liu,X.Liu,Y.Liu,Z.Liu,T.Ljubicic,W.J.Llope,R.S.Longacre,N.S.Lukow,S.Luo,X.Luo,G.L.Ma,L.Ma,R.Ma,Y.G.Ma,N.Magdy,R.Majka,D.Mallick,S.Margetis,C.Markert,H.S.Matis,J.A.Mazer,N.G.Minaev,S.Mioduszewski,B.Mohanty,I.Mooney,Z.Moravcova,D.A.Morozov,M.Nagy,J.D.Nam,Nasim Md,K.Nayak,D.Neff,J.M.Nelson,D.B.Nemes,M.Nie,G.Nigmatkulov,T.Niida,L.V.Nogach,T.Nonaka,A.S.Nunes,G.Odyniec,A.Ogawa,S.Oh,V.A.Okorokov,B.S.Page,R.Pak,A.Pandav,Y.Panebratsev,B.Pawlik,D.Pawlowska,H.Pei,C.Perkins,L.Pinsky,R.L.Pintér,J.Pluta,J.Porter,M.Posik,N.K.Pruthi,M.Przybycien,J.Putschke,H.Qiu,A.Quintero,S.K.Radhakrishnan,S.Ramachandran,R.L.Ray,R.Reed,H.G.Ritter,O.V.Rogachevskiy,J.L.Romero,L.Ruan,J.Rusnak,N.R.Sahoo,H.Sako,S.Salur,J.Sandweiss,S.Sato,W.B.Schmidke,N.Schmitz,B.R.Schweid,F.Seck,J.Seger,M.Sergeeva,R.Seto,P.Seyboth,N.Shah,E.Shahaliev,P.V.Shanmuganathan,M.Shao,A.I.Sheikh,F.Shen,W.Q.Shen,S.S.Shi,Q.Y.Shou,E.P.Sichtermann,R.Sikora,M.Simko,J.Singh,S.Singha,N.Smirnov,W.Solyst,P.Sorensen,H.M.Spinka,B.Srivastava,T.D.S.Stanislaus,M.Stefaniak,D.J.Stewart,M.Strikhanov,B.Stringfellow,A.A.P.Suaide,M.Sumbera,B.Summa,X.M.Sun,X.Sun,Y.Sun,Y.Sun,B.Surrow,D.N.Svirida,P.Szymanski,A.H.Tang,Z.Tang,A.Taranenko,T.Tarnowsky,J.H.Thomas,A.R.Timmins,D.Tlusty,M.Tokarev,C.A.Tomkiel,S.Trentalange,R.E.Tribble,P.Tribedy,S.K.Tripathy,O.D.Tsai,Z.Tu,T.Ullrich,D.G.Underwood,I.Upsal,G.Van Buren,J.Vanek,A.N.Vasiliev,I.Vassiliev,F.Videbæk,S.Vokal,S.A.Voloshin,F.Wang,G.Wang,J.S.Wang,P.Wang,Y.Wang,Y.Wang,Z.Wang,J.C.Webb,P.C.Weidenkaff,L.Wen,G.D.Westfall,H.Wieman,S.W.Wissink,R.Witt,Y.Wu,Z.G.Xiao,G.Xie,W.Xie,H.Xu,N.Xu,Q.H.Xu,Y.F.Xu,Y.Xu,Z.Xu,Z.Xu,C.Yang,Q.Yang,S.Yang,Y.Yang,Z.Yang,Z.Ye,Z.Ye,L.Yi,K.Yip,H.Zbroszczyk,W.Zha,C.Zhang,D.Zhang,S.Zhang,S.Zhang,X.P.Zhang,Y.Zhang,Y.Zhang,Z.J.Zhang,Z.Zhang,Z.Zhang,J.Zhao,C.Zhong,C.Zhou,X.Zhu,Z.Zhu,M.Zurek,M.Zyzak.Measurement of away-side broadening with self-subtraction of flow in Au+Au collisions at √sNN=200 GeV[J].Chinese Physics C,2020,44(10):59-67. 被引量:2
  • 8Axel Brandenburg.Piecewise quadratic growth during the 2019 novel coronavirus epidemic[J].Infectious Disease Modelling,2020,5(1):681-690.
  • 9Zhenlei Liu,Andreas Nicolai,Marc Abadie,Menghao Qin,John Grunewald,Jianshun Zhang.Development of a procedure for estimating the parameters of mechanistic VOC emission source models from chamber testing data[J].Building Simulation,2021,14(2):269-282. 被引量:5
  • 10Chenji Zou,Hongbo Zhang,Yu Chen,Shun Feng,Lishu Wu,Jing Zhang,Ting Yu,Jingzhi Shang,Chunxiao Cong.Spatial variations of valley splitting in monolayer transition metal dichalcogenide[J].InfoMat,2020,2(3):585-592.

相关作者

内容加载中请稍等...

相关机构

内容加载中请稍等...

相关主题

内容加载中请稍等...

浏览历史

内容加载中请稍等...
;
使用帮助 返回顶部