李湘楠 / 特聘研究員

連絡資訊

P708

886-2-2789-6726

hnli [at] phys.sinica.edu.tw

個人網頁

研究室網頁

學歷

美國紐約州立大學石溪分校博士

秘書

沈彩雲 / 886-2-2789-8386

samcy[at]phys.sinica.edu.tw

研究興趣

微擾量子色動力學
重夸克物理

獎項及殊榮

(1)	國內學術研究獎項	2019-02	科技部傑出特約研究員
(2)	國內學術研究獎項	2015, 2016, 2017, 2018	科技部特約研究計畫
(3)	國內學術研究獎項	2012-09	教育部學術獎
(4)	國內學術研究獎項	2012	國科會傑出研究獎
(5)	其他國際學術研究獎項	2010-02	Khwarizmi International Award
(6)	國內學術研究獎項	2009-01	國科會傑出學者研究計畫
(7)	其他國際學術研究獎項	2007	Achievement in Asia Award	from Overseas Chinese Physics Association
(8)	國內學術研究獎項	2002	國科會傑出研究獎
(9)	國內學術研究獎項	1997	國科會傑出研究獎

經歷

1992-1993 中研院物理所博士後研究員
1993-1996 國立中正大學物理系副教授
1996-1997 國立中正大學物理系教授
1997-2001 國立成功大學物理系教授
2001-迄今中研院物理所研究員

學術著作

期刊論文

[1] J.J. Han, Y. Li, H.N. Li*, Y.L. Shen, Z.J. Xiao, F.S. Yu*, 2022, “ $\Lambda_b -> p$ transition form factors in perturbative QCD”, The European Physical Journal C, 82, 686. (SCIE) (IF: 4.59; SCI ranking: 27.6%)
[2] H.N. Li, 2022, “Dispersive derivation of the pion distribution amplitude”, PHYSICAL REVIEW D, 106, 034015. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[3] H.N. Li, 2022, “Glauber gluons in pion-induced Drell-Yan processes revisited”, Physical Review D, 106, 014029. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[4] Y. Li, D.C. Yan, J. Hua, Z. Rui, H.N. Li, 2021, “Global determination of two-meson distribution amplitudes from three-body B decays in the perturbative QCD approach”, Physical Review D, 104(9), 096014. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[5] S. Benić, Y. Hatta, A. Kaushik, H.N. Li, 2021, “gT(x) contribution to single spin asymmetries in SIDIS”, Physical Review D, 104(9), 094027. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[6] H. N. Li, 2021, “Glauber gluons in annihilation amplitudes for heavy meson decays”, Chinese Journal of Physics, 73, 649-657. (SCIE) (IF: 3.237; SCI ranking: 33.7%)
[7] J. Hua, H.N. Li, C.D. Lü, W. Wang, Z.P. Xing, 2021, “Global analysis of hadronic two-body B decays in the perturbative QCD approach”, Physical Review D, 104(1), 016025. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[8] Z.Q. Zhang, H.N. Li, 2021, “Next-to-leading-logarithm threshold resummation for exclusive B meson decays”, The European Physical Journal C, 81(7), 595. (SCIE) (IF: 4.59; SCI ranking: 27.6%)
[9] Z. Rui, Y. Li, H.N. Li, 2021, “Four-body decays B(s) → (Kπ)S/P(Kπ)S/P in the perturbative QCD approach”, Journal of High Energy Physics, 2021(5), 082. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[10] Z.T. Zou, Y. Li, H.N. Li, 2021, “Is fX(1500) observed in the B→π(K)KK decays ρ0(1450)?”, Physical Review D, 103(1), 013005. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[11] X. Liu, H.N. Li, Z.J. Xiao, 2020, “Next-to-leading-logarithm $k_T$ resummation for $B_c\to J/\psi$ decays”, PHYSICS LETTERS B, 811, 135892. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[12] H.N. Li, H. Umeeda, 2020, “QCD sum rules with spectral densities solved in inverse problems”, Physical Review D, 102, 114014. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[13] H.N. Li, H. Umeeda, F. Xu, F.-S. Yu, 2020, “D meson mixing as an inverse problem”, PHYSICS LETTERS B, 810, 135802. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[14] J.S. Hong, T.K. Wang, A.E. Chen, H.N. Li, K.R. Chen, 2020, “Source Image Squeezing and Field Tunneling for Propagating Light Beyond-Limit Focusing to Reach the Intermediate Zone”, Plasmonics, 00, 00. (SCIE) (IF: 2.404; SCI ranking: 67.9%,65.5%,77.6%)
[15] H.N. Li, H. Umeeda, 2020, “Vacuum polarization contribution to muon g−2 as an inverse problem”, PHYSICAL REVIEW D, 102, 094003. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[16] D.J. Yang, H.N. Li, 2020, “Charm fragmentation functions in the Nambu-Jona-Lasinio model”, PHYSICAL REVIEW D, 102, 036023. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[17] Sanjin Benić, Yoshitaka Hatta, Hsiang-nan Li, and Dong-Jing Yang, 2019, “Single-spin asymmetries at two loops”, PHYSICAL REVIEW D, 100, 094027. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[18] Junmou Chen, Pyungwon Ko, Hsiang-nan Li, Jinmian Li, Hiroshi Yokoya, 2019, “Light dark matter showering under broken dark U(1) — revisited”, JOURNAL OF HIGH ENERGY PHYSICS, 01,141. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[19] Zhou Rui, Ya Li, and Hsiang-nan Li, 2018, “P-wave contributions to B→ψππ decays in the perturbative QCD approach”, PHYSICAL REVIEW D, 98, 113003. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[20] Liu Xin, Li Hsiang-nan, Xiao Zhen-Jun, 2018, “Improved perturbative QCD formalism for Bc meson decays”, Physical Review D, 97(11). (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[21] Hua-Yu Jiang, Fu-Sheng Yu, Qin Qin, Hsiang-nan Li, Cai-Dian Lü, 2018, “D0-bar D0 mixing parameter y in the factorization-assisted topological-amplitude approach”, CHINESE PHYSICS, 42, 063101.
[22] Chien Yang-Ting, Li Hsiang-nan, 2018, “Factorization of standard model cross sections at ultrahigh energy”, Physical Review D, 97(5). (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[23] Wang Chao, Liu Jing-Bin, Li Hsiang-nan, Lü Cai-Dian, 2018, “Three-body decays B→ϕ(ρ)Kγ in perturbative QCD approach”, Physical Review D, 97(3). (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[24] D. Wang, F.S. Yu, H.N. Li, 2017, “CP Asymmetries in Charm Decays into Neutral Kaons”, Physical Review Letters, 119(18), 181802. (SCIE) (IF: 9.161; SCI ranking: 8.1%)
[25] J. Isaacson, H.N. Li, Z. Li, C.P. Yuan, 2017, “Factorization for substructures of boosted Higgs jets”, PHYSICS LETTERS B, 771, 619-623. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[26] S. Cheng, Y.L. Zhang, J. Hua, H.N. Li, Z.J. Xiao, 2017, “Revisiting factorization theorem for $\rho \gamma^*\to \pi (\rho)$ at twist 3”, PHYSICAL REVIEW D, 95, 076005. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[27] H.N. Li, 2016, “Non-dipolar Wilson links for quasi-parton distribution functions”, PHYSICAL REVIEW D, 94, 074036. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[28] W.F. Wang, H.N. Li, 2016, “Quasi-two-body decays $B \to K\rho \to K\pi\pi$ in perturbative QCD approach”, PHYSICS LETTERS B, 763, 29-39. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[29] D.J. Yang, H.N. Li*, 2016, “Gluon fragmentation functions in the Nambu-Jona-Lasinio model”, PHYSICAL REVIEW D, 94, 054041. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[30] Y. Kitadono, H.N. Li, 2016, “Jet substructures of boosted polarized hadronic top quarks”, PHYSICAL REVIEW D, 93, 054043. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[31] X. Liu, H.N. Li, Z.J. Xiao, 2016, “Resolving the $B \to K π$ puzzle by Glauber-gluon effects ”, PHYSICAL REVIEW D, 93, 014024. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[32] A. Watanabe, H.N. Li*, 2015, “Photon structure functions at small x in holographic QCD ”, PHYSICS LETTERS B, 751, 321-325. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[33] H.N. Li, Y.M. Wang, 2015, “Non-dipolar Wilson links for transverse-momentum-dependent wave functions ”, JOURNAL OF HIGH ENERGY PHYSICS, 1506, 013. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[34] X. Liu, H.N. Li*, Z.J. Xiao, 2015, “Transverse-momentum-dependent wave functions with Glauber gluons in $B\to\pi\pi$ , $\rho\rho$ decays ”, PHYSICAL REVIEW D, 91, 11, 114019. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[35] W.F. Wang, H.N. Li, W. Wang, C.D. Lu , 2015, “ $S$ -wave resonance contributions to the $B_{0(s)}\to J/\psi\pi^+\pi^−$ and $B_s \to\pi^+\pi^−\mu^+\mu^−$ decays ”, PHYSICAL REVIEW D, 91, 9, 094024. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[36] H.N. Li, S. Mishima, 2014, “Glauber gluons in spectator amplitudes for $B\to\pi M$ decays”, PHYSICAL REVIEW D, 90, 074018. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[37] H.N. Li, 2014, “Resummation with Wilson lines off the light cone”, PHYSICS OF PARTICLES AND NUCLEI, 45 (4), 756-770. (SCIE) (IF: 0.485; SCI ranking: 96.6%)
[38] Y. Kitadono, H.N. Li, 2014, “Jet substructures of boosted polarized top quarks”, PHYSICAL REVIEW D, 89, 114002. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[39] W.F. Wang, H.C. Hu, H.N. Li*, C.D. Lü, 2014, “Direct CP asymmetries of three-body $B$ decays in perturbtive QCD”, PHYSICAL REVIEW D, 89, 074031. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[40] Q. Qin, H.N. Li, C.D. Lu, F.S. Yu,, 2014, “Branching ratios and direct CP asymmetries in $D\to PV$ decays”, PHYSICAL REVIEW D, 89, 054006. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[41] Q. Qin, Z.T. Zou, X. Yu, H.N. Li, C.D. Lü, 2014, “Perturbative QCD study of $B_s$ decays to a pseudoscalar meson and a tensor meson ”, PHYSICS LETTERS B, 732, 36-40. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[42] H.N. Li, Y.L. Shen, Y.M. Wang, 2014, “Joint resummation for pion wave function and pion transition form factor”, JOURNAL OF HIGH ENERGY PHYSICS, 01, 004. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[43] V. Rentala, N. Vignaroli, H.N. Li*, Z. Li, C.P. Yuan* , 2013, “Discriminating Higgs production mechanisms using jet energy profiles ”, PHYSICAL REVIEW D, 88, 073007. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[44] C.P. Chang and H.N. Li, 2013, “Glauber gluons in pion-induced Drell-Yan processes”, PHYSICS LETTERS B, 726, 262-265. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[45] H.N. Li, Z. Li, C.P. Yuan, 2013, “QCD resummation for light-particle jets”, PHYSICAL REVIEW D, 87, 074025. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[46] Y. Kitadono, H.N. Li, 2013, “Spin analyzing power for polarized top decays with jets”, PHYSICAL REVIEW D, 87, 054017. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[47] H.N. Li, Y.L. Shen, Y.M. Wang, 2013, “Resummation of rapidity logarithms in $B$ meson wave functions”, JOURNAL OF HIGH ENERGY PHYSICS, 02, 008. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[48] H.C. Hu, H.N Li, 2013, “Next-to-leading-order time-like pion form factors in $k_T$ factorization”, PHYSICS LETTERS B, 718, 1351-1357. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[49] H.N. Li, C.D. Lu, F.S. Yu, 2012, “Branching ratios and direct CP asymmetries in $D\to PP$ decays”, PHYSICAL REVIEW D, 86 (3), 036012. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[50] X. Liu, H.N. Li, Z.J. Xiao, 2012, “`Implications on $\eta$ - $\eta'$ -glueball mixing from $B_{d/s} \to J/\Psi\eta^{(')}$ Decays”, PHYSICAL REVIEW D, 86(1), 011501(R). (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[51] Y.C. Chen, H.N. Li, 2012, “Three-parton contribution to the $B\to\pi$ form factors in $k_T$ factorization”, PHYSICS LETTERS B, 712(1-2), 63-69. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[52] H.N. Li, Y.L. Shen, Y.M. Wang, 2012, “Next-to-leading-order corrections to $B \to \pi$ form factors in $k_T$ factorization”, PHYSICAL REVIEW D, 85(7), 074004. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[53] Y.D. Tsai, H.N. Li, Q. Zhao, 2012, “ $\eta_c$ mixing effects on charmonium and $B$ meson decays”, PHYSICAL REVIEW D, 85(3), 034002. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[54] H.N. Li, Z. Li, C.P. Yuan, 2011, “QCD resummation for jet substructures”, PHYSICAL REVIEW LETTERS, 107(15), 152001. (SCIE) (IF: 9.161; SCI ranking: 8.1%)
[55] Y.C. Chen, H.N. Li, 2011, “Three-parton contribution to pion form factor in $k_T$ factorization”, PHYSICAL REVIEW D, 84(3), 034018. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[56] C.P. Chang and H.N. Li, 2011, “Restoration of $k_T$ factorization for low $p_T$ hadron hadroproduction”, EUROPEAN JOURNAL OF PHYSICS C, 71(6), 1687.
[57] R.C. Hsieh and H.N. Li, 2011, “Nonlocal condensate model for QCD sum rules”, PHYSICS LETTERS B, 698(2), 140-145. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[58] H.N Li, Y.L. Shen, Y.M. Wang, and H. Zou, 2011, “Next-to-leading-order correction to pion form factor in $k_T$ factorization”, PHYSICAL REVIEW D, 83(5), 054029. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[59] H.N. Li and S. Mishima, 2011, “Possible resolution of the $B \to \pi \pi, \pi K$ puzzles”, PHYSICAL REVIEW D, 83(3), 034023. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[60] H.N. Li, S. Mishima, 2009, “Pion transition form factor in $k_T$ factorization”, PHYSICAL REVIEW D, 80, 074024. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[61] H.N. Li, S. Mishima, 2009, “Comment on "Gauge Invariance and $k_T$ -Factorization of Exclusive Processes”, PHYSICS LETTERS B, 674(3), 182. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[62] H.Y. Cheng, H.N. Li, K.F. Liu, 2009, “Pseudoscalar glueball mass from $\eta$ - $\eta'$ - $G$ mixing”, PHYSICAL REVIEW D, 79(1), 014024. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[63] J. Chay, H.N. Li, S. Mishima, 2008, “Possible complex annihilation and $B \to K \pi$ direct CP asymmetry”, PHYSICAL REVIEW D, 78(3), 034037. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[64] J.F. Hsu, Y.Y. Charng, H.N. Li, 2008, “Okubo-Zweig-Iizuka-rule violation and $B\to \eta^{(\prime)}K$ branching ratios”, PHYSICAL REVIEW D, 78(1), 014020. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[65] S. Nandi, H.N. Li, 2007, “Next-to-leading-order corrections to exclusive processes in k_T factorization.”, PHYSICAL REVIEW D, 76(3), 034008. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[66] H.N. Li and S. Mishima, 2007, “Penguin pollution in the $B^0 \to J/\psi K_S$ decay. ”, JOURNAL OF HIGH ENERGY PHYSICS, 07(3) ,009. (SCIE) (IF: 5.81; SCI ranking: 17.2%)
[67] W.S. Hou, H.N. Li, S. Mishima, M. Nagashima , 2007, “Fourth generation CP violation effect on B $\to$ K pi, phi K and rho K in NLO PQCD.”, PHYSICAL REVIEW LETTERS, 98(13),131801. (SCIE) (IF: 9.161; SCI ranking: 8.1%)
[68] H.N. Li, S. Mishima, 2006, “Penguin-dominated $B \to PV$ decays in NLO perturbative QCD”, PHYSICAL REVIEW D, 74, 094020. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[69] Y.Y. Charng, T. Kurimoto, H.N. Li, 2006, “Gluonic contribution to $B\to \eta^{(\prime)}$ form factors”, PHYSICAL REVIEW D, 74, 074024. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[70] H.N. Li, S. Mishima, 2006, “Implication of the $B\to\rho\rho$ data on the $B \to \pi \pi$ puzzle”, PHYSICAL REVIEW D, 73, 114014. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[71] H.N. Li , 2005, “Resolution to the B ->phi K* polarization puzzle”, PHYSICS LETTERS B, 622(1-2), 63-68. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[72] Y.Y. Charng, H.N. Li, 2005, “B meson wave function from the $B\to\gamma l\nu$ decay”, PHYSICAL REVIEW D, 72(1), 014003. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[73] C.H. Chen, H.N. Li , 2005, “Nonfactorizable contributions to B meson decays into charmonia”, PHYSICAL REVIEW D, 71(11), 114008. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[74] M. Nagashima, H.N. Li, 2005, “Two-parton twist-3 factorization in perturbative QCD”, EUROPEAN PHYSICAL JOURNAL C, 40(3), 395-417. (SCIE) (IF: 4.59; SCI ranking: 27.6%)
[75] H.N. Li, S. Mishima, 2005, “Polarizations in B -> VV decays”, PHYSICAL REVIEW D, 71(5), 054025. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[76] Y.Y. Charng, H.N. Li, 2005, “Determining weak phases from the $B\to\pi\pi$ , $K\pi$ decays”, PHYSICAL REVIEW D, 71(1), 014036. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[77] H.N. Li, H.S. Liao , 2004, “B meson wave function in k(T) factorization”, PHYSICAL REVIEW D, 70(7), 074030. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[78] R.C. Hsieh, H.N. Li , 2004, “Transition to perturbative QCD in two-photon collisions”, PHYSICAL REVIEW D, 70(5), 056002. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[79] C.H. Chen, H.N. Li, 2004, “Vector-pseudoscalar two-meson distribution amplitudes in three-body B meson decays”, PHYSICAL REVIEW D, 70(5), 054006. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[80] Y.Y. Charng, H.N. Li , 2004, “Weak phases from topological-amplitude parametrization”, PHYSICS LETTERS B, 594(1-2), 185-195. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[81] Y.Y. Keum, T. Kurimoto, H.N. Li, C.D. Lu, A.I. Sanda, 2004, “Nonfactorizable contributions to $B \to D^{(*)} M$ decays”, PHYSICAL REVIEW D, 69(9), 094018. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[82] C.H.Chen, H.N. Li, 2004, “Looking for D-sJ* mesons in B meson decays”, PHYSICAL REVIEW D, 69(5), 054002. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[83] C.H. Chen, H.N. Li , 2003, “Three-body nonleptonic B decays in perturbative QCD”, PHYSICS LETTERS B, 561(3-4): 258-265. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[84] T. Kurimoto T, H.N. Li, A.I. Sanda , 2003, “ $B\to D^{(*)}$ form factors in perturbative QCD”, PHYSICAL REVIEW D, 67(5), 054028. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[85] H.N. Li, K. Ukai , 2003, “Threshold resummation for nonleptonic B meson decays”, PHYSICS LETTERS B, 555(3-4): 197-205. (SCIE) (IF: 4.771; SCI ranking: 26.5%,21.1%,24.1%)
[86] M. Nagashima, H.N. Li , 2003, “ $k_T$ factorization of exclusive processes”, PHYSICAL REVIEW D, 67(3): 034001. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[87] H.N. Li, 2003, “QCD aspects of exclusive B meson decays”, PROGRESS IN PARTICLE AND NUCLEAR PHYSICS, 51(1), 85-171. (SCIE) (IF: 16.281; SCI ranking: 5.3%,6.9%)
[88] H.N. Li, 2002, “Threshold resummation for $B$ meson decays”, PHYSICAL REVIEW D, 66((9): 094010. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[89] Y.Y. Keum, H.N. Li, A.I. Sanda, 2001, “`Penguins enhancement and $B\to K\pi$ decays in perturbative QCD”, PHYSICAL REVIEW D, 63, 054008. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)

學術會議(研討會)論文

[1] Watanabe Akira, Li Hsiang-nan, 2018, “Electron-photon deep inelastic scattering at small x in holographic QCD”, 056 pages, paper presented at Proceedings of XXVI International Workshop on Deep-Inelastic Scattering and Related Subjects — PoS(DIS2018), Kobe, Japan: Kobe University, 2018-04-16 ~ 2018-04-20.
[2] A. Watanabe, H.N. Li, 2016, “Hadronic structure of the photon at small x in holographic QCD”, paper presented at International Workshop on QCD - Theory and Experiment, Martina Franca, Italy: Istituto Nazionale di Fisica Nucleare, 2016-06-27 ~ 2016-06-30.
[3] H.N. Li, 2013, “Glauber gluons in pion-induced Drell-Yan processes”, 133 pages, paper presented at XV International Conference on Hadron Spectroscopy-Hadron 2013, Nara, Japan: Nagoya University, 2013-11-04 ~ 2013-11-08.
[4] N.N. Li, 2012, “Quantum Chromodynamics”, 95 pages, paper presented at 1st Asia-Europe-Pacific School of High-Energy Physics, Fukuoka, Japan: CERN, KEK, 2012-10-14 ~ 2012-10-27.
[5] H.N. Li, 2011, “QCD resummation for jet substructures”, paper presented at 14th Workshop on Elastic and Diffractive Scattering, Quy Nhon, Vietnam: Brown University, 2011-12-15 ~ 2011-12-21.
[6] H.N. Li, 2011, “QCD resummation for jet profiles ”, 832-834 pages, paper presented at 19th Particles and Nuclei International Conference, Boston: MIT, 2011-07-24 ~ 2011-07-29.
[7] H.N. Li, 2009, “General Theoretical Introduction to Hadronic $B$ Decays”, paper presented at Flavor Physics and CP Violation 2009, Lake Placid: Syracuse University, 2009-05-27 ~ 2009-06-01.
[8] H.N. Li, 2007, “Next-to-leading-order calculation in $k_T$ factorization”, Chinese Physics C Vol. 33, No. 6, 1-7 pages, paper presented at the 6th Interdisciplinary Conference on Frontier of Particle Physics, Nuclear Physics, and Cosmology, Lijiang, Yunnan, China: Nankai University, 2007-07-22 ~ 2007-07-27.
[9] H.N. Li, 2007, “Factorization Approaches to B Meson Decays ”, paper presented at 5th Flavor Physics and CP Violation Conference, Bled, Slovenia: University of Ljubljana, 2007-05-12 ~ 2007-05-16.
[10] H.N. Li, 2006, “Puzzles in B physics”, Pramana 67, 755 pages, paper presented at The 9th Workshop on High Energy Physics Phenomenology, Bhubaneswar, Orissa, India: Institute of Physics, 2006-01-03 ~ 2006-01-14.
[11] M.K. Parida et al., 2006, “Working group report: Flavor physics and model building”, Pramana 67, 849-860 pages, paper presented at the 9th Workshop on High Energy Physics Phenomenology, Bhubaneswar, Orissa, India: Institute of Physics, 2006-01-03 ~ 2006-01-14.

專書著作

[1] H.N. Li, G.L. Lin and W.M. Zhang, 2000, Proceedings of the Fifth International Workshop on Particle Physics Phenomenology, Singapore: World Scientific.
[2] H.Y. Cheng, W.S. Hou, H.N. Li and G.L. Lin, 1998, Proceedings of the Fourth International Workshop on Particle Physics Phenomenology, Singapore: World Scientific.

發現與突破

[1] 西元年：2022
研究人員(中)：李湘楠
研究人員(英)：LI, HSIANG NAN
研究成果名稱(中)：基於色散關係的非微擾方法
研究成果名稱(英)：Dispersion-relation-based nonperturbative approach
簡要記述(中)：李湘楠特聘研究員在最近的一系列研究工作中提出一個嶄新的探討非微擾量子色動力學（QCD）的方法。給定一個定義為強子關聯函數的物理量，他們以關聯函數在高能量區標準的算子乘積展開為輸入，直接求解關聯函數滿足的色散關係，並獲得該物理量在低能量區的非微擾行為。與著名的、幾十年來被廣泛採用的 QCD 求和規則相比，他們的方法沒有來自共振建模和夸克強子對偶性假設的理論不確定性，具有更高的預測能力，並且可以系統地改進其精確度。應用此方法，他們重現了 rho 介子（包括激發態）的性質，預測膠球的質量，並獲得整個動量分數空間中的領頭扭度 pi 介子分佈振幅。
簡要記述(英)：Dr. Hsiang-nan Li developed a novel analytical approach to studies of nonperturbative quantum chromodynamics (QCD) in a series of works recently. Given a quantity defined as a hadronic correlation function, they can solve the dispersion relation obeyed by the correlation function directly from its standard operator-product-expansion inputs at high energy, and obtain nonperturbative behaviors of the quantity at low energy. Compared to the well-known QCD-sum-rule method, which has been widely adopted for several decades, their approach is free of theoretical uncertainties from the resonance modeling and the assumption of the quark-hadron duality, has much higher predictive power, and can be improved systematically in precision. Applying their framework, they have reproduced rho meson (including excited states) properties, predicted glueball masses, and acquired the leading-twist pion distribution amplitude in the entire momentum-fraction space.
主要相關著作：
H.N. Li, 2022, “Dispersive derivation of the pion distribution amplitude”, PHYSICAL REVIEW D, 106, 034015. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)
[2] 西元年：2017
研究人員(中)：李湘楠、王迪, 余福升
研究人員(英)：LI, HSIANG NAN, D. Wang, F.S. Yu
研究成果名稱(中)：粲夸克衰變至中性K介子中的CP非對稱性
研究成果名稱(英)：CP asymmetries in charm decays into neutral kaons
簡要記述(中)：我們在含粲夸克粒子衰變到中性K介子的過程中發現了新的CP破壞效應，其機制源自初態粒子衰變和末態粒子震盪之間的干涉作用，這現象和已知的混合導致的CP破壞不同，後者是來自初態粒子衰變和初態粒子震盪之間的干涉作用。歐洲核子中心大型強子對撞機LHCb實驗組及日本高能加速器研究機構的Belle II實驗組已準備測量並驗證這新的CP破壞效應，研究成果發表在2017年10月的物理評論通訊。
簡要記述(英)：We find a new CP-violation effect in charm decays into neutral kaons, which results from the interference between two decay amplitudes of an initial-state particle with the mixing of final-state particles. This phenomenon differs from the known mixing-induced CP violation, which results from the decay amplitudes and the mixing of an initial-state particle. This new CP violation effect will be measured and verified by the LHCb collaboration at CERN and the Belle II collaboration at KEK in Japan. Our work has been published in Physical Review Letters in Oct. of 2017.
[3] 西元年：2011
研究人員(中)：李湘楠
研究人員(英)：LI, HSIANG NAN
研究成果名稱(中)：噴流次結構的量子色動力學重求和方法
研究成果名稱(英)：QCD resummation for jet substructures
簡要記述(中)：本所研究員李湘楠博士與密西根州立大學研究人員合作，以微擾量子色動力學的重求和(resummation)方法為基礎，建立強子對撞機中噴流(jet)現象的理論架構，成功描述費米實驗室及大型強子對撞機測量的噴流質量與噴流內部的能量分佈。噴流的測量是高能實驗物理學家用以辨識對撞機生成粒子(包括新粒子)的主要方法，之前對於這些觀測量的預測必須依賴數值模擬，李湘楠博士的工作首度實現物理學家以量子場論研究噴流現象的想法，此最新研究成果已發表於《物理評論通訊(Physical Review Letters)》。
簡要記述(英)：Dr. Hsiang-nan Li developed a theoretical framework for studying jet observables through a collaboration with researchers of Michigan State University, which is based on the perturbative QCD resummation. Using this framework, they have successfully explained jet distributions in invariant mass and jet energy profiles measured by Fermilab and Large Hadron Collider. Jet observables have been used to identfy particles produced at hadron colliders, whose predictions always rely on Event Generators. Dr. Li｀s work realized the goal of studying these observables using Quantum Field Theory for the first time. This new development has been published in Physical Review Letters.

主要相關著作：
H.N. Li, Z. Li, C.P. Yuan, 2011, “QCD resummation for jet substructures”, PHYSICAL REVIEW LETTERS, 107(15), 152001. (SCIE) (IF: 9.161; SCI ranking: 8.1%)
[4] 西元年：2007
研究人員(中)：李湘楠、侯維恕、三島智、長島真紀子
研究人員(英)：LI, HSIANG NAN, We--Shu Hou, Satoshi Mishima, Makiko Nagashima
研究成果名稱(中)：B介子衰變中的第四代CP破缺效應
研究成果名稱(英)：Fourth Generation CP Violation Effects on $B\to K \pi$ , $\phi K$ and $\rho K$
簡要記述(中)：李湘楠與侯維恕、三島智、長島真紀子合作探討第四代夸克對企鵝圖佔主要貢獻的雙體非輕子B介子衰變的影響。利用次階微擾量子色動力學架構下較大的色壓低樹振幅，加上第四代夸克引入的新CP相角，可對B -> K pi, phi K 和 rho K 衰變道中直接及混合引發的CP對稱破缺
實驗數據做出較好的解釋。此研究對最近B工廠發現的知名難題提供了可能的解答，這項工作已發表在物理界最權威的期刊《物理評論通訊》 Physical Review Letters 98 (2007) 131801 。

簡要記述(英)：We study the effect from a sequential fourth generation quark on
penguin-dominated two-body nonleptonic $B$ meson decays in the
next-to-leading order perturbative QCD formalism. With an
enhancement of the color-suppressed tree amplitude and possibility
of a new CP phase in the electroweak penguin, we can account
better for $A_{\rm CP}(B^0\to K^+\pi^-)-A_{\rm CP}(B^+\to<br /> K^+\pi^0)$ . Taking $|V_{t's}V_{t'b}|\sim 0.02$ with phase just
below $90^\circ$ , which are consistent with the $b\to<br /> s\ell^+\ell^-$ rate and the $B_s$ mixing parameter $\Delta<br /> m_{B_s}$ , we find a downward shift in the mixing-induced CP
asymmetries of $B^0\to K_S \pi^0$ and $\phi K_S$ . The predicted
behavior for $B^0\to\rho^0 K_S$ is opposite.
[5] 西元年：2001
研究人員(中)：李湘楠、琴龍淵, 三田一郎
研究人員(英)：LI, HSIANG NAN, Y.Y. Keum, A.I. Sanda
研究成果名稱(中)：B介子雙體非輕子衰變的理論
研究成果名稱(英)：Theory for two-body nonleptonic B meson decays
簡要記述(中)：雙體非輕子衰變是近年來B物理領域中最重要的課題，此衰變的測量可決定標準模型中的基本參數，CKM（Cabibbo-Kobayashi-Maskawa）矩陣元，此矩陣元若為複數，其相角即為CP對稱性破壞的來源之一。然而，實驗數據並不直接與CKM矩陣元關聯，所有強子過程皆包含量子色動力學（QCD）的機制，此機制的非微擾性使以上的關聯益形複雜。發展B介子衰變的QCD理論乃成為B物理理論界最迫切的任務。本人於2000年提出研究B介子雙體非輕子衰變的理論，以微擾量子色動力學（PQCD）為基礎，具有預測能力。許多PQCD的預測都獲得實驗的證實，譬如本人在2001年預測 B -> K pi 中的CP破缺約為 -10%，後來獲得史旦福大學的線性加速器中心（SLAC）和日本的高能加速器研究機構（KEK）B工廠（分別稱為BABAR和BELLE）的證實。PQCD已成為B物理領域的主要QCD理論。
簡要記述(英)：Two-body nonleptonic B meson decays are one of the most important subjects in B physics, whose measurements can be used to determine the fundamental parameters, the CKM (Cabibbo-Kobayashi-Maskawa） matrix elements, in the Standard Model. If these matrix elements are complex, their phases will be one of the sources of CP violation in the universe. However, experimental data are not directly related to the CKM matrix elements. All hadronic processes involve mechanism from Quantum Chromodynamics (QCD), whose nonperturbative origin further complicates the relation. Developing a QCD theory for B meson decays became a urgent task in the theoretical community of B physics. We proposed a theory for the study of two-body nonleptonic B meson decays based on perturbative QCD (PQCD) in 2001, which has strong predictive power. Many PQCD predictions have been confirmed by experiments. For example, we predicted the direct CP asymmetry in $B\to K \pi$ decays to be -10% in 2001, that was confirmed by the B factories at the SLAC National Accelerator Laboratory in USA and at KEK in Japan, which are called BABAR and Belle, respectively. PQCD has become one of the major QCD theories in B physics.
主要相關著作：
Y.Y. Keum, H.N. Li, A.I. Sanda, 2001, “`Penguins enhancement and $B\to K\pi$ decays in perturbative QCD”, PHYSICAL REVIEW D, 63, 054008. (SCIE) (IF: 5.296; SCI ranking: 22.1%,20.7%)

個人資料維護 | 著作目錄維護與同步更新 | 最後更新日期 : 2023-03-29