1. Su Houng Lee 1. Statistical vs Coalescence model for hadron/nuclei yield 2. Few random comments with Bag model and multiquark 3. Multiquark states from Heavy Ion Collisions 4. May be p-A in LHC Hadron Production in Heavy Ion Collisions 1

2. 2 I: Statistical vs Coalescence model for Hadron production in Heavy Ion Collision Understanding yields of light nuclei

3. 3 u d c d u  c u p   C a c d  b G a/p G b/  dd D C/c X Hadron production in ( p+   C+X ) collision

4. 4 T>Tc T=Tc  1 fm/c 5 fm/c 7 fm/c 17 fm/c QGP T H : Hadronization Hadron phase T F : Freezeout Hadronization and freezeout in Heavy Ion Collision

5. 5 Statistical Model for Hadron Yield in HIC (PB Munzinger, Stachel, Redlich) Freezeout points

6. 6 Quark number scaling of v2 P T dependence of ratio v4 Ko et al d u d u u s d c d u u d s c c c d u M Coalescence model

7. 7 RHIC Statistical Model for light Nuclei RHIC/STAR antimatter

8. 8 LHC Statistical Model for light Nuclei

9. 9 T>Tc T=Tc  1 fm/c 5 fm/c 7 fm/c 17 fm/c QGP T H : Hadronization Hadron phase T F : Freezeout S/N is conserved (Siemens, Kapusta 79) Hadronic phase and Deuteron formation in Heavy Ion Collision

10. 10 Deuteron production (from ExHIC PRL, PRC papers) T H (175 MeV)T F (125 MeV)

11. 11 Hadronization and freeze out in Heavy Ion Collision T>Tc T=Tc  1 fm/c 5 fm/c 7 fm/c 17 fm/c QGP T H : Hadronization Hadron phase T F : Freezeout S/N is conserved (Siemens, Kapusta 79)

12. 12 Deuteron production at RHIC(prameters from ExHIC papers) T H (175 MeV)T F (125 MeV) V (fm 3 ) V (  p) 3N DeuteronTriton N stat (T H ) 19084.5300.30.018 N coal (T F )113225.5300.320.011

13. 13 II: Few random comments with Bag model Yield of Multiquark configurations

14. Normal meson TetraquarkMolecule Geometrical configuration Flavor quantum number ud 14 uu u d u d u u u d Normal meson, Tetraquark and Molecule Navara, Nielsen, SHLee Phys Rept (11)

15. 15 Naïve Bag Model for Multiquark states uu u d u d

16. 16 Suppression of p-wave resonance (Muller and Kadana En’yo) Coalescence model = Statistical model + overlap Success of Coalescence model Coalescence model : for things with structures d u d u u s d c d u u d s c c c d u p-wave s-wave d u d u

17. 17 d u d u u s d s d d d u d u u s d s u u u d u s Tetraquark configuration [overlap]<<1 Molecular configuration: [overlap]=1 d Normal meson [overlap]=1 d d u Hadron production through coalescence u d uu u d u u u d u d d u d

18. 18 S. Cho et al PRL 11 0.2 x Stat 5 x Stat Fachini [STAR]

19. 19 IV: Heavy Exotics from Heavy Ion Collision

20. 20  large number of c, b quark production  Vertex detector: weakly decaying exotics : FAIR 10 4 D 0 /month, LHC 10 5 D 0 /month New perspective of Hadron Physics from Heavy Ion Collision T cc /D > 0.34 x 10 -4 RHIC > 0.8 x 10 -4 LHC  T cc production

21. 21 Expectations [overlap] at LHC

22. 22 ExHIC (2011): multiquark/molecule candidates -decay modes

23. 23 ExHIC (2011): multiquark/molecule candidates - yield

24. 24 IV: High multiplicty p-A from heavy ion collision

25. 25 From MinJung Kweon, Inha Univ.

26. 26 D meson yield from p-Pb by ALICE RHICLHCLHC (p-Pb) N u =N d 245 662 30 V H (fm 3 )19002700200 C.M.Ko private communication

27. 27 2.Production rates from Heavy Ion collisions can be used to distinguish mulitquark from usual and molecular configuration:  f0 can not be a pure multiquark configuration 3. Heavy multiquark states + Exotics can be observed at LHC Summary 4. May be high multiplicity p-A reaction can be useful to reduce background 1. Yields of light nuclei can be understood from conservation of S/N