1. Color Glass Condensate 1.) saturation problem in HEP 2.) evolution equations 3.) basics of gluon saturation 4.) basics of CGC

2. Thanks for material to: Marzia Nardi Larry McLerran Dima Kharzeev Martijn Russcher Elena Ferreiro Kazunori Itakura

3. Experimental puzzle in HEP (I)

4. Froissart Bound

5. Questions

6. Particle Multiplicities in HEP

7. Picture of particle production

8. Deep Inelastic Scattering

10. DIS kinematics

11. DIS kinematics (cont.)

12. Deep Inelastic Scattering (cont.)

13. Structure functions (PDF) of a proton

14. Data (ZEUS 1994)

15. The Gluon ‘blows up’ RHIC

16. The gluon ‘blows up’

17. Gluon saturation

18. Gluon density in hadrons

19. NMC / E665 Shadowing measurements

20. Structure function and DGLAP

21. Qualitative description of DGLAP

22. DGLAP at small x

23. Structure function and BFKL

24. Qualitative description of BFKL

25. BFKL details

26. Visualize BFKL in Bjorken frame

27. Can BFKL explain the rise in F 2 ?

28. Initial Summary: the small x problem

29. Motivation for the CGC

30. Gluon recombination

31. Gribov-Levin-Ryskin equation

32. Shadowing via GLR

33. Saturation region

34. A possible phase diagram

35. Universality in the CGC model

36. Saturation and Quantum Evolution

37. The McLerran-Venugopolan model

38. Why the Color Glass Condensate ?

39. CGC phase diagram

40. CGC formalism details (I)

44. CGC formalism details (I): Classical YM theory

45. CGC formalism details (I): Wilson renormalizaiton

46. CGC formalism summary

47. A new effective theory

48. Another phase diagram

49. Saturation scale

50. Saturation momentum

51. Saturation scale (II)

52. Effective theory solutions

53. Saturation scale in nuclei

54. A time evolution for ‘matter’

55. Phenomenology at RHIC

56. Final phase diagram

58. The reach of RHIC

59. CGC at LHC