1. Brief Overview of the Course
2. Measurement of Nuclear Sizes
3. Measurement of Nuclear Sizes II
4. Measurement of Nuclear Sizes III
5. Semi-empirical Mass Formula
6. Semi-empirical Mass Formula II
7. Semi-empirical Mass Formula III
8. Semi-empirical Mass Formula IV
9. Semi-empirical Mass Formula V
10. How Neutron Stars Bound
11. Deuteron
12. Deuteron II
13. Deuteron III
14. Scattering of Nucleons
15. Low Energy n-p Scattering
16. Theories of Nuclear Forces
17. Shell Model
18. Shell Model II
19. Shell Model III
20. Shell Model IV
21. Shell Model V
22. Collective Models
23. Vibrational and Rotational Levels
24. Radioactivity, Alpha Decay
25. Alpha Decay II
26. Beta Decay
27. Beta Decay II
28. Beta Decay III
29. Gamma Decay
30. Nuclear Reactions
31. Nuclear Reactions II
32. Nuclear Reactions III
33. Nuclear Fission Basics
34. Nuclear Fission of Uranium
35. Nuclear Fission Reactor
36. Nuclear Energy Programme of India
37. Nuclear Fusion
38. Nuclear Fusion II
39. Thermonuclear Fusion Reactors
40. Fusion Reactions in Stars and Stellar Neutrinos
41. Nucleosynthesis of Elements in Stars
42. Mössbauer Spectroscopy
43. RBS, PIXE, NAA, Summary of the Course

This basic course on Nuclear physics will give an introductory but still rigorous description of both experimental and theoretical aspects of the present understanding of nuclei and their interaction. Nuclear Physics originated with Geiger and Marsden bombarding alpha particles on metal foils including gold, hundred years ago sometime in the year 1909. The hundred year journey of Nuclear physics has been very exciting, both in terms of developing experimental techniques to probe at the length scale of femtometers and also developing right kind of theoretical models to understand the vigorous activities going on inside a nucleus. On one side it interfaces with Atomic Physics and on the other side with Particle Physics. (Source: nptel.ac.in)