Masters of Science in Physics:
1. Total number of credits is thirty (30) spread over one year of which Twenty (20) credits will comprise theoretical courses. There will be Six (6) credits of practical (4), practical class assessment (2)/thesis work (4 Thesis+2 Viva), and four (4) credits of general oral examination (viva- voce).
2. The credit is defined as follows:
(i) For theoretical courses, 15 one-hour class lecturer = 1 credit.
For example existing full unit course is equivalnt to 4 credits.
(ii) For practical 30 hours of laboratory work will constitute one (1)
credit.
For non-thesis students
3. For practical, 4 credits will be awarded on final practical examination and 2 credits for practical class assessment. Total : 6 credits
For thesis students
Total : 6 credits
Credit Distribution
1. Theory : 5 X 4 = 20 credits
2. General viva : 1 X 4 = 04 credits
3. Non-thesis (practical) group /Thesis group* = 6 credits
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Total : = 30 credits
Non-thesis Group*
Total : 6 credits
Thesis Group*
Total : 6 credits
22 courses · 88 credit hours across 1 term
| Code | Course title | Credits | |
|---|---|---|---|
| PG 521 | General Relativity and Cosmology | 4 | Preamble, Elements of Tensor Calculus, Gravitation, The Schwarz schild solution and Blackholes, Cosmology |
| PG 522 | Theory, Differential Geometry and Topology | 4 | Mathematical Preliminaries, Introduction to Groups, Topological Space, Manifold, Differential Form and Exterior Calculus, Lie Groups and Lie Algebras |
| PG 541 | Quantum Field Theory I | 4 | Need for Quantum Fields, Lorentz and Poincare Symmetries, Symmetries, Noether’s, Theorem and Conservation laws, Gauge theory, Quantization of Free fields, Perturbation Theory and Feynman Diagrams, Cross Sections and Decay rates, Quantum Electrodynamics |
| PG 542 | Quantum Field Theory II | 4 | Path Integrals in Quantum Mechanics, Functional Methods in Field Theory, Non-Abelian Gauge Fields and Path Integrals, Renormalization and Renormalization Group, Spontaneous Symmetry Breaking |
| PG 543 | The Electroweak and Strong Interaction | 4 | Group Theory and Quarks, Chiral Symmetry and Strong Interaction, Spontaneous Symmetry Breaking, Weak Interaction, The Standard Model, Phenomenology of the Standard Model, The Structure of Hadron and Parton Model, . Introduction to Quantum Chromodynamics |
| PG 544 | Astroparticle Physics | 4 | |
| PG 545 | Advanced Laser Physics | 4 | |
| PG 550 | Advanced applications of Lasers | 4 | |
| PG 551 | Equilibrium Statistical Mechanics | 4 | |
| PG 552 | Non-equilibrium Statistical Mechanics | 4 | |
| PG 560 | Condensed Matter Physics and Materials Science | 4 | |
| PG 561 | Computational Physics | 4 | This course would constitute two parts namely theoretical part which will comprise of 30 lectures and will be examined in a 2.5 hour long exam carrying 50 marks and the remaining part will be consist of a weekly 3 hour hands on practice session using computers. The practical part will be graded based on in course evalution carrying 20 marks and a final in-lab practical exiamination carrying 30 marks. |
| PG 563 | Biomedical Physics | 4 | |
| PG 571 | Nuclear Physics | 4 | |
| PG 580 | Atmospheric Physics | 4 | |
| PG 581 | Atmospheric Physics and Meteorology I | 4 | |
| PG 582 | Atmospheric Physics and Meteorology II | 4 | |
| PG 583 | Optical Spectroscopy | 4 | |
| PG 585 | Reactor Physics | 4 | |
| PG 587 | Biophysics & Medical Imaging | 4 | |
| PG 588 | Polymer Physics | 4 | |
| PG 589 | Health and Radiation Physics | 4 |