Duration
Discipline
Level
Affiliation
Last Updated
Semester I
Subject Code | Subject | Credit |
Phy 511 | Mathematical Physics-I | 3 |
Phy 512 | Classical Mechanics | 3 |
Phy 513 | Quantum Mechanics-I | 3 |
Phy 514 | Electronics | 3 |
Phy 515a | General Physics Lab | 3 |
Phy 515b | Electronics Lab | 3 |
Total Credits | 18 |
Semester II
Subject Code | Subject | Credit |
Phy 551 | Mathematical Physics-II | 3 |
Phy 552 | Quantum Mechanics-II | 3 |
Phy 553 | Statistical Mechanics | 3 |
Phy 554 | Electrodynamics-I | 3 |
Phy 555a | General Physics Lab | 3 |
Phy555b | Electronics Lab | 3 |
Total Credits | 18 |
Semester III
Subject Code | Subject | Credit |
Phy 611 | Solid State Physics | 3 |
Phy 612 | Quantum Field Theory | 3 |
Phy 61x* | Elective-AI | 4 |
Phy 61y* | Elective-BI | 4 |
Phy 613a | Research Methodology | 3 |
Phy 613b | Advanced Research Methodology | 2 |
Total Credits | 19 |
Semester IV
Subject Code | Subject | Credit |
Phy 651 | Nuclear and Particle Physics | 3 |
Phy 652 | Electrodynamics-II | 3 |
Phy 65x* | Elective-AII | 4 |
Phy 65y* | Elective-BII | 4 |
Phy 653a | Basics of Computational Physics | 3 |
Phy 653b | Advanced Computational Physics | 3 |
Total Credits | 20 |
*Elective courses are offered from the following topic pool and the dissertation, depending on the need and availability of faculty and facilities. At the start of the third semester, students must confirm their selection, and the relevant department will determine the dissertation allocation criteria.
Elective Courses
Subject Code | Subject |
Phy 614 & Phy 654 | Astrophysics I & II |
Phy 617 & Phy 657 | Condensed Matter Physics I & II |
Phy 615 & Phy 655 | Material Science I & II |
Phy 618 & Phy 658 | Nanophysics I & II |
Phy 616 & Phy 656 | Plasma Physics I & II |
Phy 699 | Dissertation |
After completing the program, graduates will be able to:
Apply advanced concepts and theories of physics to complex scientific problems.
Analyze physical systems using mathematical, theoretical, and computational methods.
Conduct advanced laboratory experiments and interpret experimental results.
Apply principles of quantum mechanics, electrodynamics, statistical mechanics, and modern physics.
Use computational tools and techniques to model and solve physics-related problems.
Conduct independent research in theoretical, experimental, or applied physics.
Analyze and interpret scientific data using appropriate methods.
Develop specialized knowledge in areas such as solid-state physics, astrophysics, plasma physics, electronics, or nuclear physics.
Communicate scientific findings effectively through research papers, presentations, and reports.
Pursue careers in teaching, scientific research, technology, industry, and higher academic studies.
The Master of Science in Physics (MSc Physics) is a postgraduate program focused on advanced theoretical, experimental, and applied physics. The program covers areas such as quantum mechanics, classical mechanics, statistical mechanics, electrodynamics, solid-state physics, nuclear and particle physics, electronics, computational physics, and specialized areas of physics. It also emphasizes laboratory work, research, and scientific problem-solving