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Bachelor of Science (Research)

Indian Institute of Science Bangalore
Bachelor of Science (Research) • Major

Physics

Basic Structure

The Physics major provides a strong grounding in both theoretical and experimental physics. The program covers the entire spectrum from classical mechanics and electromagnetism to quantum mechanics and statistical physics. Students have the opportunity to engage in cutting-edge research in various frontier areas of physics. All students are required to complete a minimum of 131 credits to qualify for the Bachelor of Science (Research) degree.

Basic Course
(Sem 1-3)
Engineering
(Sem 2-3)
Humanities
(Sem 1-6)
Major and ProjectMinor
(Optional)
Electives
(Assortment Courses)
Total
4069511510 - 25131
25*

NOTE:

  1. *Students not opting for a minor should fulfil 25 credits of assortment courses.
  2. To be eligible for a minor, a student should fulfil 15 credits from the minor pool.
  3. Excess credit(s) from any pool will be counted towards assortment credits.

Semester-wise Course Requirements

To view the common shared curriculum (Semesters 1-3), please click here.

Course CodeCourse NameInstructorCredits
Nirmal Raj, R. Ganesan, D. S. Nadig2:1
Ranjan Laha, Victor S Muthu, Abha Misra2:1
Prabal Maiti, Upendra Behera, Minakshi Nayak2:1
Humanities **/
-8:11
Reduced Load15-17
Enhanced Load15-21
Note:
**
Humanities:
A. Humanities courses cannot be dropped in both semesters IV and V.
B. Students must complete 9 credits in humanities pool by the end of six semester.

Recommended Course Load

SemesterCriteriaCredits
IStudent needs to register for a fixed number of credits18
IINo CGPA and TGPA requirementsMin.: 17 and Max.: 21
IIINo CGPA and TGPA requirementsMin.: 17 and Max.: 21
IVCGPA < 8.0Min.: 15 and Max.: 17
CGPA ≥ 8.0Min.: 15 and Max.: 21
V to VIIICGPA < 8.0 or Preceding term TGPA < 8.0Min.: 16 and Max.: 18
CGPA ≥ 8.0 or Preceding term TGPA ≥ 8.0Min.: 16 and Max.: 21

Suggested Core Electives:

Along with below Suggested Electives for Physics Major and Minor, Any courses offered by Centre for High Energy Physics (CHEP) / Instrumentation and Applied Physics (IAP) / Physics departments will be considered towards Major and Minor electives with the consent of the course instructor.

Note:

January - April Semester: Please choose courses specifically offered for the January semester. These courses are tailored for the start of the year.

August - December Semester: For those starting in the August semester, select courses that are available for the August intake.

Course CodeTitleCreditsInstructors
AE 202Fluid Dynamics3:0-
AE 210Gas Dynamics3:0-
HE 215Nuclear and Particle Physics3:0-
HE 315Advanced Mathematical Physics3:0-
HE 316Advanced Mathematical Methods in Physics3:0-
HE 322QCD and Collider Physics3:0-
HE 379Physics Beyond Standard Model3:0-
HE 381Quantum Field Theory on a Quantum Computer3:0-
HE 384Quantum Computation3:0-
HE 386Experimental High Energy Physics3:0-
HE 389AdS/CFT -or- Quantum Gravity in Anti-de Sitter Space3:0-
HE 390Black Holes, Holography and Quantum Information3:0-
HE 391Quantum Mechanics III3:0-
HE 392Standard Model of Particle Physics3:0-
HE 392String Theory3:0-
HE 393String Theory II3:0-
HE 395Quantum Field Theory - I3:0-
HE 396Quantum Field Theories - II3:0-
HE 397The Standard Model of Particle Physics3:0-
HE 398General Relativity3:0-
IN 201Analytical Instrumentation3:0-
IN 205Optical Instrumentation lab 10:3-
IN 206Signals and Systems for Digital Health2:1-
IN 214Semiconductor Devices and Circuits3:0-
IN 221Sensors and Transducers3:0-
IN 222Microcontrollers and Applications3:0-
IN 222Sensors and Transducers Laboratory2:1-
IN 223Plasma Processes3:0-
IN 224Nanoscience and Device fabrication3:0-
IN 227Control Systems Design3:0-
IN 228Automatic System Control Engineering3:0-
IN 229Advanced Instrumentation Electronics3:0-
IN 232Concepts in solid state physics3:0-
IN 234Biomedical Optics and Spectroscopy3:0-
IN 244Optical Metrology2:1-
IN 247Principles of Tomographic Imaging3:0-
IN 266Introduction to Quantum Measurement and Control3:0-
IN 267Fluorescence Microscopy and Imaging3:0-
IN 268Microfluidic Devices and Applications2:1-
IN 270Digital Signal Processing3:0-
IN 271Cryogenic Instrumentation and Applications3:0-
IN 280Optical Instrumentation2:1-
IN 299Dissertation Project0:19-
IN 302Classical and Quantum Optics3:0-
IN 3322D MATERIALS3:0-
PH 205Math Methods of Physics3:0-
PH 206Electromagnetic Theory3:0-
PH 207Electronics I1:2-
PH 208Condensed Matter Physics-I3:0-
PH 209Electronics II2:1-
PH 211General Physics Laboratory0:3-
PH 212Experiments in Condensed Matter Physics0:3-
PH 213Advanced Experiments in Condensed Matter Physics0:4-
PH 215Nuclear and Particle Physics3:0-
PH 217Fundamentals of Astrophysics3:0-
PH 231Workshop practice0:1-
PH 250AProject I0:6-
PH 250BProject - II0:6-
PH 300Seminar Course1:0-
PH 300Seminar Course0:1-
PH 301Seminar Course2:0-
PH 303Spatial dynamics in Biology2:1-
PH 316Advanced Mathematical Methods3:0-
PH 320Condensed Matter Physics - II3:0-
PH 322Molecular Simulation3:0-
PH 325Advanced Statistical Physics3:0-
PH 326Principles and Techniques of Magnetic Resonance - I3:0-
PH 327Principles and Techniques of Magnetic Resonance II3:0-
PH 330Advanced Independent Project0:3-
PH 333Physics of Disordered Systems3:0-
PH 335Modern Topics in Condensed Matter3:0-
PH 340Quantum Statistical Field Theory3:0-
PH 345High Pressure Physics2:0-
PH 350Physics of Soft Condensed Matter3:0-
PH 351Crystal Growth, Thin films and Characterization3:0-
PH 352Semiconductor Physics3:0-
PH 353Principles of Magnetism3:0-
PH 354Computational physics3:0-
PH 355Statistical Mechanics of time Dependent Phenomena3:0-
PH 359Physics at the Nanoscale3:0-
PH 360Biological Physics3:0-
PH 362Radiative Processess in Astrophysics2:0-
PH 363Introduction to Fluid Mechanics and Plasma Physics2:0-
PH 364Topological Phases of Matter (Theory and experiment)3:0-
PH 365Galaxies and Interstellar Medium3:0-
PH 366Physics of Advanced Optical Materials3:0-
PH 367Plasma Physics and Applications3:0-
PH 371General Relativity & Cosmology3:0-
PH 372Radiative Processess in Astrophysics3:0-
PH 373Introduction to Fluid Mechanics and Plasma Physics3:0-
PH 375Symmetry, Topology, and Entanglement in Condensed Matter3:0-
PH 377Astronomical Techniques (Seminar Course)0:2-
PH 380Non-equilibrium Quantum Many-Body Dynamics3:0-
PH 391Quantum Mechanics III3:0-
PH 392Standard Model of Particle Physics3:0-
PH 395Quantum Field Theory I3:0-
PH 396Gauge Field Theories3:0-
PH 398General Relativity3:0-
QT 202Introduction to Quantum Measurement3:0-
QT 204Introduction to Materials for Quantum Technologies3:0-

Continuing Master's Degree

Students have the option to continue for the Master of Science (MS) degree after completing four years of the Bachelor of Science (BS).

View 5th Year Requirements

Students fulfilling the following academic requirements during the 5th year will be eligible for the MS degree:

Credit Requirements

  • 20 credits from the Project / Dissertation
  • 12 credits from blackboard (theory) courses

Mandatory Courses

The following courses are prescribed for the 5th year MS programme:

Course CodeCourse Name
PH 206 (3:0)Electromagnetic Theory
PH 208 (3:0)Condensed Matter Physics I OR IN 232 (3:0): Concepts in Solid State Physics
PH 217 (3:0)Fundamentals of Astrophysics
PH/HE 215 (3:0)Nuclear and Particle Physics

Course Completion Rules

If none of the above mandatory courses were completed during the first four years (BS):

Students must complete all mandatory courses in the 5th year.

If all mandatory courses were already completed during the first four years (BS):

To meet the 12-credit requirement, students may choose any other 200- or 300-level course(s) from any department, subject to approval.

If some (but not all) mandatory courses were completed during the first four years (BS):

Students must complete the remaining mandatory courses and may take additional 200- or 300-level course(s) from any department to fulfill requirements.

Important: All course selections in the 5th year are subject to approval by the student’s Advisor, Instructor, and Undergraduate Coordinator.