Name of course (Course
Code) 
Course Outcomes 
Mathematical Physics
(PHYMS101) 
The aim and objective of the course on Mathematical Physics is
to equip the M.Sc student with the mathematical techniques for
understanding theoretical treatment in dierent courses
On completion of this course a students should be able to:
1)apply techniques of complex analysis to solve integration.
2 ) explain linear dependence and linear combination of vectors as
quantities in physics.
3 ) solve special function Bessel, Legendre, Hermite, Lagurre func
tions.
4)define and manipulate the Dirac Delta,beta and gamma function
and will be able to derive their various properties.
5)be fluent in the use of Fourier and Laplace transformations to
solve differential equations.
6)solve partial dierential equations with appropriate initial or
boundary conditions with Green function techniques.
7) able to understand and apply group theory in physics problems.

Classical Mechanics
(PHYMS102 ) 
The aim and objective of the course:
The aim and objective of the course on Classical Mechanics is to
train the students of M.Sc. class in the Lagrangian and Hamiltonian
formalisms for discrete systems, Conservation theorems, Rigid body
motion, Hamiltons equations, Canonical Transformations, Pois
son's and Lagrangian brackets, Euler equations, HamiltonJacobi
Theory and Lagrangian and Hamiltonian Formulations for contin
uous systems and elds to an extent that they can use these in the
modern branches like Quantum Mechanics, Quantum Field Theory,
Condensed Matter Physics, Astrophysics etc.

Course Learning Outcomes: 
Students will have understanding of
1. The Lagrangian and Hamiltonian approaches in classical mechan
ics.
2. The classical background of Quantum Mechanics and get famil
iarized with Poisson brackets and Hamilton Jacobi equation.
3. Kinematics and Dynamics of rigid body in detail and ideas re
garding Eulers equations of motion.
4. Theory of small oscillations in detail along with basis of free
vibrations.

Electronics I (PHYMS103) 
This course is to introduce students to the dierent components of
microprocessors and microwave communication system. At the end
of this course students will:
1) know the working and applications of one bit memory (
flip flop).
2) understand the working various components of digital system
like; registers, counters, converters and opamp etc.
3) understand the role of each component of microprocessor 8085.
4) know the assembly language programming of microprocessor.
5) be able to use op amp to perform various operations.
6) understand the working various microwave generating devices.
7) understand the microwave communication and advantages.

Computational Methods in
Physics (PHYMS104) 
This course teaches the students programming tactics, numerical
methods and their implementation like applying to problem in
physics, including modeling of classical physics to quantum system
as well as data analysis (Linear and non linear). Use analysis tech
niques for propagating error, representing data graphically. Create,
solve and interpret basic mathematical tool.

Practical (PHYMS105) 
Physics Laboratory is to train the students to experimental tech
niques in general physics, electronics and condensed matter physics
so that they can verify some of the things read in theory here or
in earlier classes, so can corelate the theoretical concepts with the
experimental ones and are condence to handle sophisticated equip
ment.
The laboratory should help the student develop a broad array of
basic skills and tools of experimental physics and data analysis.
Helps students develop collaborative learning skills that are vital
to success in many lifelong endeavors.

Quantum Mechanics I
(PHYMS201) 
The aim and objective of the course:
The aim and objective of the course on Quantum Mechanics is to
introduce the students of M.Sc. class to the formal structure of the
subject and to equip them with the techniques of Linear Vector
Space ,Matrix Mechanics, General Angular Momentum, Perturba
tion Theory and Fermis Golden Rule so that they can use these in
various branches of physics as per their requirement.

Course Learning Outcomes: 
Students will have understanding of:
1 Importance of Quantum Mechanics compared to Classical Me
chanics at microscopic level.
2 Linear vector spaces, Hilbert space, concepts of Basis, Vector and
Operators and Bra and Ket notation.
3 Matrix formulation of Quantum Mechanics.
4 Time evolution of Quantum Mechanical systems i.e. Schrdinger,
Heisenberg and Interaction pictures and their applications.
5 Various tools to calculate Eigen values and total Angular Mo
mentum of particles.

Condensed Matter Physics
(PHYMS202) 
It is important to understand the origin of various properties of
condensed matter before using them, or designing new kind of ma
terial for particular application. This course is designed to impart
the knowledge of theories and models in the eld of condensed mat
ter physics.
At the end of this course students will have
1) knowledge of models and theories developed to study the thermal
and electrical conductivity of insulators and conductors.
2) understanding of different methods of band structure calculation.
3) ability to characterise materials on the basis of band gap.
4) knowledge of different properties of semiconductors and super
conductors.
5) knowledge of microscopic and macroscopic dielectric property of
materials.
6) knowledge of possible defects in a material and dierent proper
ties of amorphous materials.
7) ability to apply the obtained concepts to challenges in condensed
matter physics.

Statistical Physics
(PHYMS203 ) 
The aim of the course is to familiarize the students with the tech
niques and principles of Statistical physics to understand dierent
systems (Ideal gas, non ideal gas , fermin gas and boson gas).
On completion of this course a student should be able to:
1) understand the fundamental principles of statistical physics.
2) derive Gibbs distribution function and will be able to nd out
gibbs distribution of dierent systems.
3) derive and understand Boltzmann distribution function, free en
ergy of ideal gas, equation of state for ideal gas.
4) derive vander waals formula, virial coecient and scattering am
plitude .
5) understand and derive Fermi and Bose distribution and applica
tions.

Electrodynamics (PHYMS
204) 
This course includes the postulates of special theory of relativity,
Lorentz transformations, motion of particle in various aspects of
electric and magnetic elds like constant and varying elds in
cluding nonrelativistic and relativistic motions of charge particle
and magnetic mirroring. The Covariant Formulation of Electrody
namics in Vacuum gives information of Four vectors in Electrody
namics, covariant continuity equation, wave equation, covariance of
Maxwell equations. The aim of the course is to take a glimpse of
radiation from accelerated charges, Thomson scattering, Rayleigh
scattering, absorption of radiation by bound electron.

Practical (PHYMS205) 
1) The course is designed to train the students so that they can
eciently handle various instruments.
2) Students will verify laws studied in the different theory course.
3) Students will practically study the working of dierent electronic
components/ circuits.
4) Students will measure different properties of materials.
5) Students will be able to write programme for different numerical
methods.

Quantum Mechanics II
(PHYMS301) 
The aim and objective of the course:
The aim and objective of the course on Quantum Mechanics is to
introduce the students of M.Sc. class to the formal structure of
the subject and to equip them with the techniques of Relativistic
Quantum Mechanics: Klein Gordon equation, Dirac equation, ne
structure of hydrogen atom, Lamb shift, Field Quantization, Rela
tivistic Quantum Field Theory so that they can use these in various
branches of physics as per their requirement.

Course Learning Outcomes 
Students will have understanding of:
1. Theory of Scattering and calculation of Scattering Cross Section,
Optical theorem, Born Approximation and partial wave analysis
etc.
2. Theory of Identical Particles
3. Relativistic Quantum Mechanics using Dirac equation, Dirac ma
trices, The Klein Gordon equation etc
4. Second quantization of the Schrdinger wave eld for bosons and
fermions

Material Science (PHYMS
302) 
From this course student will be able to think critically and under
stand the relationship between nano/microstructure, characteriza
tion, properties, processing and design of new material. Posses the
skill and dierent material characterization techniques necessary
for modern material practice.

Nuclear Physics (PHYMS
303) 
This course is designed to provide understanding of structure and
properties. At the end of this course students will have understand
ing of:
1) nuclear forces and stability.
2) Nuclear models (Shell and Collective).
3) excited states, quadrupole moment, spin, parity and magnetic
moment.
4) experimental methods used to study the different properties of
nuclei.

High Energy Physics
(PHYMS304) 
The aim and objective of particle Physics is to familiarize with the
concepts of Scattering Kinematics, Scattering Matrix and Phase Space, Dalitz
plots.
Invariance principles and conservation laws: parity, Charge,time
reversal,charge conjugation, GParity,CP and CPT invariance.
Unitary groups SU2, SU3 , Quark Model, Gell Mann Okubo Mass
Formula Weak Interactions, Classication of weak Interactions, Universality of Weak Interactions, Fermi Theory of weak interactions, Intermediate Vector Boson Hypothesis, Helicity of Neutrino, Two
Component Theory of Neutrino, KoKo Mixing and CP Violation,
KoKo Regeneration.

Practical (PHYMS305) 
1) The course is designed to train the students so that they can
eciently handle various instruments.
2) Students will verify laws studied in the dierent theory course.
3) Students will practically study the working of dierent electronic
components/ circuits.
4) Students will measure dierent properties of materials.
5) Students will be able to write programme for dierent numerical
methods.

ElectronicsII (PHYMS
401) 
Course is to train and equip students to become skilled and special
ized in vast discipline of Physics and Electronics. Know basics of
electronics, its fabrication and synthesis techniques. An ability to
design and conduct experiments, as well as to analyze and interpret
data.

Nuclear and Particle Astro
physics (PHYMS402(b)) 
The aim and objective of particle Physics is to familiarize with the
concepts of
The observational basis of Nuclear Astrophysics, The Origin of the
Universe, the Hadron Era, the Lepton Era, The Radiation Era
 Stellar Evolution, Evolution of Stars
 Nucleosynthesis, the Standard Model of the Universe, The Cosm
dogical principle and the expansion of the Universe.

Nano Physics (PHYMS
403(a)) 
The aim and objective of the course:
The aim and objective of the course on Nano Physics is to fa
miliarize the students of M.Sc. to the various aspects related to
Preparation, Characterization and study of dierent properties of
the Nanomaterials so that they can pursue this emerging research
eld as career.

Course Learning Outcomes 
Students will have understanding of:
1. Different type of nanomaterials, and their synthesis techniques
2. Size dependence of various properties
3. Various applications and perspectives of nanotechnology in the
development of value added new products and device.

Optoelectronics (PHYMS
404(c)) 
Optical bres are the media for fast and low noise communication.
This course is designed to introduce the students to the working
of dierent components of optical bre communication system. At
the end of this course students will
1) understand the working of light emitting sourced used in optical
fibre communication.
2) Understand the physics behind the optical communication.
3) Know the various techniques of optical bre fabrication.
4) Understand the detection process.
5) Know the working of various semiconductor based optical signal
detection devices.
6) Understand the working of display devices (LCD and hologra
phy).

Project (PHYMS405) 
All the M.Sc. Physics Students will do a supervised Physics Project
in IV Semester. Department considers it an important culmination
of training in Physics learning and research. This project will be
a supervised collaborative work in Theoretical Physics (Condensed
Matter Physics, Nuclear Physics, Particle Physics), Experimental
Physics, Computational Physics. The project will aim to introduce
student to the basics and methodology of research in physics, which
is done via theory, computation and experiments either all together
or separately by one of these approaches. It is intended to give
research exposure to students at M.Sc. level itself.

Attainment of Course
outcomes 
Attainment of outcome of each courseis evaulated by conducting
two Mid semester exams (one in the middle of the semester i.e. 7th
week and the second at the closing of the semester i.e. 14th week)
and one End semester.

Attainment of Program Specific outcomes 
Attainment of Program Specific outcomes of M.Sc Physics program
is evaluated by keeping record regarding placement of passout students.
1. Increase in pass percentage of students.
2. Percentage of students qualifying GRE, GATE, TOEFEL and
other competitive exams is increasing.
3. Rise in the number of students going for M. Phil. and Ph.d
programmes in reputed institutions in India and abroad.
4. Increase in number of placement per student and in better in
dustries after the completion of the degree programme.
5. Percentage of failures in dierent courses is reducing every year.
