| Department | Faculty | Subject | Semester | Topic Type | Paper Type | Unit | Topic Desc | Sub Topic | Class |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 5 | GRAVITATION AND CENTRAL FORCE MOTION | Law of gravitation,gravitational potential energy,potential and field due to spherical shell and solid sphere,motion of a particle under central force field,two body problem and its reduction to one b | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 6 | ELATICITY | Hook's law,relation between elatic constants,poison's ratio,strain energy in a stretched wire,Twisting torque on a cylindrical or wire | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 7 | FLUID MOTION | Surface tension,surface energy, Angle of contact,capillary rise,Viscosity,streamline flow,turbulent motion,stokes law,Renolds's number,Equation of continuity,Bernoullie's theorem,poiseuille's equation | 5 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 8 | special theory of relativity | postulates of special theory of relativity,lorentz transformation,lorentz contraction,time dilation,Relativistic addition of velocities,variation of mass with velocity,mass energy equivallence,rlativ | 5 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit I | MECHANICS AND GPM | RIGIDITY MODULOUS STATICAL METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit I | MECHANICS AND GPM | RIGIDITY MODULOUS STATICAL METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 2 | MECHANICS AND GPM | YOUNG'S MODULOUS FLEXURE METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 2 | MECHANICS AND GPM | KATER'S PENDEULUM | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 2 | MECHANICS AND GPM | BAR PENDEULUM | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 2 | MECHANICS AND GPM | FLY WHEEL | 10 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit I | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 1. To determine the height of a building using a Sextant. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 2 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 2. To study the motion of Spring and calculate (a) Spring constant; (b) Acceleration due to Gravity. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 3 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 3. To determine the Modulus of Rigidity of material of a cylindrical wire by Statical Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 4 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 4. To determine the Modulus of Rigidity of material of a cylindrical wire by Dynamical Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 5 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 5. To determine the Moment of Inertia of a Flywheel. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 6 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 6. To determine the value of g and velocity for a freely falling body using Digital Timing Technique. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 7 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 7. To determine the Coefficient of Viscosity of a viscous liquid using Stokes’ Law. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 8 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 8. To determine Coefficient of Viscosity of water by Poiseuille’s flow Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 9 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 9. To determine the Young’s Modulus of a Bar by Flexure Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 9 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 10. To determine the Young’s Modulus of a Wire by Optical Lever Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 10 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 11. To determine the Modulus of Rigidity of a Wire by Maxwell’s needle. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 11 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 12. To determine the Young’s Modulus of a wire by Searle’s method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 12 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 13. To determine the value of g using Bar Pendulum. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 13 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 14. To determine the value of g using Kater’s Pendulum. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Practical | Major-1 | Unit 14 | Physics Lab - Major 1 Lab : Mechanics and General Properties of Matter | 15. To determine the surface tension of water by Jaeger’s Method. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit I | Physics - Major 1 : Mechanics and General Properties of Matter: Vector Calculus | Recapitulation of vectors: Properties of vectors under rotations. Scalar product and its invariance under rotations. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 2 | Physics - Major 1 : Mechanics and General Properties of Matter: Vector Calculus | Vector product, Scalar triple product and their interpretation in terms of area and volume respectively. Scalar and Vector fields. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 3 | Physics - Major 1 : Mechanics and General Properties of Matter: Vector Differentiation | Directional derivatives and normal derivative. Gradient of a scalar field and its geometrical interpretation. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 4 | Physics - Major 1 : Mechanics and General Properties of Matter: Vector Differentiation | Divergence and Curl of a vector field. Del and Laplacian operators. Vector identities. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 4 | Physics - Major 1 : Mechanics and General Properties of Matter: | Divergence and Curl of a vector field. Del and Laplacian operators. Vector identities. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 4 | Physics - Major 1 : Mechanics and General Properties of Matter: Vector Differentiation | Divergence and Curl of a vector field. Del and Laplacian operators. Vector identities. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 5 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Michelson-Morley Experiment. Postulates of Special Theory of Relativity. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 6 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Lorentz Transformations. Simultaneity and order of events. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 7 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Lorentz contraction. Time dilation. Relativistic addition of velocities. Variation of mass with velocity. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 8 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Mass-energy Equivalence. Relativistic Doppler effect. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 9 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Relativistic Kinematics. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 1 | Theory | Major-1 | Unit 10 | Physics - Major 1 : Mechanics and General Properties of Matter:Special Theory of Relativity | Transformation of Energy and Momentum. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit I | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Fundamentals of Dynamics | Reference frames. Inertial frames; Galilean transformations. Review of Newton’s Laws of Motion. Projectile motion, Dynamics of a system of particles. Centre of Mass. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 2 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Fundamentals of Dynamics | Principle of conservation of momentum, Impulse. Momentum of variable-mass system: motion of rocket. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 3 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Fundamentals of Dynamics | Components of Velocity and Acceleration in plane polar, Cylindrical and Spherical Coordinate Systems. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 4 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Fundamentals of Dynamics | Laws of physics in rotating coordinate systems, Centrifugal force. Coriolis force and its applications. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 4 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Work and Energy | Work and Kinetic Energy Theorem. Conservative and non- conservative forces. Potential Energy. Stable and unstable equilibrium. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 5 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Work and Energy | Force as gradient of potential energy. Workdone bynon-conservative forces. Lawof conservation of Energy. Elastic and inelastic collisions. Centre of Mass frame and Laboratory frame. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 6 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Rotational Dynamics | Angularmomentum of a particle and systemof particles. Torque. Principle of conservation of angular momentum. Moment of Inertia, parallel and perpendicular axes theorem, | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 7 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Rotational Dynamics | moment of inertia for rectangular, cylindrical and spherical bodies. Kinetic energy of rotation. Motion involving both translation and rotation. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 8 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Gravitation and Central Force Motion | Law of gravitation. Gravitational potential energy. Inertial and gravitational mass. Potential and field due to spherical shell and solid sphere. Motion of a particle under a central force field. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 10 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Gravitation and Central Force Motion | Two-body problem and its reduction to one-body problem and its solution. Kepler’s Laws. Satellite in circular orbit and applications. Geosynchronous orbits. Weightlessness. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 11 | Physics - Minor 1 (3) : Mechanics and General Properties of Matter: Gravitation and Central Force Motion | Basic idea of global positioning system (GPS). Physiological effects on astronauts. | 2 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 3 | MECHANICS AND GPM | FREE FALLING BODY | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 2 | MECHANICS AND GPM | YOUNG'S MODULOUS FLEXURE METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 2 | MECHANICS AND GPM | FLY WHEEL | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 2 | MECHANICS AND GPM | RIGIDITY MODULOUS BY STATICAL METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 2 | MECHANICS AND GPM | RIGIDITY MODULOUS BY DYNAMICAL METHOD STATICAL METHOD | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 3 | MECHANICS AND GPM | BAR PENDULUM | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 4 | MECHANICS AND GPM | KATER'S PENDULUM | 10 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit I | TO STUDY THE MOTION OF SPRING AND CALCULATE SPRING CONSTANT ,ACCELERATION DUE TO GRAVITY | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 2 | TO DETERMINE THE MODULUS OF RIGIDITY OF MATERIAL OF ACYLINDRICAL WIRE BY STATISTICAL METHOD | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 3 | TO DETERMINE THE MODULUS OF RIGIDITY OF MATERIAL OF A CYLINDRICAL WIRE BY DYNAMICAL METHOD | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 4 | TO DETERMINE THE MOMENT OF INERTIA OF A FLYWHEEL | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 5 | TO DETERMINE THE VALUE OF G AND VELOCITYFOR A FREELY FALLING BODY USING DIGITAL TIMING TECHNIQUE | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 6 | TO DETERMINE THE YOUNG'S MODULUS OF A WIRE BY FLEXURE METHOD | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 7 | TO DETERMINE THE YOUNG'S MODULUS OF A WIRE BY OPTICAL LEVER METHOD | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 8 | TO DETERMINE THE VALUE OF g USING BAR PENDULUM | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 9 | TO DETERMINE THE VALUE OF g USING KATER'S PENDULUM | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 1 | Practical | Minor-1 | Unit 9 | TO DETERMINE THE COEEFICIENT OF VISCOSITY OF A VISCOUS LIQUID USING STOKE'S LAW | | 0 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit I | Vector Calculus | Recapitulation of vectors: Properties of vectors under rotations. Scalar product and its invariance under rotations | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit I | Vector Calculus | Vector product, Scalar triple product and their interpretation in terms of area and volume respectively | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit I | Vector Calculus | . Scalar and Vector fields. Vector Differentiation: Directional derivatives and normal derivative | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 2 | Vector Calculus | . Gradient of a scalar field and its geometrical interpretation. Divergence and Curl of a vector field. Del and Laplacian operators. Vector identities. | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 3 | Vector Calculus | Vector Integration: Line, surface and volume integrals of Vector fields | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 3 | Vector Calculus | . Flux of a vector field. Gauss’ divergence theorem | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 3 | Vector Calculus | .Green’s and Stokes’ Theorems and their ap- plications (no rigorous proofs). | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 1 | Theory | Minor-1 | Unit 4 | Orthogonal Curvilinear Coordinates | .Green’s and Stokes’ Theorems and their ap- plications (no rigorous proofs). | 8 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit I | Lab on Electricity & Magnetism | 10. To study response curve of a Series LCR circuit and determine its (a) Resonant frequency; (b) Impedance at resonance (c) Quality factor Q and (d) Band width. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 6 | Electricity and MagnetisM LAB | Measurement of field strength B and its variation in a solenoid (determine dB/dx). | 4 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 7 | Electricity and MagnetisM LAB | To verify the Superposition, and Maximum power transfer theorems. | 4 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 8 | Electricity and MagnetisM LAB | To determine self inductance of a coil by Anderson’s bridge. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 2 | Electricity & Mgnetism Lab | Verification of Thevenin & Norton Theorem | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit I | Magnetic field | Properties of B: curl and divergence. | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 4 | Magnetic field | Biot-Savart’s Law and its simple applications: straight wire and circular loop. Current Loop as a Magnetic Dipole and its Dipole Moment (Analogy with Electric Dipole). | 3 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 4 | Magnetic field | Ampere’s Circuital Law and its application to straight wire, Solenoid and Toroid. Properties of ~B: curl and divergence. | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 4 | Magnetic field | Vector Potential. Magnetic Force on (1) point charge (2) current carrying wire. Torque on a current loop in a uniform Magnetic Field, | 3 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 4 | Magnetic field | , Ballistic Galvanometer: Current and Charge Sensitivity, Electromagnetic damping, Logarithmic damping, CDR. | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 5 | Magnetic Properties of Matter | Magnetisation vector (M~ ). Magnetic Intensity (H~ ). Magnetic Susceptibility and Permeability. Relation between ~B, H~ and M~ . | 3 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 5 | Magnetic Properties of Matter | Diamagnetism,Paramagnetism and Ferromagnetism. B-H curve and hysteresis. | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 5 | Electromagnetic Induction | Faraday’s Law. Lenz’s Law. Motional emf, eddy current, Self-Inductance and Mutual Inductance. Reciprocity Theorem. Energy stored in a Magnetic Field. | 3 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 6 | Network Theorem | Ideal Constant-voltage and Constant-current Sources | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 6 | Network Theorem | . Network Theorems: Thevenin’s theorem, Norton’s theorem, Superposition theorem, Reciprocity theorem, Maximum Power Transfer theorem. Applications to dc circuits. | 5 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 5 | Electricity and MagnetisM LAB | Measurement of field strength B and its variation in a solenoid (determine dB/dx). | 4 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 6 | Electricity and MagnetisM LAB | To verify the Thevenin’s and Norton’s theorems | 4 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 6 | Electricity and MagnetisM LAB | To verify the Thevenin’s and Norton’s theorems | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit I | Electric Field & Potential | Coulomb"s law | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit I | Electricity and Magnetism: Electric Field and Electric Potential | Gauss’ Law with applications | 5 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit I | Electricity and Magnetism: Electric Field and Electric Potential | Gauss’ Law with applications | 5 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit I | Major 2 Lab : Electricity and Magnetism | 1. To determine an unknown Low Resistance using Potentiometer/fall of potential method. 2. To determine an unknown Resistance using Carey Foster’s Bridge. | 6 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 2 | Electricity and Magnetism: Electric Field and Electric Potential | Electric dipole | 5 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 2 | Major 2 Lab : Electricity and Magnetism | 3. To compare capacitances using De’Sauty’s bridge. | 2 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 4 | Major 2 Lab : Electricity and Magnetism | 8. To study the ac characteristics of a series CR Circuit. 9. To study the ac characteristics of a series LR Circuit. | 8 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 4 | Electricity and Magnetism: Capacitance | Capacitance of parallel plate, spherical, cylindrical capacitor, combination of capacitors. | 5 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 5 | Electricity and Magnetism:Electrical Circuits | DC Circuits | 5 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 4 | Major 2 Lab : Electricity and Magnetism | 10. To study response curve of a Series LCR circuit and determine its (a) Resonant frequency; (b) Impedance at resonance (c) Quality factor Q and (d) Band width. 11. To study the response curve of a p | 8 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 6 | Electricity and Magnetism:Electrical Circuits | AC Circuits | 5 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 2 | Theory | Major -2 | Unit 3 | Electricity and Magnetism: Electric field in Conductor and Dielectric material | Relations between ~E, ~P and ~D. Gauss’ Law in dielectrics. | 5 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 2 | Practical | Major -2 | Unit 5 | Major 2 Lab : Electricity and Magnetism | 6. To verify the Superposition, and Maximum power transfer theorems. | 4 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 5 | Major 2 Lab : Electricity and Magnetism | 13. To determine the self-inductance of two coils separately by using Anderson’s Bridge and the total equivalent inductance when they are connected in series and hence estimate the coefficient of coup | 10 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit I | ELECTRIC FIELD AND ELECTRIC POTENTIAL | Coulomb's law,electric flux,gauss law,electrostatic energy of a charged sphere ,laplace 's &poisson equation,electrostatic forced of a charged particle,electric dipole,electric potential,field due to | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 2 | ELECTRIC FIELD IN CONDUCTOR & DIELECTRIC MATERIAL | Electric field in conductor,di electric polarisation ,electric susceptibility,dielectric constant,displacement vector,relation betyween E,P,D,Gauss law in dielectrics | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 3 | CAPACITANCE | Capacitance of a conductor,capacitance of parallel plate spherical,cylindrical capacitor | 3 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 4 | MAGNETIC FIELD | Bio savart law,straight and circular loop,magnetic dipole &its dipole moment . Ampere circuital law & its application,properties of B ,divergence & curl,Torque on a current loop in a uniform magnetic | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 5 | MAGNETICS PROPERTIES OF MATTER | Manetisation vector,magnetic intensity,magnetic susceptibility&pemeability.relation between B,H,M. Dia para,ferromagnetism ,B-H CURVE | 3 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 6 | ELECTROMAGNETIC INDUCTION | Faraday's law,Lenz's law,self inductance &mutual inductance,energy stored in magnetic field | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 7 | ELECTRICAL CIRCUITS | LR,CR, LCR circuit,series LCR circuit resonance,power dissipation,quality factor,band width.parallel LCR circuit,LC oscillation | 3 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Theory | Minor-2 | Unit 8 | NETWORK THEOREMS | Thevenin theorem,Norton's theorem,superposition theorem,Maximum power Transfer theorem,Application to dc circuits | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit I | TO DETERMINE AN UNKNOWN LOW RESISTANCE USING FALL OF POTENTIAL METHOD | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 2 | TO DETERMINE AN UNKNOWN RESISTANCE USING CAREY FOSTER'S BRIDGE | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 3 | TO COMPARE CAPACITANCES USING DE'SAUTY BRIDGE | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 4 | TO VERIFY THE THEVENIN'S AND NORTON'S THEOREM | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 5 | TO VERIFY THE SUPERPOSITION AND MAXIMUM POWER TRANSFER THEOREM | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 6 | TO DETERMINE THE SELF INDUCTANCE OF A COIL BY ANDERSON'S BRIDGE | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 7 | TO STUDY THE AC CHARACTERISTIC OF A SERIES LR,CR CIRCUIT | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 8 | TO STUDY THE RESPONSE CURVE OF A SERIES LCR CIRCUIT & DETERMINE RESONANT FREQUENCY ,QUALITY FACTOR ,BAND WIDTH | | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 9 | TO DETERMINE THE SELF INDUCTANCE OF A COIL BY RAYLEIGH 'S METHOD | | 2 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 4 | Major 2 Lab : Electricity and Magnetism | 8. To study the ac characteristics of a series CR Circuit. 9. To study the ac characteristics of a series LR Circuit. | 8 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit I | Major 2 Lab : Electricity and Magnetism | 1. To determine an unknown Low Resistance using Potentiometer/fall of potential method. 2. To determine an unknown Resistance using Carey Foster’s Bridge. | 6 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 2 | Major 2 Lab : Electricity and Magnetism | 3. To compare capacitances using De’Sauty’s bridge. | 2 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 5 | Major 2 Lab : Electricity and Magnetism | 10. To study response curve of a Series LCR circuit and determine its (a) Resonant frequency; (b) Impedance at resonance (c) Quality factor Q and (d) Band width. 11. To study the response curve of a p | 10 |
| Physics | ISHITA DE | PHYSICS (MINOR ) | 2 | Practical | Minor-2 | Unit 3 | Major 2 Lab : Electricity and Magnetism | 6. To verify the Superposition, and Maximum power transfer theorems. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit I | Physics - Major 3 Lab : Waves and Optics practical | 1. To determine the frequency of an electric tuning fork by Melde’s experiment and verify ?2 - T law. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 2 | Physics - Major 3 Lab : Waves and Optics practical | 2. To investigate the motion of coupled oscillators | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 3 | Physics - Major 3 Lab : Waves and Optics practical | 3. To study Lissajous Figures to find out the ratios of frequencies and phase determinations. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 4 | Physics - Major 3 Lab : Waves and Optics practical | 4. Familiarisation with: Schuster‘s focusing; determination of angle of prism. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 5 | Physics - Major 3 Lab : Waves and Optics practical | 5. To determine refractive index of the Material of a prism using sodium source. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 7 | Physics - Major 3 Lab : Waves and Optics practical | 7. To determine thewavelength of sodium source using Michelson’s interferometer. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 8 | Physics - Major 3 Lab : Waves and Optics practical | 8. To determine wavelength of sodium light using Fresnel Biprism. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 9 | Physics - Major 3 Lab : Waves and Optics practical | 9. To determine wavelength of sodium light using Newton’s Rings. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 10 | Physics - Major 3 Lab : Waves and Optics practical | 10. To determine the thickness of a thin paper by measuring the width of the interference fringes produced by a wedge-shaped Film. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 11 | Physics - Major 3 Lab : Waves and Optics practical | 11. To determine the wavelength of a monochromatic source using diffraction of single slit. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 12 | Physics - Major 3 Lab : Waves and Optics practical | 12. To determine the wavelength of a monochromatic source using diffraction of double slits. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 13 | Physics - Major 3 Lab : Waves and Optics practical | 13. To determine wavelength of a monochromatic source using plane diffraction grating. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 14 | Physics - Major 3 Lab : Waves and Optics practical | 14. To determine angular spread of He-Ne laser using plane diffraction grating. | 2 |
| Physics | Parimal Sarkar | PHYSICS (MAJOR ) | 3 | Practical | Major-3 | Unit 15 | Physics - Major 3 Lab : Waves and Optics practical | 15. To determine dispersive power and resolving power of a plane diffraction grating. | 2 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Theory | Major-3 | Unit I | WAVE AND OPTICS | ORDINARY DIFFERENTIAL EQUATION | 4 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Theory | Major-3 | Unit 2 | WAVE AND OPTICS | FOURIER SERIES | 4 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Theory | Major-3 | Unit 3 | WAVE AND OPTICS | SHM | 4 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Theory | Major-3 | Unit 4 | WAVE AND OPTICS | DAMPED OSCILLATION | 4 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit I | ANALOG ELECTRONICS | PN JUNCTION DIODE AND ITS IV CHARACTERISTICS | 4 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit I | ANALOG ELECTRONICS | ZENER DIODE AND ITS IV CHARACTERISTICS | 8 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit I | ANALOG ELECTRONICS | OPAMP AS INVERTING AMPLIFIER | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 3 | ANALOG ELECTRONICS | OPAMP AS NON-INVERTING AMPLIFIER | 10 |
| Physics | ISHITA DE | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 4 | ANALOG ELECTRONICS | BJT IN CE MODE | 10 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit I | Semiconductor diode | PandNtypesemiconductors | 1 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit I | Semiconductor diode | EnergyLevelDiagramofSemi- conductors | 1 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit I | Laboratory work for Analog Electronics | 1. To study V-I characteristics of PN junction diode or Light emitting diode | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 2 | Laboratory work for Analog Electronics | 2. To study the V-I characteristics of a Zener diode and its use as voltage regulator | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 3 | Laboratory work for Analog Electronics | 3. To study the characteristics of a Bipolar Junction Transistor in CE configuration | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 4 | Laboratory work for Analog Electronics | 4. To study the various biasing configurations of BJT for normal class A operation | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 4 | Laboratory work for Analog Electronics | 5. To design a CE (CC) transistor amplifier of a given gain (mid-gain) using voltage divider bias. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit 4 | Laboratory work for Analog Electronics | 6. To study the frequency response and voltage gain of a RC-coupled transistor am- plifier | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Practical | Major-4 | Unit I | Lab activity on Analog Electronics | To study the V-I characteristics of a Zener diode and its use as voltage regulator. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 2 | BJT | n-p-nandp-n-pTransistors. CharacteristicsofCB,CE andCCConfigurations.Currentgainsaandß.Relationsbetweena andß. | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 2 | BJT | LoadLine analysisofTransistors.DCLoadlineandQ-point.PhysicalMechanismofCurrentFlow. Active,CutoffandSaturationRegions. | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 2 | Two-terminalDevicesandtheirApplications | RectifierDiode: Half-waveRecti- fiers.Centre-tappedandBridgeFull-waveRectifiers,CalculationofRippleFactorand RectificationEfficiency | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 2 | Two-terminalDevicesandtheirApplications | C-filter,DiodeClippingandClampingcircuits(2)ZenerDiode and Voltage Regulation. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 2 | Two-terminalDevicesandtheirApplications | .Principle and structure of (1) LED (2) Photodiode and (3) Solar Cell, (4) Tunnel Diode. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 3 | Two-terminalDevicesandtheirApplications | Currentgainsaandß.Relationsbetweena andß.LoadLine analysisofTransistors.DCLoadlineandQ-point.PhysicalMechanismofCurrentFlow. Active,CutoffandSaturationRegions | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 4 | RegulatedPowerSupply | BasicideaofSeriesandShuntvoltageregulation | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 4 | FieldEffectTransistors | FieldEffectTransistors:CharacteristicsandstructureofJFET. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 5 | Amplifiers: | Transistor as 2-port Network.h-parameter Equivalent Circuit.Analysis of a single-stage CE amplifier using Hybrid Model , Input and Output Impedance, Current, VoltageandPowerGains | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 5 | Amplifiers: | BasicideaofClassA,ClassB,ClassC&ClassABAmplifiers. | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 5 | Coupled amplifiers | RC coupled amplifiers and its frequency response | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 6 | Feedback in amplifiers | effect of positive and negative feedback on input impedance,output impedance,gain,stabilityand noise | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 7 | Sinusoidal oscillators | Barkhausen criterion for sustained oscillation,RC phase shift oscillator,Hartley and colpitts oscillator | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 8 | OPERATIONAL AMPLIFIERS | Characterisatic of an ideal and practical opamp,frequency response,CMRR,slew rate,concept of virtual ground,and application | 4 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MAJOR ) | 3 | Theory | Major-4 | Unit 9 | conversion | resistive network accuracy,,A/D conversion | 2 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit I | To determine the height of a building using a sextant | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 2 | To study the motion of spring and calculate spring constant,acceleration due to gravity | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 4 | To determine the modulus of rigidity of material of a cylindrical wire by dyanamical method | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 5 | To determine the moment of inertia of a flywheel | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 6 | To determine the moment of inertia of a cylindrical /rectangular bar | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 7 | To determine the value of g and velocity for a freely falling body using digital time technique | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 8 | To determine the young 's modulus of a bar by flexure method | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 9 | To determine the young 's modulus of a wire by optical lever method | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 10 | To determine the young 's modulus of a wire by searle's method | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 11 | To determine the value of g using bar pendulum | | 0 |
| Physics | SUDIPTA KARMAKAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 11 | To determine the value of g using kater's pendulum | | 0 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit I | Vector Calculus | Recapitulation of vectors: Properties of vectors under rotations. Scalar product and its invariance under rotations. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit I | Vector Calculus | Vector product, Scalar triple product and their interpretation in terms of area and volume respectively. Scalar and Vector fields | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit 2 | Vector Differentiation | : Directional derivatives and normal derivative. Gradient of a scalar field and its geometrical interpretation | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit 2 | Vector Differentiation | : Divergence and Curl of a vector field. Del and Laplacian operators. Vector identities. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit 3 | Vector Integration | Line, surface and volume integrals of Vector fields. Flux of a vector field. Gauss’ divergence theorem, | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit 4 | Orthogonal Curvilinear Coordinates | Derivation of Gradient, Divergence, Curl and Laplacian in Cartesian, Spherical and Cylindrical Coordinate Systems | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit I | Vector Calculus | Recapitulation of vectors: Properties of vectors under rotations | 2 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit I | Vector Calculus | . Scalar product and its invariance under rotations. Vector product, | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Theory | Minor-3 | Unit I | Vector Calculus | Scalar triple product and their interpretation in terms of area and volume respectively. Scalar and Vector fields. | 6 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit I | Mechanics lab Activity | To determine the height of a building using a Sextant | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 2 | Mechanics lab Activity | To study the motion of Spring and calculate (a) Spring constant; (b) Acceleration due to Gravity | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 3 | Mechanics lab Activity | To determine the Modulus of Rigidity of material of a cylindrical wire by Statical Method. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 4 | Mechanics lab Activity | To determine the Modulus of Rigidity of material of a cylindrical wire by Dynamical Method | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 5 | Mechanics lab Activity | To determine the Moment of Inertia of a Flywheel | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 6 | Mechanics lab Activity | To determine the Moment of Inertia of a cylindrical/rectangular bar | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 7 | Mechanics lab Activity | To determine the value of g and velocity for a freely falling body using Digital Timing Technique | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 8 | Mechanics lab Activity | To determine the Coefficient of Viscosity of a viscous liquid using Stokes’ Law. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 9 | Mechanics lab Activity | To determine the Coefficient of Viscosity of a viscous liquid using Stokes’ Law. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 10 | Mechanics lab Activity | To determine the Young’s Modulus of a Bar by Flexure Method | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 11 | Mechanics lab Activity | To determine the Young’s Modulus of a Wire by Optical Lever Method | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 12 | Mechanics lab Activity | To determine the Modulus of Rigidity of a Wire by Maxwell’s needle | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 13 | Mechanics lab Activity | To determine the Young’s Modulus of a wire by Searle’s method | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 14 | Mechanics lab Activity | To determine the value of g using Bar Pendulum | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Practical | Minor-3 | Unit 15 | Mechanics lab Activity | To determine the value of g using Kater’s Pendulum. | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Select | Select | Unit 3 | Vector Integration | Line, surface and volume integrals of Vector fields | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Select | Select | Unit 3 | Vector Integration | Flux of a vector field. Gauss’ divergence theorem | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Select | Select | Unit 3 | Vector Integration | Green’s and Stokes’ Theorems and their ap- plications (no rigorous proofs). | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Select | Select | Unit 4 | Orthogonal Curvilinear Coordinates | Derivation of Gradient, Divergence, Curl and Laplacian in Cartesian coordinate system | 4 |
| Physics | ANIMESH HALDAR | PHYSICS (MINOR ) | 3 | Select | Select | Unit 4 | Orthogonal Curvilinear Coordinates | Derivation of Gradient, Divergence, Curl and Laplacian in Spherical and Cylindrical Coordinate Systems. | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 7 | TO STUDY THE FREQUENCY RESPONSE OF VOLTAGE GAIN OF A RC COUPLED TRANSISTOR AMPLIFIER | | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit I | | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 5 | To study V-i CHRACTERISTIC OF ZENER DIODE & VOLTAGE REGULATOR | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 6 | TO STUDY THE CHARACTERISTIC OF A BJT IN CE CONFIGARATION | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 8 | TO DESIGN AN WIEN BRIDGE OSCILLATOR FOR GIVEN FREQUENCY USING AN OP AMP | | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 9 | TO STUDY THEANALOG TO DIGITAL CONVERTOR | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 10 | TO DRAW THE VI CHARACTERISTIC OF A FULL WAVE RECTIFIER WITH AND WITHOUT FILTER | | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 4 | To investigate the use of an OPAMP as integrator & differentiator | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 5 | To study V-i CHRACTERISTIC OF PN DIODE | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 2 | To design an inverting & non inverting amplifier using OP AMP and study it frequency response | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit 3 | To add two dc voltages using OPAMP in inverting and non inverting mode | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-10 | Unit I | To design an inverting amplifier using OP AMP dc voltage of given gain | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 6 | FEEDBACK IN AMPLIFIER | Effect of positive and negetive feedback on input and output impedance,gain stability,distortion noise | 1 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 10 | conversion | R-2R LADDER ,A/D CONVERSION | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 8 | OP-AMP | Characteristic of ideal op amp,slew rate , CMRR,Virtual ground | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit I | SEMICONDUCTOR DIODES | P & N type,energy level diagram,mechanism forward and reverse biased diod,drift velocity,derivation for barrier potential and barrier width | 5 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 9 | OP-AMP | application of OP- AMP | 3 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 2 | TWO TERMINAL DEVICE & THEIR APPLICATION | Half wave and full wave rectifier, calculation of ripple factor,zener diode and voltage regulation,bridge wave rectifier | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 5 | AMPLIFIERS | Transistor biasing,fixed biased,h parameter equivalent circuit,CE amplifiers using Hybrid model,input output impedance,current voltage and power gain,class A,B,C amplifiers | 3 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 6 | coupled amplifier | RC coupled ampifiers and frequency response | 1 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 6 | FEEDBACK IN AMPLIFIER | Effect of positive and negetive feedback on input and output impedance,gain stability,distortion noise | 1 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 7 | sinusoidal oscillators | Barkhausen's criterion ,RC Phase shift oscilator hartley and colpitts oscilators | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 8 | conversion | R-2R LADDER ,A/D CONVERSION | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit I | SEMICONDUCTOR DIODES | P & N type,energy level diagram,mechanism forward and reverse biased diod,drift velocity,derivation for barrier potential and barrier width | 5 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 2 | BIPOLAR JUNCTION TRANSISTOR | PNP &NPN ,Characteristic od CB,CE,CC Configaration | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Theory | Core-10 | Unit 3 | BIPOLAR JUNCTION TRANSISTOR | PNP &NPN ,Characteristic od CB,CE,CC Configaration | 3 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit I | Complex Analysis | Examples of ana- lytic functions. Singular functions: poles and branch points, order of singularity, branch cuts. Integration of a function of a complex variable. Cauchy’s Inequality. | 10 |
| Physics | ISHITA DE | CC-PHSH | 4 | Theory | Core-8 | Unit 2 | Integrals Transforms | Fourier Transforms | 15 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit I | Complex Analysis | Brief Revision of Complex Numbers and their Graphical Represen- tation. Euler’s formula, De Moivre’s theorem, Roots of Complex Numbers. Functions of Complex Variables. Analyticity and Cauchy-Riemann C | 10 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit I | Complex Analysis | Cauchy’s In- tegral formula. Simply and multiply connected region. Laurent and Taylor’s expansion. Residues and Residue Theorem. Application in solving Definite Integrals. | 10 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit 3 | Laplace Transforms | Laplace Transform (LT) of Elementary functions. Properties of LTs: Change of Scale Theorem, Shifting Theorem | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit 3 | Laplace Transforms | LTs of 1st and 2nd order Derivatives and Integrals of Functions, Derivatives and Integrals of LTs | 4 |
| Physics | ISHITA DE | CC-PHSH | 4 | Theory | Core-8 | Unit 2 | Integrals Transforms | Laplace Transforms(Inverse LT. Application of Laplace Transforms to 2nd order Differential Equations:) | 7 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-8 | Unit 3 | Laplace Transforms | LT of Unit Step function, Dirac Delta function, Periodic Functions. Convolution Theorem | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit I | Solving numerical problems using Scilab | 1. Calculation of error for each data point of observations recorded in experiments done in previous semesters (Hooke's Law & Diode characteristics). | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 2 | Solving numerical problems using Scilab | 2. Calculation of least square fitting manually without giving weightage to error. Con- firmation of least square fitting of data through computer program,also plot the error at each data points | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 3 | Solving numerical problems using Scilab | 3. Plotting of Bessel ,Evaluation of trigonometric functions e.g. sin ?, Given Bessel’s function at N points find its value at an intermediate point.(using at least two different formulas) | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 4 | Solving numerical problems using Scilab | 4. Complex analysis: Integrate 1/(1+x^2) numerically and check with computer integra- tion(using At least two different formula) | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 5 | Solving numerical problems using Scilab | 5. Compute the nth roots of unity for n = 2, 3, and 4 | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 6 | Solving numerical problems using Scilab | 6. Find the two square roots of 5 + 12j.(using at least two different methods) | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 7 | Solving numerical problems using Scilab | 7. Solve Kirchoff’s Current law for any node of an arbitrary circuit using Laplace’s transform. | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 8 | Solving numerical problems using Scilab | 8. Solve Kirchoff’s Voltage law for any loop of an arbitrary circuit using Laplace’s transform | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Practical | Core-8 | Unit 9 | Solving numerical problems using Scilab | 9. Perform circuit analysis of a general LCR circuit using Laplace’s transform. | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Select | Core-8 | Unit 4 | tutorial | internal assessment | 1 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 2 | Elements of Modern Physics LAB | To determine work function of material of filament of directly heated vacuum diode.. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 2 | Elements of Modern Physics LAB | To determine the Planck’s constant using LEDs of at least 4 different colours. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | Core-9 | Unit 4 | One dimensional infinitely rigid box | energy eigenvalues and eigenfunctions | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | Core-9 | Unit 3 | Two slit interference experiment with photons | Schrodinger equation | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 3 | Elements of Modern Physics LAB | To determine the wavelength of H-alpha emission line of Hydrogen atom. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 3 | Elements of Modern Physics LAB | To determine the ionisation potential of mercury. | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 7 | Radioactivity | stability of the nucleus; Law of radioactive decay; Mean life and half- life; Alpha decay; | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 4 | Elements of Modern Physics LAB | To determine the absorption lines in the rotational spectrum of Iodine vapour. | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 7 | Radioactivity | Beta decay- energy released, spectrum and Pauli’s prediction of neu- trino; Gamma ray emission, energy-momentum conservation: | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 4 | Elements of Modern Physics LAB | To determine the value of e/m by (a) Magnetic focusing; or (b) Bar magnet. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | Core-9 | Unit 2 | Position measurement | Wave-particle duality | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | Core-9 | Unit I | Planck’s quantum | Quantum theory of Light | 14 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | Core-9 | Unit 5 | Size and structure of atomic nucleus | Nature of nuclear force | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 5 | Atomic nucleus | Size and structure of atomic nucleus and its relation with atomic weight; Impossibility of an electron being in the nucleus as a consequence of the uncertainty principle | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit I | Elements of Modern Physics LAB | Measurement of Planck’s constant using black body radiation and photo-detector. | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit I | Atomic nucleus | Nature of nuclear force, NZ graph, Liquid Drop model: semi-empirical mass formula and binding energy, | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 6 | Atomic nucleus | Nuclear Shell Model (qualitative) and magic numbers | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit I | Elements of Modern Physics LAB | Photo-electric effect: photo current versus intensity and wavelength of light; maximum energy of photo-electrons versus frequency of light. | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 9 | Lasers | Einstein’s A and B coefficients. Metastable states. Spontaneous and Stimu- lated emissions. Optical Pumping and Population Inversion | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 5 | Elements of Modern Physics LAB | To setup the Millikan oil drop apparatus and determine the charge of an electron. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 5 | Elements of Modern Physics LAB | To show the tunnelling effect in tunnel diode using I-V characteristics. | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 7 | Radioactivity | electron-positron pair cre- ation by gamma photons in the vicinity of a nucleus. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 6 | Elements of Modern Physics LAB | To determine the wavelength of laser source using diffraction of single slit. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Practical | Core-9 | Unit 6 | Elements of Modern Physics LAB | To determine the wavelength of laser source using diffraction of double slits. | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 8 | Nuclear Fission & Fusion | mass deficit, relativity and generation of energy; Fission - nature of fragments and emission of neutrons | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 8 | Nuclear Fission & Fusion | Nuclear reactor: slow neutrons interacting with Uranium 235; Fusion and thermonuclear reactions driving stellar energy (brief qualitative discussions). | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 4 | Theory | Core-9 | Unit 9 | Lasers | Three-Level and Four-Level Lasers. Ruby Laser and He-Ne Laser. | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-9 | Unit 6 | TO DETERMINE THE IONISATION POTENTIAL OF MERCURY | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-9 | Unit 7 | TO DETERMINE THE VALUE OF e/m by a magnetic focusing ,Bar magnet | | 3 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-9 | Unit 8 | TO SHOW THE TUNNELLING EFFECT IN TUNNEL DIODE USING I -V CHARACTERISTICS | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-9 | Unit 9 | TO DETERMINE THE WAVELENGTH OF LASER SOURCE USING DIFFRACTION OF SINGLE SLIT | | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 4 | Practical | Core-9 | Unit 10 | TO DETERMINE THE WAVELENGTH OF LASER SOURCE USING DIFFRACTION OF DOUBLE SLITS | | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit I | Renewable Energy and Energy Harvesting: | Fossil fuels and Alternate Sources of energy | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 2 | Renewable Energy and Energy Harvesting: | Solar energy | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 3 | Renewable Energy and Energy Harvesting: | solar cell | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 4 | Renewable Energy and Energy Harvesting: | Wind Energy harvesting | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 5 | Renewable Energy and Energy Harvesting: | Ocean Energy | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 6 | Renewable Energy and Energy Harvesting: | Tide characteristics and Statistics | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 7 | Renewable Energy and Energy Harvesting: | Geothermal Energy | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 8 | Renewable Energy and Energy Harvesting: | Hydro Energy | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 9 | Renewable Energy and Energy Harvesting: | Piezoelectric Energy harvesting | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 4 | Theory | SEC2 | Unit 10 | Renewable Energy and Energy Harvesting: | Electromagnetic Energy Harvesting | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit I | DSC 4A Lab (Experiments on Waves and Optics) | 1. To investigate the motion of coupled oscillators | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit I | DSC 4A Lab (Experiments on Waves and Optics) | 2. To determine the frequency of an electric/mechanical tuning fork by Melde’s ex- periment and verify ?2-T law. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit I | DSC 4A Lab (Experiments on Waves and Optics) | 3. To determine the frequency of an electric/mechanical tuning fork by sonometer | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab (Experiments on Waves and Optics) | 4. To study Lissajous Figures. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab (Experiments on Waves and Optics) | 5. Familiarization with Schuster‘s focussing; determination of angle of prism. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab (Experiments on Waves and Optics) | 6. To determine the Refractive Index of the Material of a given Prism using Sodium Light / Mercury source. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 3 | DSC 4A Lab (Experiments on Waves and Optics) | 7. To determine Dispersive Power of the Material of a given Prism using Mercury Light / Sodium source. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 3 | DSC 4A Lab (Experiments on Waves and Optics) | 8. To determine the value of Cauchy Constants of a material of a prism. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 3 | DSC 4A Lab (Experiments on Waves and Optics) | 9. To determine the Resolving Power of a Prism. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 4 | DSC 4A Lab (Experiments on Waves and Optics) | 10. To determine wavelength of sodium light using Fresnel Biprism | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 4 | DSC 4A Lab (Experiments on Waves and Optics) | 11. To determine wavelength of sodium light using Newton’s Rings. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 4 | DSC 4A Lab (Experiments on Waves and Optics) | 12. To determine the wavelength of Laser light/sodium source using Diffraction of Sin- gle Slit. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 5 | DSC 4A Lab (Experiments on Waves and Optics) | 13. To determine wavelength of (1) Sodium and (2) spectrum of Mercury light using plane diffraction Grating. | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 5 | DSC 4A Lab (Experiments on Waves and Optics) | 14. To determine the Resolving Power of a Plane Diffraction Grating | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 4 | Practical | DSC A4 | Unit 5 | DSC 4A Lab (Experiments on Waves and Optics) | 15. To measure the intensity using photosensor and laser in diffraction patterns of single and double slits. | 2 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit I | SUPERPOSITION OF TWO COLLINEAR HARMONIC OSCILATION | Linearity & superposition principle ,oscillation have equal frequencies ,oscillations have different frequencies | 2 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 2 | SUPERPOSITION OF TWO PERPENDICULAR HARMONIC OSCILATIONS | LISSAJOUS FIGURES WITH AN UN EQUAL FREQUENCY AND THEIR USES | 2 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 3 | WAVE MOTION | Transverse waves on a string,travelling and standing waves on a string ,group and phase velocity. wave velocity | 3 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 4 | SOUND | SHM,Forced vibration ,resonance,intensity and loudness of sound,decibels,reverberation & time of reverbiration,absobtion coefficient sabine's formula | 4 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 5 | WAVE OPTICS | Electromagnetic nature of light,wave front ,Huygens principle | 1 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 6 | interference | Division of wavefront &division of amplitude ,young"s double slit experiment,Lloyd'smirror & Fresnel biprism,stoke's treatment ,fringes of equal thickness | 4 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 7 | MICHELSON'S INTERFEROMETER | Determination of wavelength,refractive index | 2 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 8 | DIFFRACTION | Fraunhofer diffraction,single slit,double slit,multiple slits,diffraction grating,Fresnel diffraction half period zone ,zone plate,fresnel diffraction pattern of a straight edge | 4 |
| Physics | SUDIPTA KARMAKAR | DSC-PHSG | 4 | Theory | DSC A4 | Unit 9 | POLARIZATION | Transverse nature of light waves,plane polarized light,circular & elliptical polarization | 4 |
| Physics | ISHITA DE | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab | 5. Familiarization with Schuster‘s focussing; determination of angle of prism. | 4 |
| Physics | ISHITA DE | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab | 6. To determine the Refractive Index of the Material of a given Prism using Sodium Light / Mercury source. | 4 |
| Physics | ISHITA DE | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab | 11. To determine wavelength of sodium light using Newton’s Rings | 4 |
| Physics | ISHITA DE | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab | 9. To determine the Resolving Power of a Prism. | 4 |
| Physics | ISHITA DE | DSC-PHSG | 4 | Practical | DSC A4 | Unit 2 | DSC 4A Lab | 7. To determine Dispersive Power of the Material of a given Prism using Mercury Light / Sodium source. | 4 |
| Physics | ISHITA DE | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | GE Lab : Electricity, Magnetism and EMT | 9. To determine the value of a Low Resistance by Carey Foster’s Bridge. 10. To verify the Thevenin and Norton theorems. 11. To verify the Superposition, and Maximum Power Transfer Theorems. | 8 |
| Physics | ISHITA DE | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | GE Lab : Electricity, Magnetism and EMT | 1. To use a Multimeter for measuring (a) Resistances, (b) AC and DC Voltages, (c) DC Current, and (d) checking electrical fuses. 2. To determine a Low Resistance by fall of potential method. | 6 |
| Physics | ISHITA DE | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | GE Lab : Electricity, Magnetism and EMT | 5. To study the Characteristics of a Series RC circuit. 6. To study the Characteristics of a Series LR circuit. | 8 |
| Physics | ISHITA DE | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | GE Lab : Electricity, Magnetism and EMT | 1. To use a Multimeter for measuring (a) Resistances, (b) AC and DC Voltages, (c) DC Current, and (d) checking electrical fuses. 2. To determine a Low Resistance by fall of potential method. | 6 |
| Physics | ISHITA DE | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | GE Lab : Electricity, Magnetism and EMT | 7. To study a series LCR circuit LCR circuit and determine its (a) Resonant frequency, (b) Quality factor. 8. To study a parallel LCR circuit and determine its (a) Anti-resonant frequency and (b) Qual | 5 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit I | Electricity, Magnetism and EMT: | Vector Analysis | 2 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 2 | Electricity, Magnetism and EMT:Electrostatics | Gauss’s theorem of electrostatics | 8 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 3 | Electricity, Magnetism and EMT:Electrostatics | electric dipole; Capacitor | 8 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 5 | Electricity, Magnetism and EMT: Maxwell’s equations and Electromagnetic wave propagation | Maxwell’s equations | 8 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 6 | Electricity, Magnetism and EMT: Maxwell’s equations and Electromagnetic wave propagation | electromagnetic wave propagation | 8 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 7 | Electricity, Magnetism and EMT: Electrical Circuitsons and Electromagnetic wave propagation | AC Circuits | 3 |
| Physics | Parimal Sarkar | GE-PHSH | 4 | Theory | GE 4 | Unit 8 | Electricity, Magnetism and EMT: Electrical Circuitsons and Electromagnetic wave propagation | LCR Circuit | 3 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Theory | GE 4 | Unit 2 | Magnetism | Divergence and Curl of B | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 3 | Electricity & Magnetism Lab Activity | 1. To use a Multimeter for measuring (a) Resistances, (b) AC and DC Voltages, (c) DC Current, and (d) checking electrical fuses. | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 3 | Electricity & Magnetism Lab Activity | 5. To study the Characteristics of a Series RC circuit | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | Electricity & Magnetism Lab Activity | 6. To study the Characteristics of a Series LR circuit | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | Electricity & Magnetism Lab Activity | 7. To study a series LCR circuit LCR circuit and determine its (a) Resonant frequency, (b) Quality factor. | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 4 | Electricity & Magnetism Lab Activity | 8. To study a parallel LCR circuit and determine its (a) Anti-resonant frequency and (b) Quality factor Q. | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 5 | Electricity & Magnetism Lab Activity | 9. To determine the value of a Low Resistance by Carey Foster’s Bridge | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 5 | Electricity & Magnetism Lab Activity | 10. To verify the Thevenin and Norton theorems | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 5 | Electricity & Magnetism Lab Activity | 11. To verify the Superposition, and Maximum Power Transfer Theorems | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 2 | Electricity & Magnetism Lab Activity | 1. To use a Multimeter for measuring (a) Resistances, (b) AC and DC Voltages, (c) DC Current, and (d) checking electrical fuses. | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 2 | Electricity & Magnetism Lab Activity | 2. To determine a Low Resistance by fall of potential method | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Theory | GE 4 | Unit 3 | Magnetism | Ampere’s circuital law. Magnetic properties of materials: Magnetic intensity, magnetic induction, permeability, magnetic susceptibility | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Theory | GE 4 | Unit 3 | Magnetism | Ampere’s circuital law. Magnetic properties of materials: Magnetic intensity, magnetic induction, permeability, magnetic susceptibility | 2 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Theory | GE 4 | Unit 4 | Ampere’s circuital law. Magnetic properties of materials: Magnetic intensity, magnetic induction, permeability, magnetic susceptibility | Faraday’s laws of electromagnetic induction, Lenz’s law, self and mutual inductance, L of single coil, M of two coils. Energy stored in magnetic | 6 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 3 | practicals on Electricity and Magnetism | Analysis of CR circcuit | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Practical | GE 4 | Unit 2 | practicals on Electricity and Magnetism | De Sauty Bridge | 4 |
| Physics | ANIMESH HALDAR | GE-PHSH | 4 | Theory | Select | Unit I | Magnetic field | Biot Savart Law | 1 |
| Physics | ISHITA DE | CC-PHSH | 5 | Theory | Core-11 | Unit I | QUANTUM MECHANICS AND APPLICATIONS | TIME DEPENDENT SCHRDINGER EQUATION | 4 |
| Physics | ISHITA DE | CC-PHSH | 5 | Theory | Core-11 | Unit 2 | QUANTUM MECHANICS AND APPLICATIONS | TIME INDEPENDENT SCHRDINGER EQUATION | 4 |
| Physics | ISHITA DE | CC-PHSH | 5 | Theory | Core-11 | Unit 3 | QUANTUM MECHANICS AND APPLICATIONS | GENERAL DISCUSSION OF BOUND STATE IN A ARBITRARY POTENTIAL | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | Core-11 | Unit I | Quantum Mechanics | wave function and its property | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Practical | Core-11 | Unit I | Programming on Quantum Mechanics & Applications using scilab | s wave Schroodinger equation for hydrogen atom | 5 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Practical | Core-11 | Unit 2 | Programming on Quantum Mechanics & Applications using scilab | s wave Schroodinger equation in Coulomb potential | 5 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Practical | Core-11 | Unit 3 | Programming on Quantum Mechanics & Applications using scilab | s wave Schroodinger equation in anharmonic potential | 5 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Practical | Core-11 | Unit 4 | Programming on Quantum Mechanics & Applications using scilab | s wave Schroodinger equation in Morse Potential | 5 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Practical | Core-11 | Unit 5 | Programming on Quantum Mechanics & Applications using scilab | Discrete energy levels in Hydrogen atoms | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit I | Quantum Mechanics and Applications: Quantum theory of hydrogen-like atoms | Time independent Schrodinger equation in spherical polar coordinates; separation of variables for second order partial differential equation; | 1 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 2 | Quantum Mechanics and Applications: Quantum theory of hydrogen-like atoms | angular momentum operator and quantum numbers; Radial wavefunctions from Frobenius method; shapes of the probability densities for ground and first excited states; | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 3 | Quantum Mechanics and Applications: Quantum theory of hydrogen-like atoms | Orbital angular momentum quantum numbers l and m; s, p, d, …shells. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 4 | Quantum Mechanics and Applications: Atoms in Electric and Magnetic Fields | Electron angular momentum. Space quantisation. Electron Spin and Spin Angular Momentum. Larmor’s Theorem. Spin Magnetic Moment. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 5 | Quantum Mechanics and Applications: Atoms in Electric and Magnetic Fields | Stern-Gerlach Experiment. Zeeman Effect: Electron Magnetic Moment and Magnetic Energy, Gyromagnetic Ratio and Bohr Magneton. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 6 | Quantum Mechanics and Applications: Atoms in External Magnetic Fields | Normal and Anomalous Zeeman Effect. Paschen Back and Stark Effect (Qualitative Discussion only). | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 7 | Quantum Mechanics and Applications: Atoms in External Magnetic Fields | Normal and Anomalous Zeeman Effect. Paschen Back and Stark Effect (Qualitative Discussion only). | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 8 | Quantum Mechanics and Applications: | Many electron atoms | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 8 | Quantum Mechanics and Applications: Many electron atoms | Pauli’s Exclusion Principle. Symmetric and Antisymmetric Wave Functions. Periodic table. Fine structure. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 9 | Quantum Mechanics and Applications: Many electron atoms | Spin orbit coupling. Spectral Notations for Atomic States. Total angular momentum. Vector Model. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-11 | Unit 10 | Quantum Mechanics and Applications: Many electron atoms | Spin-orbit coupling in atoms- L-S and J-J couplings. Hund’s Rule. Term symbols. Spectra of Hydrogen and Alkali Atoms (Na etc.). | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit I | Solid State Physics:Ferroelectric Properties of Materials | Structural phase transition, Classification of crystals, Piezoelectric effect, Pyroelectric effect, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 2 | Solid State Physics:Ferroelectric Properties of Materials | Ferroelectric effect, Electrostrictive effect, Curie-Weiss Law, Ferroelectric domains, PE hysteresis loop. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 3 | Solid State Physics:Elementary band theory | Kronig Penny model. Band Gap. Conductor, Semiconductor (P and N type) and insulator. | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 4 | Solid State Physics:Elementary band theory | Conductivity of Semiconductor, mobility, Hall Effect. Measurement of conductivity (04 probe method) and Hall coefficient. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 5 | Solid State Physics:Superconductivity | Experimental Results. Critical Temperature. Critical magnetic field. | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 6 | Solid State Physics:Superconductivity | Meissner effect. Type I and type II Superconductors, | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 7 | Solid State Physics:Superconductivity | London’s Equation and Penetration Depth. Isotope effect. | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | Core-12 | Unit 8 | Solid State Physics:Superconductivity | Idea of BCS theory (No derivation) | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit I | Physics Lab - C 12 Lab : Solid State Physics | 1. Measurement of susceptibility of paramagnetic solution (Quinck‘s Tube Method). | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 2 | Physics Lab - C 12 Lab : Solid State Physics | 2. To measure the Magnetic susceptibility of Solids. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 3 | Physics Lab - C 12 Lab : Solid State Physics | 3. To determine the Coupling Coefficient of a Piezoelectric crystal. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 4 | Physics Lab - C 12 Lab : Solid State Physics | 4. To measure the Dielectric Constant of a dielectric Materials with frequency. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 5 | Physics Lab - C 12 Lab : Solid State Physics | 5. To determine the complex dielectric constant and plasma frequency of metal using Surface Plasmon resonance (SPR). | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 6 | Physics Lab - C 12 Lab : Solid State Physics | 6. To determine the refractive index of a dielectric layer using SPR. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 7 | Physics Lab - C 12 Lab : Solid State Physics | 7. To study the PE Hysteresis loop of a Ferroelectric Crystal. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 8 | Physics Lab - C 12 Lab : Solid State Physics | 8. To draw the BH curve of Fe and determine energy loss from Hysteresis. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 9 | Physics Lab - C 12 Lab : Solid State Physics | 9. To measure the resistivity of a semiconductor (Ge) with temperature by four-probe method (room temperature to 150 C) and to determine its band gap. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Practical | Core-12 | Unit 10 | Physics Lab - C 12 Lab : Solid State Physics | 10. To determine the Hall coefficient of a semiconductor sample. | 2 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Theory | Core-12 | Unit I | CRYSTAL STRUCTURE | Solids amorphous,cryastalline material,types of lattice,unit cell,miler indices,bragg's law,atomic and geometrical factor | 6 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Theory | Core-12 | Unit 2 | ELEMENTARY LATTICE DYANAMICS | Lattice vibration,phonons,linear monoatomic and Diatomic chains.acoustical and optical phonons,dulong and petit's law,Einstein and debye theories of specific heat of solids | 6 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Theory | Core-12 | Unit 3 | Magnetics properties of matter | Dia,para,ferromagnetic material,quantum mechanical treatment of paramagnetism,curie's law,weiss's theory of Feromagnetism and feromagnetic domain,discuss of BH curve,Hysteresis and energy loss | 6 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Theory | Core-12 | Unit 4 | Dielectric properties of materials | polarisation,electric susceptibility,polarisability,clausius mosotti equation,clasical theory of electric polarisability,normal and anomalous dispersion,complex dielectric constant,optical phenomena,a | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit I | Analog Pulse Modulation | modulation and detection technique for PAM only, Multiplexing | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 2 | Digital Pulse Modulation | Need for digital transmission, Pulse Code Modulation,Digital Carrier Modulation Techniques | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 2 | Digital Pulse Modulation | Quantisation and Encoding. Concept of Am- plitude Shift Keying (ASK), Frequency Shift Keying (FSK), | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 2 | Digital Pulse Modulation | Phase Shift Keying (PSK), and Binary Phase Shift Keying (BPSK). | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 3 | Satellite Communication | Introduction, need, Geosynchronous satellite orbits, geosta- tionary satellite advantages of geostationary satellites | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 3 | Satellite Communication | Satellite visibility, transponders (C - Band), path loss, ground station, simplified block diagram of earth station | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 3 | Satellite Communication | Uplink and downlink. | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Mobile Telephony System | Basic concept of mobile communication, frequency bands used in mobile communication | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Mobile Telephony System | , concept of cell sectoring and cell splitting, SIM number, IMEI number, need for data encryption | 3 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Mobile Telephony System | architecture (block diagram) of mobile com- munication network, idea of GSM, CDMA, TDMA and FDMA technologies | 3 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Mobile Telephony System | simplified block diagram of mobile phone handset, 2G, 3G and 4G concepts (qualitative only). | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Mobile Telephony System | GPS navigation system (qualitative idea only) | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit I | Analog Pulse Modulation | Channel capacity, Sampling theorem | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit I | Physics - DSE : Communication Electronics: Electronic communication | Introduction to communication – means and modes. Need for modulation. Block diagram of an electronic communication system. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 2 | Physics - DSE : Communication Electronics: Electronic communication | Brief idea of frequency allocation for radio communication system in India (TRAI). Electromagnetic communication spectrum, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 3 | Physics - DSE : Communication Electronics: Electronic communication | band designations and usage. Channels and base-band signals. Concept of Noise, signal-to-noise (S/N) ratio. | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 4 | Physics - DSE : Communication Electronics: Analog Modulation | Amplitude Modulation, modulation index and frequency spectrum. Generation of AM (Emitter Modulation), Amplitude Demodulation (diode detector), | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 5 | Physics - DSE : Communication Electronics: Analog Modulation | Concept of Single side band generation and detection. Frequency Modulation (FM) and Phase Modulation (PM), | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 6 | Physics - DSE : Communication Electronics: Analog Modulation | modulation index and frequency spectrum, equivalence between FM and PM, Generation of FM using VCO | 3 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 7 | Physics - DSE : Communication Electronics: Analog Modulation | FM detector (slope detector), Qualitative idea of Super heterodyne receiver. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 8 | Physics - DSE : Communication Electronics: Analog Pulse Modulation | Channel capacity, Sampling theorem, Basic Principles-PAM, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE1 | Unit 9 | Physics - DSE : Communication Electronics: Analog Pulse Modulation | PWM, PPM, modulation and detection technique for PAM only, Multiplexing. | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 5 | Theory | DSE1 | Unit I | Analog Pulse Modulation | Basic Principles-PAM, PWM, PPM | 3 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit I | To design an amplitude modulator using transistor | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 2 | To study FM GENERATOR AND DETECTOR CIRCUIT | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 3 | To study AM TRANSMITTER AND RECEIVER | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 4 | To study FM TRANSMITTER AND RECEIVER | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 5 | To study PULSE AMPLITUDE MODULATION | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 6 | To study PULSE WIDTH MODULATION | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 7 | To study PULSE POSITION MODULATION | | 0 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 5 | Practical | DSE1 | Unit 8 | To study ASK/PSK/FSK MODULATOR | | 0 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit I | Physics - DSE : Classical Dynamics: Classical Mechanics of Point Particles | Review of Newtonian Mechanics; Application to the motion of a charge particle in external electric and magnetic fields- motion in uniform electric field, magnetic field- gyroradius and gyrofrequency, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 2 | Physics - DSE : Classical Dynamics: Classical Mechanics of Point Particles | Generalised coordinates and velocities, Hamilton’s principle, Lagrangian and the Euler-Lagrange equations, one-dimensional examples of the Euler- Lagrange equations- one-dimensional Simple Harmonic Os | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 3 | Physics - DSE : Classical Dynamics: Classical Mechanics of Point Particles | applications to simple systems such as coupled oscillators Canonical momenta and Hamiltonian. Hamilton’s equations of motion. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 4 | Physics - DSE : Classical Dynamics: Classical Mechanics of Point Particles | Applications: Hamiltonian for a harmonic oscillator, solution of Hamilton’s equation for Simple Harmonic Oscillations; particle in a central force field- conservation of angular momentum and energy. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 5 | Physics - DSE : Classical Dynamics: Small Amplitude Oscillations Point Particles | Minima of potential energy and points of stable equilibrium, expansion of the potential energy around a minimum, small amplitude oscillations about the minimum, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 6 | Physics - DSE : Classical Dynamics: Small Amplitude Oscillations Point Particles | normal modes of oscillations example of N identical masses connected in a linear fashion to (N - 1) - identical springs. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 7 | Physics - DSE : Classical Dynamics: Special Theory of Relativityillations Point Particles | Postulates of Special Theory of Relativity. Lorentz Transformations. Minkowski space. The invariant interval, light cone and world lines. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 8 | Physics - DSE : Classical Dynamics: Special Theory of Relativityillations Point Particles | Space-time diagrams. Time -dilation, length contraction and twin paradox. Four-vectors: space-like, time-like and light-like. Four-velocity and acceleration. Metric and alternating tensors. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 9 | Physics - DSE : Classical Dynamics: Special Theory of Relativityillations Point Particles | Four-momentum and energy-momentum relation. Doppler effect from a four-vector perspective. Concept of four-force. Conservation of four-momentum. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 10 | Physics - DSE : Classical Dynamics: Special Theory of Relativityillations Point Particles | Relativistic kinematics. Application to two-body decay of an unstable particle. | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 11 | Physics - DSE : Classical Dynamics: Fluid Dynamics | Density and pressure P in a fluid, an element of fluid and its velocity, continuity equation and mass conservation, stream-lined motion, laminar flow, | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 5 | Theory | DSE2 | Unit 12 | Physics - DSE : Classical Dynamics: Fluid Dynamics | Poiseuille’s equation for flow of a liquid through a pipe, Navier-Stokes equation, qualitative description of turbulence, Reynolds number. | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | DSE B1 | Unit 3 | DSE-Digital and analog circuit and instrumentation | semiconductor devices and application | 4 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | DSE B1 | Unit 4 | DSE-Digital and analog circuit and instrumentation | transistor | 4 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | DSE B1 | Unit 4 | DSE-Digital and analog circuit and instrumentation | transistor | 4 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | DSE B1 | Unit 5 | DSE-Digital and analog circuit and instrumentation | digital electronics ,CRO | 4 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit I | TO MINIMIZE LOGIC GATE | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 2 | PN JUNCTION DIODE | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 3 | OPAMP INVERTING | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 3 | OPAMP NON-INVERTING | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 4 | HALF ADDER | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 4 | FULL ADDER | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 4 | AND,OR,NOT,XOR,XNOR GATE | digital electronics ,CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Practical | DSE B1 | Unit 4 | ZENER DIODE | digital electronics ,CRO | 2 |
| Physics | Parimal Sarkar | DSC-PHSG | 5 | Practical | DSE C1 | Unit I | Physics Lab- DSE Lab : Digital, Analog and Instrumentation: | Lectures 1. To measure (a) Voltage, and (b) Frequency of a periodic waveform using a CRO. | 2 |
| Physics | Parimal Sarkar | DSC-PHSG | 5 | Practical | DSE C1 | Unit I | Physics Lab- DSE Lab : Digital, Analog and Instrumentation: | 2. To verify and design AND, OR, NOT and XOR gates using NAND gates. | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | SEC3 | Unit I | SECPHSG3;BASIC INSTRUMENTATION SKILLS | CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | SEC3 | Unit 2 | SECPHSG3;BASIC INSTRUMENTATION SKILLS | CRO | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | SEC3 | Unit 3 | SECPHSG3;BASIC INSTRUMENTATION SKILLS | SIGNAL GENERATORS | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | SEC3 | Unit 4 | SECPHSG3;BASIC INSTRUMENTATION SKILLS | SIGNAL GENERATORS | 2 |
| Physics | ISHITA DE | DSC-PHSG | 5 | Theory | SEC3 | Unit 5 | SECPHSG3;BASIC INSTRUMENTATION SKILLS | MULTIMETER, MEASUREMENT | 2 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 6 | Electromagnetic Theory:Polarisation of Electromagnetic Waves | Babinet Compensator and its Uses. | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 4 | Electromagnetic Theory:Polarisation of Electromagnetic Waves | Light Propagation in Uniaxial Crystal. Double Refraction. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit I | Electromagnetic Theory LABElectromagnetic Waves | To verify the law of Malus for plane polarized light. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 6 | Electromagnetic Theory:Polarisation of Electromagnetic Waves | Babinet Compensator and its Uses. | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 5 | Electromagnetic Theory LABElectromagnetic Waves | To study the reflection, refraction of microwaves. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 6 | Electromagnetic Theory LABElectromagnetic Waves | To study Polarisation and double slit interference in microwaves. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 7 | Electromagnetic Theory LABElectromagnetic Waves | To determine the refractive index of liquid by total internal reflection using Wollaston’s air-film. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 2 | Electromagnetic Theory LABElectromagnetic Waves | To determine the specific rotation of sugar solution using Polarimeter. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 3 | Electromagnetic Theory LABElectromagnetic Waves | To analyse elliptically polarised Light by using a Babinet’s compensator. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 4 | Electromagnetic Theory LABElectromagnetic Waves | To study dependence of radiation on angle for a simple Dipole antenna. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 5 | Electromagnetic Theory LABElectromagnetic Waves | To determine the wavelength and velocity of ultrasonic waves in a liquid (Kerosene Oil, Xylene, etc.) by studying the diffraction through ultrasonic grating. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 3 | Electromagnetic Theory:EM Wave in Bounded Media | Fresnel’s Formulae, Brewster’s law. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 4 | Electromagnetic Theory:Polarisation of Electromagnetic Waves | Propagation of E.M. Waves in Anisotropic Media | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 2 | Electromagnetic Theory:EM Wave Propagation in Unbounded Media | Plane EM waves through vacuum and isotropic dielectric medium, | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 2 | Electromagnetic Theory:EM Wave Propagation in Unbounded Media | Propagation through conducting media | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit 3 | Electromagnetic Theory:EM Wave in Bounded Media | Boundary conditions | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit I | Electromagnetic Theory: Maxwell Equations | Wave Equations | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-13 | Unit I | Electromagnetic Theory: Maxwell Equations | Review of Maxwell’s equations | 12 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 8 | Electromagnetic Theory LABElectromagnetic Waves | To determine the refractive Index of (1) glass and (2) a liquid by total internal reflection using a Gaussian eyepiece. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 9 | Electromagnetic Theory LABElectromagnetic Waves | To study the polarisation of light by reflection and determine the polarising angle for air-glass interface. | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Practical | Core-13 | Unit 10 | Electromagnetic Theory LABElectromagnetic Waves | To verify the Stefan‘s law of radiation.. To determine the Boltzmann constant using V-I characteristics of PN junction diode. | 5 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | Core-13 | Unit 4 | POLARISATION OF ELECTROMAGNETIC WAVES | Circular ,elliptical polarisation, propagation of E.M. waves in anisotropic media,uniaxial and biaxial crystal,double refraction,polarisation of double refraction,ordinary & extraordinaryrefractive in | 10 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | Core-13 | Unit 5 | WAVES GUIDES | Planer optical wave guide,planar dielectric wave guide,condition of continuity at interface,phase and group velocity of guided waves | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | Core-13 | Unit 6 | OPTICAL FIBRES | Numerical aperture,step and graded indices | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 2 | Statistical Mechanics: Classical Statistics | Maxwell-Boltzmann Distribution Law, | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 3 | Statistical Mechanics: Classical Theory of Radiation | Blackbody Radiation | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 4 | Statistical Mechanics: Classical Theory of Radiation | Wien’s Displacement law. Wien’s Distribution Law. Saha’s Ionisation Formula. Rayleigh-Jean’s Law | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit I | Statistical Mechanics: Classical Statistics | Elementary Concept of Ensemble | 6 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 5 | Statistical Mechanics: Fermi-Dirac Statistics | Fermi-Dirac Distribution Law | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 6 | Statistical Mechanics: Fermi-Dirac Statistics | Degenerate Fermi Gas | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Theory | Core-14 | Unit 6 | Statistical Mechanics: Fermi-Dirac Statistics | Specific Heat of Metals | 5 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 6 | Bose-Einstein Statistics | Tutorial | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 4 | Quantum Theory of Radiation | Spectral Distribution of Black Body Radiation. Planck’s Quantum Postulates. Planck’s Law of Blackbody Radiation: Experimental Verification. | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 6 | BE Stasistics | Bose Einstein Gas at Low Temperature | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 5 | BE Statistics | BOSe Gas at High Temperature | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 3 | Statisticcal Mech Practicals | plotting of distribution functions of MB,BE & FD STST | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 5 | Statistical Mech Programming | plotting of thermodynamic variables in FD statistics | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 5 | Scilab Programming on Statistical Mechanics | 4. Plot Specific Heat of Solids by comparing (a) Dulong-Petit law, (b) Einstein distribu- tion function, (c) Debye distribution function for high temperature (room tempera- ture) and low temperature a | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 6 | Scilab Programming on Statistical Mechanics | 3. Plot Planck’s law for Black Body radiation and compare it with Wein’s Law and Raleigh-Jeans Law at high temperature (room temperature) and low temperature. | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 7 | Scilab Programming on Statistical Mechanics | 2. Computation of the partition function Z(ß) for examples of systems with a finite number of single particle levels (e.g., 2 level, 3 level, etc.) and a finite number of non-interacting particles N u | 6 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 4 | Quantum Theory of Radiation | Deduction of (1) Wien’s Distribution Law, (2) Rayleigh-Jeans Law, (3) Stefan-Boltzmann Law, (4) Wien’s Displacement law from Planck’s law | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 7 | Statistical Mechanics | Bose Einstein Condensation | 2 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit I | Statisticcal Mech Practicals | Plotting of Partition function and other Thermodynamic parameters of BE Statistics | 4 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Theory | Core-14 | Unit 4 | Bose Einstein statistics | Bose Gas At High Temperature | 3 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Core-14 | Unit 2 | Programming on Statistical Mechanics | 2. Computation of the partition function Z(ß) for examples of systems with a finite number of single particle levels (e.g., 2 level, 3 level, etc.) and a finite number of non-interacting particles N u | 4 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit I | Dissertation | TOPIC Selection | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 2 | Dissertation | Introduction | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 3 | Dissertation | Literature Survey | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 4 | Dissertation | Literature Survey | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 5 | Dissertation | Problem Identification | 10 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 6 | Dissertation | Detailed Study | 5 |
| Physics | Parimal Sarkar | CC-PHSH | 6 | Project | DSE3 | Unit 7 | Dissertation | Conclusion and Discussion with reference | 5 |
| Physics | ISHITA DE | CC-PHSH | 6 | Theory | DSE3 | Unit I | DSE : Nuclear and Particle Physics | General Properties of Nuclei | 8 |
| Physics | ISHITA DE | CC-PHSH | 6 | Theory | DSE3 | Unit 4 | DSE : Nuclear and Particle Physics | Detector for Nuclear Radiations | 7 |
| Physics | ISHITA DE | CC-PHSH | 6 | Theory | DSE3 | Unit 3 | DSE : Nuclear and Particle Physics | Radioactivity decay | 7 |
| Physics | ISHITA DE | CC-PHSH | 6 | Theory | DSE3 | Unit 2 | DSE : Nuclear and Particle Physics | Nuclear Models | 15 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | DSE4 | Unit 4 | NUCLEAR REACTION | Type of reaction,conservation laws,Q value,reaction rate,concept of compound reaction,coulomb reaction | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | DSE4 | Unit 5 | INTERACTION OF NUCLEAR RADIATION WITH MATTER | ENERGY LOSS DUE TO IONISATION,CERENKOV RADIATION,GAMMA RAY INTERACTION THROUGH MATTER ,PHOTOELECTRIC MATTER,COMPTON SCATTERING,PAIR PRODUCTION, | 8 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | DSE4 | Unit 6 | PARTICLE ACCELERATORS | CYCLOTRON,SYNCHROTRONS,LINEAR ACCELERATOR | 4 |
| Physics | SUDIPTA KARMAKAR | CC-PHSH | 6 | Theory | DSE4 | Unit 8 | PARTICLE PHYSICS | | 8 |
| Physics | ANIMESH HALDAR | CC-PHSH | 6 | Practical | Select | Unit 3 | Scilab Programming on Statistical Mechanics | (a) Study of how Z(ß), average energy E , energy fluctuation ?E, specific heat at constant volume Cv, depend upon the temperature, total number of particles N and the spectrum of single particle state | 6 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE A2 | Unit I | Nuclear and Particle Physics: Radioactivity decay | Alpha decay | 5 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE B2 | Unit 6 | Nuclear and Particle Physics: Radioactivity decay | Beta & Gamma decay | 5 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE B2 | Unit 7 | Nuclear and Particle Physics: Nuclear Reactions | Nuclear Reactions | 8 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE B2 | Unit 8 | Nuclear and Particle Physics: Interaction of Nuclear Radiation with matter | Interaction of Nuclear Radiation with matter | 6 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE B2 | Unit 9 | Nuclear and Particle Physics: IDetector for Nuclear Radiationsar Radiation with matter | Detector for Nuclear Radiations | 6 |
| Physics | Parimal Sarkar | DSC-PHSG | 6 | Theory | DSE B2 | Unit 10 | Nuclear and Particle Physics: Particle Acceleratorsuclear Radiationsar Radiation with matter | Particle Accelerators | 5 |
| Physics | ISHITA DE | DSC-PHSG | 6 | Theory | DSE C2 | Unit 5 | DSE : Nuclear and Particle Physics | Particle physics | 14 |
| Physics | ISHITA DE | DSC-PHSG | 6 | Theory | DSE C2 | Unit 6 | DSE : Nuclear and Particle Physics | Particle Accelerators | 14 |
| Physics | ISHITA DE | DSC-PHSG | 6 | Theory | DSE C2 | Unit 2 | DSE : Nuclear and Particle Physics | Radioactivity decay | 9 |
| Physics | ISHITA DE | DSC-PHSG | 6 | Theory | DSE C2 | Unit I | DSE : Nuclear and Particle Physics | General Properties of Nuclei | 10 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit I | Introduction to Computational Physics | Importance of computers in Physics, paradigm for solving physics prob- lems for solution. Usage of linux as an Editor | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 2 | Algorithms and Flowcharts | Algorithm: Definition, properties and development. Flow- chart: Concept of flowchart, symbols, guidelines, types. Examples: Cartesian to Spherical Polar Coordinates, Roots of Quadratic Equation, Sum o | 4 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 3 | Scientific Programming | Some fundamental Linux Commands (Internal and External commands). Development of FORTRAN, Basic elements of FORTRAN: Character Set, Constants and their types, Variables and their types, Keywords, Vari | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 3 | Scientific Programming | Operators: Arithmetic, Relational, Logical and Assignment Operators. Expressions: Arithmetic, Relational, Logical, Character and As- signment Expressions. Fortran Statements: I/O Statements (unformatt | 3 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 4 | Control Statements | Types of Logic (Sequential, Selection, Repetition), Branching State- ments (Logical IF, Arithmetic IF, Block IF, Nested Block IF, SELECT CASE and ELSE IF Ladder statements), Looping Statements (DO-CON | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 5 | Programmimg in Fortran Language | 1. Exercises on syntax on usage of FORTRAN. 2. Usage of GUI Windows, Linux Commands, familiarity with DOS commands and working in an editor to write sources codes in FORTRAN | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 5 | Programmimg in Fortran Language | 3. To print out all natural even/ odd numbers between given limits. 4. To find maximum, minimum and range of a given set of numbers. | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 5 | Programmimg in Fortran Language | 5. Calculating Euler number using exp(x) series evaluated at x = 1. | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 6 | Scientific word processing | Introduction to LaTeX: TeX/LaTeX word processor, prepar- ing a basic LaTeX file, Document classes, Preparing an input file for LaTeX, Compiling LaTeX File, LaTeX tags for creating different environmen | 3 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 7 | Equation representation | Formulae and equations, Figures and other floating bodies, Lining in columns- Tabbing and tabular environment, Generating table of contents, bib- liography and citation, Making an index and glossary, | 3 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 8 | Visualization | Introduction to graphical analysis and its limitations. Introduction to Gnu- plot. importance of visualization of computational and computational data, basic Gnu- plot commands: simple plots, plotting | 2 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 1. To compile a frequency distribution and evaluate mean, standard deviation etc. 2. To evaluate sum of finite series and the area under a curve | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 3. To find the product of two matrices. 4. To find a set of prime numbers and Fibonacci series | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 5. To write program to open a file and generate data for plotting using Gnuplot. 6. Plotting trajectory of a projectile projected horizontally | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 7. Plotting trajectory of a projectile projected making an angle with the horizontally. 8. Creating an input Gnuplot file for plotting a data and saving the output for seeing on the screen. Saving it | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 9. To find the roots of a quadratic equation. 10. Motion of a projectile using simulation and plot the output for visualization. | 1 |
| Physics | ANIMESH HALDAR | DSC-PHSG | 6 | Theory | SEC4 | Unit 9 | Hands on exercises | 11. Numerical solution of equation of motion of simple harmonic oscillator and plot the outputs for visualization. 12. Motion of particle in a central force field and plot the output for visualization | 1 |