Vectors: Dots, Cross and triple products, Gradient, divergence, curl and
Newtonian laws of motion: calculus based approach to kinematics, forces and dynamics, conservation law of energy; conservation of linear and angular momentum;
Dynamics of rigid body; spin and precession; gyroscope; Gravitation; planetary motion and satellites; Kepler’s laws; centripetal forces
Special theory of relativity:
Michelson-Morley experiment and Einstein’s postulates; Lorentz transformation; time dilation and length contraction; equivalence of mass and energy.
II. Fluid Mechanics
Surface tension; Viscosity; Elasticity; fluid motion and Bernoulli’s theorem.
III. Waves and Oscillations, Optics
Free oscillation with one and two degrees of freedom; forced and damped
oscillations and phenomenon of resonance; Simple harmonic motion; Traveling waves and transmission of energy; Phase and Group velocity; standing waves; Basics of sound waves.
Reflection, Refraction, Interference, Diffraction and Polarization of waves; interfero meter and Newton’s rings; Diffraction Gratings and their resolving power; spectrometers. Electromagnetic wave equation; normal and anamolous dispersion; coherence, lasers and applications.
IV. Heat and Thermodynamics
Perfect gas, real gas and Van der Waals equation; Three Laws of
Thermodynamics; internal energy; temperature; entropy; Thermal properties of simple systems; kinetic theory of gases; Maxwellian distribution of molecular velocities; Brownian motion; Transport phenomena. Classical Maxwell-Boltzmann Statistics and its application; Bose-Einstein and Fermi-Dirac Statistics.
I. Electricity and Magnetism
Electric field due to point charges; Gauss’ law; Electric potential; Poisson and Laplace’s Moving equations; Dielectric medium and field;
Polarization; Capacitance; charges and resulting magnetic Ampere’s law; Magnetic properties of matter; Faraday’s law of electromagnetic induction; Alternating current and RLC circuit; Poynting theorem and Poynting Vector. Maxwell’s equations in integral and differential form; scalar and vector potential.
II. Modern and Quantum Physics
Waves and particles and De Broglie’s Hypothesis; Operators and quantum states; observables; time dependent and independent Schrodinger equation; angular momentum; spin-1/2 particle in a magnetic field; wave mechanics; particle in a box; tunneling; one-dimensional harmonic oscillator; Heisenber’s uncertainty relationship and indeterminacy based on commutation properties of operators; Bohr’s theory and quantum numbers including electron spin; Pauli’s exclusion principle; Spectra of simple systems with one or two valence electrons; photo electric effect; Compton scattering; pair production; Lande’s g factor and Zeeman effect. Raman effect;
III. Solid State Physics
Crystal lattice and structure, Bravais lattice, free electron model, Band theory and electron in a periodic potential, Fermi energy and density of states, n and p type semiconductors, physics of the transistor and MOSFET, dielectric properties, magnetic properties and origin of magnetism.
IV. Nuclear Physics
Structure of Nuclei; Radioactivity,, and decay; Methods of detection of
nuclear radiation, Mass Sepectrometer; Accelerators; Phenomenon of
fission; reactor and nuclear power; nuclear fusion and its applications; Elementary particles and their properties.
|1||Perspectives of Modern Physics.||A. Beiser.|
|2||Fundamentals of Physics.||Halliday & Resnick|
|3||Introduction to Electromagnetic Fields and|
|D. Corson & P. |
|4||Heat and Thermodynamics.||D. Zemansky|
|5||Introduction to Quantum Mechanics||D. Griffiths|
|6||Modern Physics||Serway, Moses, |
|7.||Solid State Physics||C. Kittel|