Gate
2018 Syllabus for Physics (PH)
Mathematical
Physics: Linear Vector Space; Matrices; Vector Calculus; Linear
Differential Equations; Elements Of Complex Analysis; Laplace Transforms, Fourier
Analysis, Elementary Ideas About Tensors.
Classical
Mechanics: Conservation Laws; Central Forces, Kepler Problem And
Planetary Motion; Collisions And Scattering In Laboratory And Centre Of Mass
Frames; Mechanics Of System Of Particles; Rigid Body Dynamics; Moment Of
Inertia Tensor; Noninertial Frames And Pseudo Forces; Variational Principle; Lagrange’s
And Hamilton’s Formalisms; Equation Of Motion, Cyclic Coordinates, Poisson Bracket;
Periodic Motion, Small Oscillations, Normal Modes; Special Theory Of Relativity
– Lorentz Transformations, Relativistic Kinematics, Mass-Energy Equivalence.
Electromagnetic
Theory: Solution Of Electrostatic And Magnetostatic Problems
Including Boundary Value Problems; Dielectrics And Conductors; Biot-Savart’s And
Ampere’s Laws; Faraday’s Law; Maxwell’s Equations; Scalar And Vector
Potentials; Coulomb And Lorentz Gauges; Electromagnetic Waves And Their
Reflection, Refraction, Interference, Diffraction And Polarization. Poynting Vector,
Poynting Theorem, Energy And Momentum Of Electromagnetic Waves; Radiation From
A Moving Charge.
Quantum
Mechanics: Physical Basis Of Quantum Mechanics; Uncertainty
Principle; Schrodinger Equation; One, Two And Three Dimensional Potential
Problems; Particle In A Box, Harmonic Oscillator, Hydrogen Atom; Linear Vectors
And Operators In Hilbert Space; Angular Momentum And Spin; Addition Of Angular
Momenta; Time Independent Perturbation Theory; Elementary Scattering Theory.
Thermodynamics
And Statistical Physics: Laws Of Thermodynamics; Macrostates
And Microstates; Phase Space; Probability Ensembles; Partition Function, Free
Energy, Calculation Of Thermodynamic Quantities; Classical And Quantum
Statistics; Degenerate Fermi Gas; Black Body Radiation And Planck’s Distribution
Law; Bose-Einstein Condensation; First And Second Order Phase Transitions,
Critical Point.
Atomic
And Molecular Physics: Spectra Of One- And Many-Electron
Atoms; LS And Jj Coupling; Hyperfine Structure; Zeeman And Stark Effects;
Electric Dipole Transitions And Selection Rules; X-Ray Spectra; Rotational And
Vibrational Spectra Of Diatomic Molecules; Electronic Transition In Diatomic
Molecules, Franck-Condon Principle; Raman Effect; NMR And ESR; Lasers.
Solid
State Physics: Elements Of Crystallography; Diffraction
Methods For Structure Determination; Bonding In Solids; Elastic Properties Of
Solids; Defects In Crystals; Lattice Vibrations And Thermal Properties Of
Solids; Free Electron Theory; Band Theory Of Solids; Metals, Semiconductors And
Insulators; Transport Properties; Optical, Dielectric And Magnetic Properties
Of Solids; Elements Of Superconductivity.
Nuclear
And Particle Physics: Nuclear Radii And Charge Distributions,
Nuclear Binding Energy, Electric And Magnetic Moments; Nuclear Models, Liquid
Drop Model – Semi-Empirical Mass Formula, Fermi Gas Model Of Nucleus, Nuclear
Shell Model; Nuclear Force And Two Nucleon Problem; Alpha Decay, Beta-Decay,
Electromagnetic Transitions In Nuclei; Rutherford Scattering, Nuclear
Reactions, Conservation Laws; Fission And Fusion; Particle Accelerators And
Detectors; Elementary Particles, Photons, Baryons, Mesons And Leptons; Quark
Model.
Electronics: Network
Analysis; Semiconductor Devices; Bipolar Junction Transistors, Field Effect
Transistors, Amplifier And Oscillator Circuits; Operational Amplifier, Negative
Feedback Circuits ,Active Filters And Oscillators; Rectifier Circuits,
Regulated Power Supplies; Basic Digital Logic Circuits, Sequential Circuits,
Flip-Flops, Counters, Registers, A/D And D/A Conversion.
No comments:
Post a Comment