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Advanced Solid State Physics

Second quantization: Fock-space representation for bosons and fermions, representation of many-body operators.

Electron-electron interaction: Hartree and Hartree-Fock approximations; Quasiparticles, Landau-Fermi liquid theory for interaction between quasiparticles, equilibrium properties of normal Fermi liquid, 3He: ideal Fermi liquid, transport of quasiparticles, current density.

Atmospheric Thermodynamics and Cloud Physics

Basic concepts, composition of the atmosphere, equation of state, hydrostatic equilibrium, first law of thermodynamics, application of first law, entropy, second law, heat capacity, dry adiabatic processes, transfer processes, moist thermodynamic processes in atmosphere, static stability, cloud characteristics and processes, Global energy and entropy balances, thermodynamic feedback in the climate system, thermodynamic diagrams.

Radiation Processes in Atmosphere

The spectrum of electromagnetic radiation; Solid angle, Fundamental of radiometric quantities, Concepts of scattering, absorption and polarization of radiation, Quantitative description of radiation; Blackbody Radiation: The Plank Function, Wiens displacement Law, The StefanBoltzmann Law; Kirchoff’s Law, Radiative equilibrium.

Absorption line profiles: Line formation and line shape, Absorption and emission by gas molecules, Physics of scattering and absorption by particles, Rayleigh Scattering, Raman Scattering, Lorentz-Mie theory of light scattering, Geometric Optics.

Earth Resources and Tectonic Systems

Internal Structure of Earth:

Introduction to Earth and formation theories. Seismicity and earth’s interior. Compositional and
Rheological divisions of Earth; crust, mantle and core; discontinuities. Mineralogy and Earth
Resources. Minerals, ores, petroleum, coal and natural gas- their origin, structure and composition,
accumulation/migration, source/reservoir rocks, distribution in space and time. General physical,
chemical and optical properties of common rock forming minerals.

Igneous, Metamorphic and Sedimentary Petrology:

Physical and Dynamical Oceanography

Unit I:

Physical properties of Sea water, density of sea water, density parameters, specific volume
anomaly, Temperature, Salinity, Cholorinity and their determination, distribution of temperature,
salinity and density in space and time, The oceanic Mixed Layer and Thermocline, Sea level
variation, acoustical and optical properties of sea water, Formation and classification of water
masses, T-S diagram and Water masses of the world ocean.

Dynamics of Atmosphere

Concept of fluid, Continum model, Lagrange and Eulerian description of fluid flow, continuity,
momentum and energy equations, boundary layer theory, turbulent flow, Inertial
and Non Inertial frames; Fundamental Forces - Pressure Gradient Forces, Gravitational Force,
Friction or Viscous Force, Apparent forces -Centrifugal Force, Coriolis force, Rossby number,
Effective Gravity; Hydrostatic balance, Momentum Equations-Cartesian Coordinate System,
Spherical – Polar coordinate system. Scale analysis of momentum equations. Balanced motion -

Design and Analysis Lab

• Generation and deigning of different pupil functions/ and diffraction

• Evaluation of point spread function of

   ◦ Diffraction limited system

   ◦ Centrally obstructed system

   ◦ Aberrated systems (Spherical aberration, coma and astigmatism)

• Evaluation of optical transfer function of the system of

  ◦ Diffraction limited system

  ◦ Aberrated systems

• Evaluation of phase transfer function of the imaging system