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Solid State Technology Lab I

  1. X-rays: X-ray diffraction: estimation of crystallographic parameters, X-ray fluorescence: elemental identification of given samples (9 hours)
  2. Optical absorption spectra of materials, estimation of (direct / indirect) band-gap (6 hours)
  3. Hall effect: estimation of carrier concentration, Hall voltage and carrier mobility (9 hours).
  4. Zeeman effect (6 hours)
  5. Temperature-dependent current measurements: estimation of activation energy (6 hours)
  6. Raman spectrometer: stokes and anti-stokes lines (6 hours)
  7. Rydberg constant: hydrogen spectrum – differ

Applied Quantum Physics

1.Fundamental concepts: Kets, bras, and operators. Base kets and matrix representations. Measurements, observables, and the uncertainty relations. Change of basis. Position eigenkets and position measurements. Wave functions in position and momentum space. Momentum operator in the position basis. Gaussian wave packets.

2.Quantum dynamics: Time evolution and the Schrӧdinger equation. The Schrӧdinger versus the Heisenberg picture. Schrӧdinger wave equation. Particle-in-a-box problem, Simple harmonic oscillator.

Solid State Physics I

1.Crystal structure

Periodic arrays of atoms: basis and the crystal structure, primitive lattice. Fundamental types of lattices: 2 and 3 dimensional lattice types, Bravais lattice. Index system for crystal planes. Simple crystal structures with examples. Reciprocal lattice: diffraction of waves by crystals, Bragg’s law. Reciprocal lattice vectors, Brillouin zones.

2. Band structure:

Advanced Electromagnetics

1)Revision of electromagnetic theory: Fields and potentials (Coulomb’s law, Gauss’ theorem, Poisson’s and Laplace’s   equations, Ohm’s law, Kirchhoff’s law, Ampere’s law, Gauss’s magnetic field law, Lorentz field     equation, Faraday’s   law, Maxwell’s modification of Ampere’s law), fields in vacuum and in matter. Maxwell’s equations.

2)Field interaction with matter: dipole moments and polarization. Field and potential due to electric dipoles and   multipole fields. Equation of continuity, relaxation time of charges in dielectrics and metals.

Theory of Plasticity And Metal Forming

Concepts of stress and strain, state of stress in two and three dimensions, Hydrostatic and deviatoric stress, flow curves, yielding criteria (Von Mises and Tresca), octahedral shear stress and shear strain, stress invariants, Deformation work and power, Plastic stress - strain relations, Fundamentals of metal forming - Extrusion, rolling, wire drawing, Forging, Friction and lubrication in metal forming processes, Mechanics of meal working by slab method, Tension testing.

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