MATSE
501
THERMODYNAMICS OF MATERIALS Learnt fundamental principles of thermodynamics of materials
with emphasis on problem solving and physical understanding.. Learnt to use
Thermo-calc computer software as an aid in performing thermodynamic
calculations. CH
E
544
GENERAL TRANSPORT PHENOMENA Learnt
to formulate and solve transport problems involving momentum, heat, and mass transfer,
using Cartesian tensor notation. MATSE 503
Kinetics of Materials Processes
MATSE
597I
nANo-structured carbon materials Learnt
about the different forms of carbon: diamond, graphite and single and multi-wall
carbon nanotubes and
the current state of research in their growth, characterization and
application. M E
540
NUMERICAL SOLUTION OF HEAT TRANSFER Learnt
application of finite difference method for conduction and convection heat
transfer and potential and viscous flows. Wrote FORTRAN codes for
finite-difference modeling of heat and mass transfer.. E MCH 560
FINITE ELEMENT ANALYSIS Learnt
the general theory of FEM with application to statics and dynamics of solids, structures, fluids, and heat
flow. Used ANSYS for FEM modeling. CH E 546
TRANSPORT PHENOMENA II Learnt
about heat and mass transfer, steady and unsteady state, coupling, molecular diffusion, moving boundaries, transfer
coefficients with focus on chemical engineering applications. MATSE
548
Dielectrics
and Related Electroceramics MATSE 514
CHARACTERIZATION OF MATERIALS Was
exposed to various techniques for the characterization of composition, structure, defects, and
surfaces from material science perspective. MATSE 597C
COMPUTATIONAL MATERIAL SCIENCE II:MESO-SCALE MODELING PHYS 527
COMPUTATIONAL PHYSICS Was
introduced to computer simulations and numerical methods for
hydrodynamics, nonlinear phenomena, high energy physics and
astrophysics.
Wrote programs in JAVA a did a project to model grain growth in a polycrystalline material based
on Monte-Carlo method. MATH
567
NUMBER THEORY I Learnt
about congruences, quadratic reciprocity, Gauss sums, finite fields, zeta
function, algebraic numbers, quadratic and cyclotomic fields, Galois theory,
etc. M E 524
TURBULENCE AND APPLICATIONS TO CFD: DNS AND LES Learnt
about scalings, decompositions, turbulence equations, scale representations, Direct and Large-Eddy
Simulation, pseudo-spectral methods, Kolmogorov's 1941 theory.
Learnt the fundamentals of a atomistic mechanisms of diffusion,
solutions to the phenomenological diffusion equation, diffusion along
extended defects, gas-solid reactions, phase transformations, computer
simulation of diffusional processes, and microstructure evolution.
Learnt
about thermodynamic and phase-field modeling; heat transfer and fluid flow
modeling for materials processing.