Project Details

Neo Classical Limits
 
Period : Jan 2014 –May 2014
Funding Institute : Bits Pilani, K.K. Birla Goa Campus
Project Supervisor: Dr. Raghunath Ratabole

The Idea of Neo Classical Limits is an effort on the part of theoretical physicists to link Quantum Physics with Classical Physics. In this project I derived various properties of Quantum Coherent States and their time evolution in Classical Phase Space. Further, I tried to understand the description of Quantum Systems using O(N) Vector Model and applied the mathematical formalism so developed to N dimensional Quantum Harmonic Oscillator. The results in Heisenberg picture were averaged using Coherent State kets to see the classical picture of QHO.

2010A3B5174G_BITS C324.pdf 2010A3B5174G_BITS C324.pdf
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Neo Classical Limits.pdf Neo Classical Limits.pdf
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Group Theory and its applications in Quantum Mechanics

Period : Aug 2012 – Nov 2012
Funding Institute : Bits Pilani, K.K. Birla Goa Campus     
Project Supervisor: Dr. V. Sunil Kumar

The main aim of this project was to study the application of group theory in field of Quantum Mechanics. I tried to understand the basics of Groups and their applicability in analysis of various symmetries involved at molecular level.

2010A3B5174G_BITS C323.pdf 2010A3B5174G_BITS C323.pdf
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Distinguishability of some Dark Energy Models

Period : May 2013 – July 2013 
Funding Institute : Saha Institute of Nuclear Physics, Kolkata        
Project Supervisor: Prof. Debasish Majumdar 

The work was mainly based on theoretical analysis of Barotropic fluid model and Quintessence model. The effectiveness of higher order derivatives in distinguishing the models was studied and it was found that second order derivative can separate the phantom from non-phantom region in w-w` plane.

Uranium Melting using Induction Heating

Period : May 2012 – July 2012 
Funding Institute : IGCAR, Kalpakkam, Chennai     
Project Supervisor: Shri. Sanjay Kumar Das

This project was done as a part of Practice School Program of BITS Pilani. I worked at Sodium Fuel Interaction Facility of IGCAR to study accidental scenarios that may occur during interaction of Sodium coolant and molten Uranium fuel inside FBTR core. We used Induction heating to melt Uranium pellet and the molten fuel was brought in contact with sodium coolant in the reaction chamber of SOFI facility. Based upon the experimental data, I designed a python based software to carry out computations of frequency and power requirement for specific geometries of Uranium pellets and presented some design improvements of the induction coil based on simulations.

INDUCTION HEATING METHODOLOGY.pdf INDUCTION HEATING METHODOLOGY.pdf
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