A random idea

Magnetic Levitation Using Arduino: An In-Depth Technical Review. This is a review of an academic project that I participated in 2014.

Collection of numerical methods programs relating to systems of differential equations found in an applied physics context.

Interactive Barkhausen Effect Lab. A tactical simulation of ferromagnetic domain dynamics, stochastic wall pinning, and hysteresis noise. Designed for everyone—from students learning magnet basics to engineers researching NDT and material science. Engineered by Pavan Patil (25BEC077) to visualize discrete magnetization jumps & iron properties. Lab.

Web version of My PhD thesis.

Python program to compute molecular g-matrices using Bolvin’s state-interaction method for doublet systems, integrated in EzMagnet. Parses Q-Chem outputs to build effective Hamiltonians and obtain spin–orbit-coupled states for g-matrix analysis.

Python interface to Lanczos Algorithm for Spin Models

Jupyter notebooks and code supporting the article "Gravity as an Entropic Gradient Field".

uses p5js to calculate the magnetic field around a dipole magnet and visualize the field.

Prof: Yasir Iqbal, offered in Jan-May 2025 semester

Magnetic FluidS Stochastic Simulations

Magnetic Gear simulation @ IYPT-2024

Efficient magnetic field calculations

Official implementation of "Current-controlled nanomagnetic writing for reconfigurable magnonic crystals"

The modified Davis Chandrasekhar Fermi method written in Python.

This repository contains Python scripts and data for analyzing inductance in toroidal coils to calculate the magnetic permeability of ferrite materials. The project helps classify materials as soft or hard magnets based on experimental data.

This repository stores data and results related to MagFluid3S framework.

Study guide on Galactic magnetism.

Code for examining how the dipole-dipole interaction results in spin-canting in Gadolinium Gallium Garnet (GGG) in the low temperature, high field regime.