Vishal Indivar Kandala
@VishalKandalaCFD Engineer & Ph.D. Student @ Texas A&M. Developing high-fidelity solvers for turbulent flows using C , MPI & PETSc. Advocate for open-source.
Language Breakdown
Lines of code distribution across 8 owned repositories
T-Shaped Developer
T-shapedDeep in C++ with broad versatility
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Repos
10
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+18%
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A 2D Finite Volume Method (FVM) solver for incompressible, steady-state flows, written in Python with NumPy. This project implements the **SIMPLE (Semi-Implicit Method for Pressure Linked Equations)** algorithm on a staggered grid.
This is a 2-D Finite Volume solver that solves the Euler equations (Laminar, Inviscid flow) The solver is based on the famous Jameson-Turkel-Schmidt (JST) scheme. Implements Explicit euler psuedo time marching.
A parallel, high-performance Particle-In-Cell (PIC) solver with curvilinear coordinate support. PICurv enables efficient simulation of particle-laden flows in complex geometries by combining state-of-the-art numerical methods with high-performance parallel computing.
This repository contains a high-performance Computational Fluid Dynamics (CFD) solver written in C. It solves the 2D, steady-state, incompressible Navier-Stokes equations on a generalized curvilinear coordinate system.
his project is a from-scratch implementation of a 2D Gaussian Process Regression (GPR) model in C++. The core focus is on high performance, achieved by parallelizing the computationally intensive matrix decomposition step using OpenMP. The program performs a grid search to find the optimal hyperparameters for the GPR model.
Accepted GSoC 2025 proposals archive for reference and inspiration from the community.
In this work, the 2-D Diffusion equation is solved on a structured grid using the Finite Difference Method, This is done using a parallelized code, utilizing the PETSc library’s C interface. Krylov Subspace Solvers were utilized.
This code simulates the 1D heat conduction in a spherical body with multiple layers of different material compositions of varying thicknesses in the radial direction.
A beautiful, simple, clean, and responsive Jekyll theme for academics
A Docker (VM) Implementation of the Cantera Chemical Kinetics package augmented with a radiation module (RADCAL)
Open Source Impact
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