Bound-Preserving Numerical Solutions of Variable Density Two-Phase Flows
Explore efficient numerical methods for solving phase-field models in pore-scale flows, focusing on bound-preserving solutions and applications in energy and environmental sciences.
Using Python and SymPy to Solve a Mass on a Rotating Hoop Problem
Utilize Python and Sympy to solve complex physics problems, focusing on a mass rotating on a hoop using Lagrangian mechanics and differential equations.
Verifying Kepler's Second Law with Python and Physics
Model planetary orbits and verify Kepler's 2nd Law using Python, demonstrating equal area sectors in equal time periods through orbital motion simulations and sector area calculations.
Python Physics: Numerical Line Integrals with Python
Explore numerical line integral calculations in Python for classical mechanics, breaking paths into short steps and comparing with analytical methods.
Modeling a Slow Baseball Pitch
Explore the physics behind slow baseball pitches using Python programs, analyzing their trajectory and impact on gameplay.
Updates to Standard Library and Native DSL of ModelingToolkit - JuliaCon 2024
Explore updates to ModelingToolkit's standard library and new DSL for simplified model definition. Learn best practices, error interpretation, and how to contribute to the project.
ME3255 - Python Code Examples from Discussion
Learn Python coding techniques for mechanical engineering applications through practical examples and discussions.
ME3255 - Analyzing NYSE Monte Carlo Model
Analyze NYSE stock data using Monte Carlo simulations. Learn to model market behavior and predict future trends with statistical methods.
Least Square Method and Curve Fitting - Straight Line Problems in Numerical Methods
Master curve fitting and least square method techniques for straight line problems through practical numerical examples and statistical applications.
Shock Wave Simulation with rhoCentralFoam in OpenFOAM
Master shock wave simulation techniques using rhoCentralFoam in OpenFOAM through step-by-step guidance on setup, implementation, and results analysis for high-speed compressible flow modeling.
Modeling Earth's Tides with Python - Classical Mechanics
Explore the physics behind Earth's tides through Python modeling, understanding gravitational forces and creating visual simulations of tidal patterns and movements.
Enhanced Twist-Averaging Technique for Magnetic Metals - Applications Using Quantum Monte Carlo
Explore advanced twist-averaging techniques for magnetic metals using Quantum Monte Carlo, enhancing computational accuracy in materials science simulations.
How to Learn CFD - Free Online Resources
Discover free online resources for learning Computational Fluid Dynamics (CFD), enhancing your understanding of fluid flow simulations and analysis techniques.
AirShaper Demo: State-of-the-Art CFD Simulation - OpenFOAM Workshop 2023
Explore AirShaper's cutting-edge capabilities in computational fluid dynamics, showcasing advancements in aerodynamic simulation and analysis.
OpenFOAM Explained with a Pizza
Explore OpenFOAM's basics through a pizza-making analogy. Learn simulation templates and key steps for computational fluid dynamics using this open-source software.
A Discrete Version for Vortex Loops in 2D Fluids
Explore a discrete model for vortex loops in two-dimensional fluid dynamics, examining mathematical concepts and computational applications.
Intro to 3D Modeling the Motion of a Puck with Python
Crea un modelo 3D del movimiento de un disco utilizando Python y GlowScript para visualizar y analizar su trayectoria.
Finding the Principal Axes of Inertia With Python
Learn to calculate principal axes of inertia for mass systems using Python, applying numerical methods to solve complex physics problems efficiently.
Work Done by Gravity Along Straight and Curved Paths Using Python
Explore gravity's work along straight and curved paths using Python, demonstrating the conservative nature of gravitational force through computational analysis.
Solving 2D Quantum Mechanics Problems with Python
Explore Python techniques for solving 2D quantum mechanics problems with non-trivial potential, based on numerical methods and analytical solutions.
Solving a Boundary Value Problem with the Shooting Method and Python
Learn to solve boundary value problems using the shooting method and Python, with Euler method implementation and animated graph visualization.