Simulating various matter wave phenomena, including diffraction, interference, focusing, and interactions with potential barriers, aids in understanding matter wave optics. Access detailed models and simulations to explore these effects, enhancing your comprehension of complex matter wave behavior and theoretical applications.
Numerical simulations of quantum systems provide a robust framework for exploring particle dynamics in varying potential landscapes. We simulate the […]
Quantum Particle Motion in a 2D Harmonic Potential: A Numerical Simulation Read Post »
Imaginary time evolution is a powerful computational technique widely used in quantum mechanics to find the ground state of a
Imaginary Time Evolution Method for Finding the Ground State Read Post »
Matter-wave diffraction occurs when particles such as atoms or sub-atomic particles exhibit wave-like behavior, resulting in interference patterns. This phenomenon
Momentum-Space Analysis of Matter-Wave Diffraction Patterns Read Post »
The Time-Dependent Schrödinger Equation (TDSE) describes how the quantum state of a physical system changes over time. Solving this equation
Split-Step Fourier Method for TDSE: Step-by-Step Guide Read Post »
Electron matter-wave diffraction demonstrates the wave-particle duality of electrons by forming interference patterns, much like light diffraction. This simulation models
Simulation of Matter-Wave Diffraction Through a Grating Read Post »
Single-slit diffraction is a fundamental phenomenon in matter wave optics, illustrating the wave nature of particles such as electrons. In
Animation of Single-Slit Diffraction of Electron Read Post »
In this article, we explore the phenomenon of quantum tunneling through a detailed Python simulation. Quantum tunneling is a fundamental
Animation of Quantum Tunneling: A code in Python Read Post »
In quantum mechanics, understanding the behavior of free particles is fundamental. This article explores the time evolution of a Gaussian