Free Interactive Schrodinger Equation 1D Well Visualizer

Free Interactive Schrodinger Equation 1D Well Visualizer
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Explore quantum mechanics with our free 1D infinite potential well visualizer. Interactive tool to plot wavefunctions and probability densities instantly.

Built by@Akhenaten

What This App Does

Explore quantum mechanics with our free 1D infinite potential well visualizer. Interactive tool to plot wavefunctions and probability densities instantly. — generated by gemini-3.0-flash and published by @Akhenaten on Slopstore. Categorized under Education, this app is part of Slopstore's curated collection of AI-generated tools and experiments. Run it free in your browser. No installation needed.

AI Generation Prompt

Technical Specification: Free Interactive Schrodinger Equation 1D Well Visualizer

1. Overview

A single-file, browser-based physics utility designed to visualize the solutions to the 1D time-independent Schrodinger equation for an infinite potential well. The tool allows users to input the well width and quantum number to generate real-time visual representations of wavefunctions (ψ) and probability densities (ψ²).

2. Feature List

  • Dynamic Equation Visualization: Real-time plotting of the sine-wave solutions for quantum states n=1 through n=10.
  • Dual-View Modes: Toggle between viewing the raw Wavefunction (amplitude) and the Probability Density (squared amplitude).
  • Interactive Parameters: Sliders to control the Well Width (L) and the Quantum Number (n).
  • Precision Grid: An interactive grid system that adjusts scaling based on input parameters to maintain visual fidelity.
  • Export Capability: A button to capture the canvas render as a PNG image for educational reports.
  • MathML Integration: Display the current analytical equation using MathJax or KaTeX for mathematical clarity.

3. UI Layout

  • Header: Clean, minimalist title "Quantum Mechanics 1D Well Visualizer".
  • Control Panel (Top/Sidebar):
    • Slider inputs for 'Quantum Number (n)' and 'Well Width (L)'.
    • Toggle switch for 'Display Mode' (Wavefunction vs. Probability Density).
    • 'Export Plot' button.
  • Main Display: A large, centered HTML5 Canvas element displaying the wave graph.
  • Equation Display: A card section below the canvas displaying the LaTeX-formatted equation for the currently active state.

4. Design & Aesthetics

  • Palette: Use a clean, light-mode professional palette. High-contrast blues (#2563eb) for the wavefunction lines, subtle greys (#f3f4f6) for the grid background, and stark black (#1f2937) for text elements.
  • Typography: Sans-serif fonts (e.g., Inter or system-default) for high readability.
  • Animations: Use CSS transitions for button hover states and smooth fade-in animations for the canvas when parameters are updated.

5. Technical Constraints & Directives

  • Architecture: Single HTML file containing CSS, HTML, and Vanilla JavaScript.
  • No Persistence: Do not use localStorage or cookies. Initialize all states to defaults (n=1, L=10) on load.
  • Sandbox Safety: Avoid alert(), confirm(), or prompt(). Create custom CSS modals if interactivity messages are required.
  • Responsiveness: Use CSS Flexbox/Grid for layout. The canvas must scale proportionally with the window width.
  • Dependencies: Use CDN links for MathJax/KaTeX (for formulas) and ensure they are loaded asynchronously. All other logic must be raw JavaScript.
  • Performance: Optimize the canvas draw loop to handle updates at 60fps, ensuring zero lag when dragging sliders.

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Files being used

index.html
11.0 KB
#Schrodinger equation solver#1D infinite potential well#quantum mechanics visualizer#quantum wave function plotter#physics education tool#probability density calculator

Frequently Asked Questions

Everything you need to know about using this application.

What does the 1D infinite potential well represent in quantum mechanics?

The 1D infinite potential well, or particle in a box model, describes a particle free to move in a small space surrounded by impenetrable barriers. It is a fundamental model in quantum mechanics used to demonstrate the quantization of energy levels and the wave-like nature of particles. In this model, the potential energy is zero inside the well and infinite outside. This constraint forces the wavefunction of the particle to go to zero at the walls, leading to discrete energy states that depend on the width of the well and the quantum number n.

How does this tool calculate the wavefunctions?

This application uses the analytical solutions to the time-independent Schrodinger equation for a particle in a 1D box. For a well of width L, the wavefunctions are defined by the sine function: ψ_n(x) = sqrt(2/L) * sin(n * pi * x / L). When you adjust the quantum number or the well width, the tool dynamically updates these mathematical functions in real-time. It renders the resulting wave amplitudes and probability densities (the square of the wavefunction) using high-precision HTML5 canvas rendering to ensure accuracy for educational purposes.

Is this tool suitable for university-level physics study?

Yes, this tool is designed for students and educators who need a quick, visual way to understand how the quantum number n influences the number of nodes in a wavefunction. It provides an immediate visual correlation between the abstract mathematics of the Schrodinger equation and physical reality. While it does not simulate complex systems like multi-electron atoms or time-dependent problems, it serves as an excellent foundational utility for mastering the basics of quantum states, boundary conditions, and probability distributions.

Can I export the plots for use in reports or assignments?

Absolutely. This tool includes a 'Download Plot' feature that captures the current visualization as a high-resolution image file. You can easily save your generated graphs and include them in physics lab reports, homework assignments, or study presentations. Since this application runs entirely in your browser without external server processing, the image generation is handled locally, ensuring that your work is private and the export is instantaneous.

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