āš›ļø

Quantum Tunnelling Simulation

Interactive Physics Virtual Lab

Ready
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Wavepacket Parameters

Particle Energy (E) Energy of the incoming quantum particle 0.030 ± 0.005
šŸ’” Learning Tip
Higher particle energy increases the probability of tunnelling through the barrier!
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Potential Barrier

Barrier Height (Vā‚€) Height of the potential energy barrier 0.040
Barrier Width (L) Width of the potential barrier 20
Ramp Gradient Smoothness of barrier edges 0
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Quantum Wavefunction Visualization

ā¬…ļø Reflected: 100.0%
Transmitted: 0.0% āž”ļø
Speed: 20x
T(E) = e-2ĪŗL where Īŗ = √(2m(Vā‚€-E)/ā„Ā²)
Transmission Coefficient Formula for Quantum Tunnelling
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Learning Scenarios

🟢 Easy Tunnel
High E, Low Vā‚€
🟔 Balanced
E ā‰ˆ Vā‚€
šŸ”“ Hard Tunnel
Low E, High Vā‚€
šŸ“š Classical
E > Vā‚€ (Over)
šŸ“ Wide Barrier
Large L
šŸ“¶ Step Potential
Infinite Width
šŸ“Š

Physics Data

Particle Energy (E) 0.030
Barrier Height (Vā‚€) 0.040
Barrier Width (L) 20 units
Transmission % 0.0%
Reflection % 100.0%
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Key Observations

  • āœ“ Click "ā–¶ļø" to start the simulation
  • āœ“ Adjust parameters and observe changes
  • āœ“ Try different presets to understand tunnelling