Nanophysics |
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Atomic Force Microscopy |
Resistance of Atomic Wires |
Imaging Atoms (Demonstration) |
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Waves |
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Audio Crime Scene |
Resonance in Transverse Waves |
Diffraction of Light |
Clearly Colorful Thin Films |
Exploring Wave Phenomena |
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Electricity and Magnetism |
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Water Analogy to Electric Circuits |
Discovering Ohm's Law |
Too Cool to Resist |
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Magnetic Force on a Current-carrying Wire |
Physics on a Guitar |
Photovoltaic Cells: |
Notebook Circuits |
Foutan Board
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Quantum Physics |
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Bohr Model Game |
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The Phantastic Photon |
Light Emitting Diodes |
Mechanics |
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Double Pendulum: A bridge between Regular Dynamics and Chaos |
Mousetraps and Ping Pong Balls |
The Physics of Rock Climbing |
Vortex Rings |
Particle Physics |
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Cloud Chamber and Cosmic Rays Developed by the Cornell Laboratory for Elementary-Particle Physics |
|
Optics |
|
Communicating With Light |
Is the Light Bulb Too Good to be True? |
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Labs & Lending Library
Index of All Labs | Request Form
Nanophysics
Atomic Force Microscopy
Resistance of Atomic Wires
Imaging Atoms (Demonstration)
Waves
Audio Crime Lab
Resonance Lab
Diffraction of Light
Interference in Thin Films
Exploring Wave Phenomena
Electricity and Magnetism
Water Analogy to Electric Circuits
Discovering Ohm's Law
Too Cool to Resist
Magnetic Force on a wire with current
Quantum Physics
Bohr Model Game
The Phantastic Photon
Light Emitting Diodes
Mechanics
Double Pendulum
Mousetrap and Ping Pong Balls
The Physics of Rock Climbing
Vortex Rings
Particle Physics
2-D Scattering
Cloud Chamber and Cosmic Rays
Optics
Communicating with Light
Is the Light Bulb Too Good to be True?
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