PHYS270
K2-43: LENZ'S LAW - PERMANENT MAGNET AND COILS
Category: K2 Electromagnetic Induction
Purpose:
Demonstrate Lenz's law
L2-61: MIRROR TILES WITH LIGHT BULB
Category: L2 Plane Mirrors
Purpose:
Show multiple reflections using two mirrors
K4-21: ST. LOUIS MOTOR
Category: K4 Motors and Generators
Purpose:
Demonstrate the structure and operation of a simple motor
M4-02: NEWTON'S RINGS - PROJECTION
Category: M4 Thin Film Interference
Purpose:
Demonstrate a well-known interference pattern
K8-42: RADIOWAVES - ENERGY AND DIPOLE PATTERN
Category: K8 Electromagnetic Waves and Sources
Purpose:
Demonstrates transmission of energy in electromagnetic waves. Shows the radiation pattern of the dipole antenna
P2-22 BICHSEL BOXES - BLACK BODY RADIATION
Category: P2 Quantum Mechanics
Purpose:
Demonstrates Wien's law of radiation
P2-13: ELECTRON DIFFRACTION
Category: P2 Quantum Mechanics
Purpose:
Demonstrates the wave properties of electrons
P1-02: LOCAL INERTIAL FRAME OF REFERENCE
Category: P1 Relativity
Purpose:
Illustrates an inertial frame of reference
M7-31 TYNDALL'S EXPERIMENT - COLLOIDAL SUNSET
Category: M7 Linear Polarization and Scattering
Purpose:
Colloidal sunset demonstration
M3-01 MICHELSON INTERFEROMETER - LASER LIGHT
Category: M3 Interferometers
Purpose:
Shows laser light fringes using a Michelson interferometer
M2-01 LASER DIFFRACTION - PINHOLES
Category: M2 Diffraction - Circular
Purpose:
Demonstrates laser diffraction by pinholes
M1-11 LASER DIFFRACTION - FIXED DOUBLE SLITS
Purpose:
Demonstrates double slit interference
M1-02 LASER DIFFRACTION - VARIABLE SINGLE SLIT
Purpose:
Demonstrates single slit diffraction
L6-12 MAGNIFYING LENS IN WATER
Category: L6 Lenses
Purpose:
Shows that focal properties of a lens depend on the medium in which the lens is located
L5-23 FIBER OPTICS TREE
Category: L5 Total Internal Reflection
Purpose:
Demonstrates total internal reflection
L5-14: LASER AND PLEXIGLASS TUBE
Category: L5 Total Internal Reflection
Purpose:
Demonstrates total internal reflection
L5-12 PLEXIGLASS SPIRAL
Category: L5 Total Internal Reflection
Purpose:
Demonstrates total internal reflection
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P2-01: PHOTOELECTRIC EFFECT AND PLANCK'S CONSTANT
Demonstrate the frequency dependence of the photoelectric effect and determine the value of Planck's constant. Read More
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P2-02: PHOTOELECTRIC EFFECT IN ZINC - ARC LAMP
Demonstrate the emission of photoelectrons. Read More
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P2-03: PHOTOELECTRIC EFFECT IN ZINC - UV LAMP
Demonstrate the emission of photoelectrons. Read More
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P2-04 PHOTOELECTRIC PROPELLER
Demonstrates solar cells
Read More
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P2-05: PHOTO-RESISTOR RELAY
Demonstrate operation of a photoresistor. Read More
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P2-06 PHOTOELECTRIC TRUCK
Demonstrates solar cells
Read More
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P2-11: INTERFERENCE OF PHOTONS
Demonstrate two-slit interference of single photons. Read More
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P2-12: X-RAY DIFFRACTION MODEL
Show analog between diffraction of light by a two-dimensional grating and diffraction of x-rays by a single crystal. Read More
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P2-13: ELECTRON DIFFRACTION
Demonstrates the wave properties of electrons
Read More
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P2-14: ELECTRON DIFFRACTION MODEL
Analog to diffraction of electrons or x-rays by a powdered crystal. Read More
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P2-15: WAVE PACKETS - OSCILLATORS
Show that wave packets begin to form when sinusoidal oscillations with similar frequencies are combined. Read More
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P2-20: FLUORESCENCE WITH LASER AND PYLON
Demonstrates change in light color due to flourescence Read More
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P2-21 BLACK BODY MODEL
Demonstrates that a cavity is blacker than any surface -- making it a good approximation for an ideal black body
Read More
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P2-22 BICHSEL BOXES - BLACK BODY RADIATION
Demonstrates Wien's law of radiation
Read More
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P2-24: GIANT-LIGHT BULB
Demonstrate color and intensity changes of blackbody radiation with temperature. Read More
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P2-41: POTENTIAL WELL - HILL TRACK MODEL
Illustrate the concept of a quantum mechanical potential well. Read More
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P2-42: PARTICLE IN A BOX - 1D - QM INTRODUCTION
Model behavior of a quantum mechanical one-dimensional particle in a box. Read More
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P2-43: CLASSICAL HARMONIC OSCILLATOR - QM INTRODUCTION
Demonstrate the simple behavior of a classical particle moving in a quadratic field. Read More
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P2-51: OPTICAL ANALOG OF QM STATES AND OPERATORS
Use properties of optical devices as analogs to illustrate quantum mechanical states and operators. Read More
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P2-61: DIRAC STRING TRICK
Illustration of a topological property of the group of rotations. Read More
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