PHYS122
N1-51: SPECTROMETER - HAND HELD
Category: N1 Continuous Spectra
Purpose:
Demonstrate spectra individually.
M1-42: IRIDESCENT GREEN JUNE BEETLE
Purpose:
Demonstrate a type of iridescence.
M1-41: PEACOCK FEATHER
Purpose:
Demonstrate a type of iridescence.
P1-01: MICHELSON-MORLEY EXPERIMENT - MODEL
Category: P1 Relativity
Purpose:
Geometrical model of the Michelson-Morley experiment to aid explanation.
O1-04: IMAGE INVERSION ON RETINA - INDIVIDUAL VIEWING
Category: O1 Image Production
Purpose:
Hand out small squares of black paper with pins to the class members to do this experiment.
P2-03: PHOTOELECTRIC EFFECT IN ZINC - UV LAMP
Category: P2 Quantum Mechanics
Purpose:
Demonstrate the emission of photoelectrons.
P2-02: PHOTOELECTRIC EFFECT IN ZINC - ARC LAMP
Category: P2 Quantum Mechanics
Purpose:
Demonstrate the emission of photoelectrons.
J1-05 CHARGED BALLOONS
Category: J1 Electrostatic Charge and Force
Purpose:
Demonstrates "charging by friction"
K2-43: LENZ'S LAW - PERMANENT MAGNET AND COILS
Category: K2 Electromagnetic Induction
Purpose:
Demonstrate Lenz's law
J4-41: CAPACITORS
Category: J4 Capacitance and Polarization
Purpose:
Display a variety of capacitors
J6-04: LOW-POWER HIGH-FORCE ELECTROMAGNET
Category: J6 Electromagnets
Purpose:
Show that a small amount of energy can produce large magnetic forces
H2-52: BEATS AND RESONANCE - TUNING BARS
Category: H2 Wave Properties of Sound
Purpose:
To demonstrate beats, and to demonstrate resonance between two identical tuning bar resonators.
P2-22 BICHSEL BOXES - BLACK BODY RADIATION
Category: P2 Quantum Mechanics
Purpose:
Demonstrates Wien's law of radiation
P2-21 BLACK BODY MODEL
Category: P2 Quantum Mechanics
Purpose:
Demonstrates that a cavity is blacker than any surface -- making it a good approximation for an ideal black body
P2-13: ELECTRON DIFFRACTION
Category: P2 Quantum Mechanics
Purpose:
Demonstrates the wave properties of electrons
M8-01 POLAROIDS AND KARO SYRUP
Category: M8 Optical Activity and Birefringence
Purpose:
Demonstration of an optical cavity
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J3-01: EXISTENCE OF ELECTRIC FIELDS
Demonstrate the existence of electric fields and to map them semi-quantitatively Read More
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J3-02: ELECTRIC FIELD OF RING OF CHARGE - MODEL
Aid in the visualization of the electric field of a ring of charge Read More
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J3-04: ELECTRIC FIELD LINES - SOAP BUBBLES
Show the shape of electric field lines for a large dipole by observing soap bubbles move along the lines Read More
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J3-05: VAN DE GRAAFF - INDUCTION WITH SPHERES AND NEON BULB
Demonstrate the existence of electric fields and to identify the polarity of the charge on a sphere Read More
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J3-06 ELLIPSOIDAL CONDUCTOR
Demonstrates that charge distribution on a conductor depends on the surface curvature Read More
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J3-07: VAN DE GRAAFF - DISCHARGE TO VARIOUS RADII
Demonstrate that for a charged conductor a smaller radius produces a higher electric field Read More
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J3-08 VAN DE GRAAFFS - INTERACTING FIELDS
Shows field lines for two identical charges Read More
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J3-11: EQUIPOTENTIALS/LINES OF FORCE - ONE CHARGE
Aid in visualization of equipotentials and lines of force Read More
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J3-13 POTENTIAL SURFACE MODEL WITH E FIELD VECTORS
Illustrates the relationship between the electrostatic potential and the electric field Read More
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J3-14 FLUX MODEL - ELECTROSTATICS
Aid in visualizing flux at an angle through a surface Read More
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J3-21 FARADAY CAGE
Demonstrates that the electric field within a closed conducting surface is zero Read More
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J3-22: FARADAY CAGE - ELECTROSCOPE
Demonstrate that the electric field within a closed surface is zero Read More
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J3-23 FARADAY CAGE - RADIOWAVES
Demonstrates that radio waves cannot penetrate a Faraday cage Read More
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J3-24 HOLLOW CONDUCTING SPHERE
Demonstrates that charge resides on the outside surface of a conductor Read More
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