Geometrical Optics
L5-24: FIBER OPTICS COMMUNICATION LINE
Category: L5 Total Internal Reflection
Purpose:
Demonstrate transmission of laser light by a real fiber optics communication line.
L5-22: FIBER OPTICS ARRAY - PROJECTION
Category: L5 Total Internal Reflection
Purpose:
Demonstrate fiber optics in an interesting way.
L5-21: FIBER OPTICS ARRAY
Category: L5 Total Internal Reflection
Purpose:
Demonstrate fiber optics in an exciting way.
L5-13: PLEXIGLASS SPIRAL WITH LASER
Category: L5 Total Internal Reflection
Purpose:
Demonstrate total internal reflection with laser light.
L5-05: IMAGE INVERSION BY PRISM
Category: L5 Total Internal Reflection
Purpose:
Demonstrate that a right angle prism can invert an image.
L5-04: MICROWAVES - TOTAL INTERNAL REFLECTION
Category: L5 Total Internal Reflection
Purpose:
Demonstrate total internal reflection of microwaves in a paraffin prism.
L5-03: FISH IN TANK - TOTAL INTERNAL REFLECTION
Category: L5 Total Internal Reflection
Purpose:
Illustrate total internal reflection.
L5-02: TOTAL INTERNAL REFLECTION IN LONG TANK
Category: L5 Total Internal Reflection
Purpose:
Demonstrate total internal reflection of a laser light.
L5-01: OPTICAL BOARD - TOTAL INTERNAL REFLECTION
Category: L5 Total Internal Reflection
Purpose:
Demonstrate total internal reflection and the critical angle.
N3-51: SPECTRUM WITH MINICAM AND VIDEO PROJECTOR
Category: N3 Color
Purpose:
Demonstrate how color TV equipment derives its color, and to illustrate a defect in handling of saturated colors such as spectra.
N3-45: REFLECTION AND TRANSMISSION FROM GOLD FOIL
Category: N3 Color
Purpose:
Show the complementary relationship between light reflected from and transmitted by a thin gold foil.
N3-44: THE COLOR OF COPPER
Category: N3 Color
Purpose:
Show that light reflected from copper is a desaturate orange.
N3-43: COLORS REFLECTED FROM COLORED OBJECTS
Category: N3 Color
Purpose:
Show why colored objects look colored.
N3-41: SPLITTING OF SPECTRUM INTO COMPLEMENTARY COLORS
Category: N3 Color
Purpose:
Show complementary colors by removing a band from the white light spectrum.
N3-33: MAXWELL'S EXPERIMENT - THREE-COLOR MIXING
Category: N3 Color
Purpose:
Demonstrate three-color mixing with positive colors.
N3-32: COLOR SEPARATION TRANSPARENCIES - LARGE
Category: N3 Color
Purpose:
Illustrate color mixing of negative color transparencies.
N3-31: COLOR SEPARATION TRANSPARENCIES
Category: N3 Color
Purpose:
Illustrate color mixing of negative color transparencies.
N3-28: HOLLOW PRISM
Category: N3 Color
Purpose:
Observe the color spectrum of white light using a prism filled with liquid.
N3-27: NEGATIVE FILTERS IN SERIES
Category: N3 Color
Purpose:
Demonstrate how negative filters combine to give color combinations
N3-26: COLOR FILTER SETS
Category: N3 Color
Purpose:
Several color filter sets are available for use as the instructor desires.
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N1-01: PRISMATIC SPECTRUM OF WHITE LIGHT - POINT SOURCE
Demonstrate continuous spectrum. Read More
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N1-03: PRISMATIC SPECTRUM OF WHITE LIGHT - WATER PRISM
Demonstrate continuous spectrum using water as the dispersing medium. Read More
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N1-05 SPECTRA - VISIBLE AND INVISIBLE
Demonstrates continuous spectrum
Read More
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N1-06: POLYPRISM SPECTRA
Demonstrate continuous spectra with several different types of glass. Read More
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N1-07: VARIATION OF SPECTRUM WITH LAMP INTENSITY
Demonstrate continuous spectrum as the brightness of the source changes Read More
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N1-08: GOETHE'S PUZZLE
Show the view of a slide through a prism and argue about color theory. Read More
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N1-09: COMPLEMENTARY SPECTRUM
Display the spectrum of a "negative" slit. Read More
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N1-11: DIFFRACTION SPECTRUM OF WHITE LIGHT - POINT SOURCE
Demonstrate continuous spectrum. Read More
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N1-12: DIFFRACTION SPECTRA - GRATING ON OVERHEAD PROJECTOR
Very simple white light diffraction spectrum. Read More
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N1-13: DIFFRACTION SPECTRUM OF WHITE LIGHT - PORTABLE
Individual observation of white light spectrum. Read More
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N1-14: REFLECTION GRATING - LARGE
Show a spectrum from a small bright source. Read More
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N1-21: COLOR SEPARATION AND RECOMBINATION BY PRISMS
Show how a prism can recombine previously dispersed white light. Read More
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N1-22: OPTICAL BOARD - PRISMS - SEPARATE AND RECOMBINE
Separate white light into its component colors with a prism and use an identical prism to recombine the light. Read More
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N1-23: FINE RESOLUTION OF SPECTRUM USING TWO PRISMS
Increase the dispersion in a white light spectrum by adding a second prism. Read More
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N1-31: SUN DOG - MODEL
Show how a "sun dog" is formed. Read More
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N1-32: ICE CRYSTALS - PAPER MODELS
Illustrate how two types of ice crystals formed high in the atmosphere float downward through the air with preferred orientations. Read More
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N1-41: RAINDROP RAY MODEL
Illustrate formation of a rainbow. Read More
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N1-42: RAINDROP MECHANICAL MODEL
Illustrate rays in formation of a rainbow. Read More
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N1-43: RAINBOW - GLASS BEAD MODEL
Observe an almost complete circular rainbow formed by glass beads. Read More
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N1-44: OPTICAL BOARD - RAINBOW
Demonstrates internal reflection and dispersion of light
Read More
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N1-45: RAINBOW - WATER FLASK
Demonstrate a large angle rainbow. Read More
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N1-51: SPECTROMETER - HAND HELD
Demonstrate spectra individually. Read More
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N1-61: REFRACTION OF LIGHT IN DIAMOND
Show how a diamond produces colors from white light. Read More
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