PHYS260
H1-01 BELL IN VACUUM
Category: H1 Nature of Sound
Purpose:
Demonstrates sound wave requirement for a medium
G4-02 RIPPLE TANK
Category: G4 Mechanical Waves - Two Dimensional
Purpose:
Illustrates wave phenomena water surface
G3-53 STANDING WAVES IN A STRING
Category: G3 Mechanical Waves - One Dimensional
Purpose:
Demonstrates standing waves on a thin string
G3-51 ROPE WAVE GENERATOR - FREQUENCY VS. WAVELENGTH
Category: G3 Mechanical Waves - One Dimensional
Purpose:
Shows the relationship between frequency and wavelength for fixed tension cord
G3-28 SUSPENDED SLINKY
Category: G3 Mechanical Waves - One Dimensional
Purpose:
Shows longitudinal and transverse traveling waves & standing waves
G3-21 TRANSVERSE WAVES ON A LONG SPRING
Category: G3 Mechanical Waves - One Dimensional
Purpose:
Demonstrates traveling waves
G3-01 SHIVE WAVE MACHINE - TRAVELING WAVES
Category: G3 Mechanical Waves - One Dimensional
Purpose:
Demonstrates traveling waves
G2-01 MASS ON SPRING - HAND HELD
Category: G2 Resonance and Coupled Oscillations
Purpose:
Demonstrates resonance and phase shift at resonance
G1-60 CHAOS - TWO BIFILAR PENDULA
Category: G1 Simple Harmonic Motion
Purpose:
Illustrates chaotic motion
G1-52 STRINGLESS PENDULUM
Category: G1 Simple Harmonic Motion
Purpose:
Demonstrates an example of SHM
G1-15 PENDULA WITH 4 TO 1 LENGTH RATIO
Category: G1 Simple Harmonic Motion
Purpose:
Shows that period of a simple pendulum is proportional to the square root of its length
G1-14 PENDULA WITH DIFFERENT MASSES
Category: G1 Simple Harmonic Motion
Purpose:
Demonstrates independence of a simple pendulum's period with mass of the bob.
G1-11 COMPARISON OF SHM AND UCM
Category: G1 Simple Harmonic Motion
Purpose:
Demonstrates the relationship between simple harmonic motion and uniform circular motion.
G1-01 EXAMPLES OF SIMPLE HARMONIC MOTION
Category: G1 Simple Harmonic Motion
Purpose:
Illustrates simple harmonic motion
F5-22 VENTURI TUBE WITH PING PONG BALLS
Category: F5 Forces in Moving Fluids
Purpose:
Illustrates the venturi effect.
F5-21 VENTURI TUBE WITH MANOMETERS
Category: F5 Forces in Moving Fluids
Purpose:
Illustrates the venturi effect
F2-21 REACTION TO BUOYANT FORCE
Category: F2 Buoyancy
Purpose:
Demonstrates the reaction force using a liquid.
F2-01 ARCHIMEDES' PRINCIPLE
Category: F2 Buoyancy
Purpose:
Demonstrates the buoyant force on a body submerged in a fluid to be equal to the weight of the displaced fluid.
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H3-01: STANDING SOUND WAVES - TWO SOURCES
Demonstrate the origin of standing waves from two identical sources. Read More
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H3-02: STANDING SOUND WAVES - REFLECTION
Demonstrate the origin of standing waves from one source and its reflection. Read More
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H3-03: REFLECTION OF PULSES IN TUBE
Demonstrate the origin of standing waves from one source and its reflection. Read More
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H3-04: KUNDT'S TUBE - STROKED ROD
Demonstrate standing waves in an air column. Read More
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H3-05: KUNDT'S TUBE - OSCILLATOR DRIVEN
Demonstrate standing waves in an air column. Read More
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H3-11: TUNING FORKS AND RESONANT TUBE
Illustrate resonance in an air column. Read More
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H3-12: ROARING TUBE - 4 FT
Demonstrate standing sound waves in air excited by convection currents. Read More
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H3-13: ROARING TUBE - 8 FT
Demonstrate standing sound waves in air excited by convection currents. Read More
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H3-14 TWIRL-A-TUNE
Demonstrates standing wave resonances in an open tube
Read More
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H3-15: TWIRL-A-TUNE AND VACUUM CLEANER
Demonstrate standing wave resonances in an open tube. Read More
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H3-16: SINGING PIPES
Show sound resonance created by convection currents in a tube. Read More
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H3-17 FLAME TUBE
Demonstrates standing waves in a tube
Read More
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H3-21: SOUND RESONANCE IN WATER TUBE
Demonstrate standing waves in a closed tube. Read More
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H3-22: RESONANCE TUBE - OSCILLATOR AND PLUNGER
Demonstrate standing waves in a closed tube. Read More
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H3-23: RESONANCE TUBE - OSCILLATOR, PLUNGER AND MICROPHONE
Demonstrate standing sound waves in a closed tube. Read More
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H3-24 OPEN AND CLOSED PIPES
Demonstrates open and closed tube standing resonances
Read More
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H3-25: GALTON'S WHISTLE
Produce high-frequency tones. Read More
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H3-31: DUCK CALL
Quack like a duck Read More
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H3-32: RESONANCE IN TUBE - POURING WATER
Demonstrate standing wave resonances in an acoustical closed tube. Read More
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H3-33: RESONANCE FROM WHITE NOISE IN VARIABLE TUBE
Demonstrate resonance in a closed tube, and to show that noise contains a large range of frequencies.. Read More
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H3-41: RESONANCE CURVE - HELMHOLTZ RESONATOR
Demonstrate the resonance behavior of a Helmholtz resonator. Read More
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H3-42: RESONANCE CURVES - OPEN AND CLOSED TUBES
Demonstrate the resonance behavior of open and closed tubes. Read More
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H3-51: SONOMETER WITH TUNING PEGS
Demonstrate standing waves in a stretched wire and to demonstrate Mersenne's first and second laws. Read More
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H3-52: SONOMETER WITH WEIGHTS
Demonstrate standing waves in a stretched wire and to demonstrate Mersenne's laws. Read More
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H3-61 BEAKER BREAKER
Breaks a glass beaker with sound
Read More
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H3-62: TEACUP STANDING WAVES
Demonstrate circular standing waves in an interesting way. Read More
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H3-71 STROKED ALUMINUM ROD
Illustrates longitudinal standing waves in an aluminum rod.
Read More
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H3-72: TUNING RODS
Hear longitudinal standing wave resonances in aluminum rods. Read More
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H3-73: TUNING RODS - SUSPENDED
Illustrate transverse standing waves in aluminum rods. Read More
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H3-74: TUNING BAR PARADOX - EFFECT OF WIDTH
Illustrate transverse vibrations of a solid bar struck in the center. Read More
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