PHYS171
C6-02: INCLINED PLANE - FRICTION BLOCK
Category: C6 Friction
Purpose:
Demonstrates that the coefficient of static friction is greater than the coefficient of sliding friction, and determines the coefficient of static friction.
C6-01 INCLINED PLANE - FRICTION BOX AND WEIGHTS
Category: C6 Friction
Purpose:
Shows that the coefficient of friction does not depend upon the mass of the object although the frictional force does.
C5-14 ROCKET TRIKE
Category: C5 Third Law of Motion
Purpose:
Demonstrate Newton's third law of motion
C5-13 WATER ROCKET
Category: C5 Third Law of Motion
Purpose:
Demonstrate Newton's third law of motion
C5-02 SPRING AND PULLEY PARADOX
Category: C5 Third Law of Motion
Purpose:
Show that the action-reaction pairs have equal magnitude
C4-52 WEIGHTLESSNESS IN FREE FALL - MASS IN CUP ON POLE
Category: C4 Second Law of Motion
Purpose:
Illustrate apparent weightlessness in free fall
C4-21 ATWOOD MACHINE
Category: C4 Second Law of Motion
Purpose:
Illustrate the second law of motion. Experimentally determine the acceleration due to gravity.
C3-03 INERTIA - MASSES HANGING IN SERIES
Category: C3 First Law of Motion
Purpose:
Dramatically demonstrate inertia
C3-02 INERTIA - TABLE CLOTH TRICK
Category: C3 First Law of Motion
Purpose:
Dramatically demonstrate inertia
C2-27 FUNNEL CART ON INCLINE
Category: C2 Kinematics in One and Two Dimensions
Purpose:
Demonstrate the independence of horizontal and vertical components of motion
C2-26 FUNNEL CART WITH MASS OVER PULLEY
Category: C2 Kinematics in One and Two Dimensions
Purpose:
Demonstrate the independence of horizontal and vertical components of motion
C2-22 MONKEY AND HUNTER
Category: C2 Kinematics in One and Two Dimensions
Purpose:
Demonstrate the independence of horizontal and vertical components of motion
C2-11 RACING BALLS
Category: C2 Kinematics in One and Two Dimensions
Purpose:
Illustrate linear kinematics
B1-06: Double Cone - Large
Category: B1 Center of Mass Statics
Purpose:
Demonstrate a center-of-mass paradox
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F1-01 FLUID PRESSURE VS. DEPTH
Demonstrates that fluid pressure increases linearly with depth and is isotropic.
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F1-02: FLUID PRESSURE VS DEPTH - ANEROID GAUGE
Show water pressure versus depth with an aneroid gauge. Read More
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F1-03: PASCAL'S VASES
Show water pressure versus depth with an aneroid gauge. Read More
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F1-04: EQUILIBRIUM TUBES
Demonstrate that pressure is transmitted equally throughout a fluid. Read More
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F1-05: DOES WATER SEEK ITS OWN LEVEL?
A trick to challenge the students. Read More
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F1-06 WATER SEEKS ITS OWN LEVEL
Demonstrate that pressure is dependent only on depth, and not on the shape of the container. Read More
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F1-11: HYDRAULIC PRESS
Demonstrate dramatically Pascal's Law and the large forces attainable using hydraulic systems. Read More
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F1-12: PASCAL'S LAW - COILED TUBE PARADOX
Illustrate Pascal's law in a dramatic way. Read More
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F1-13: CONSTANT WATER PRESSURE
Demonstrate a mechanism which produces a constant water pressure. Read More
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F1-14: PISTON DIAMETER VS TRAVEL - WORKING MODEL
Show that with an incompressible fluid the bigger piston moves more slowly than the smaller piston. Read More
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F1-15: PRESSURE GLOBE
Demonstrate principles of air pressure. Read More
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F1-21: LIPLESS STRAW
Demonstrate the role of atmospheric pressure in the operation of a drinking straw.
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