Applications of Newton's Laws
B3-21: CHISEL AS WEDGE
Category: B3 Simple Machines
Purpose:
Demonstrate the mechanical advantage of a wedge
B3-03: LEVER - WRECKING BAR
Category: B3 Simple Machines
Purpose:
Demonstrate the mechanical advantage of a lever
B3-02: LEVERS - THREE CLASSES
Category: B3 Simple Machines
Purpose:
Demonstrate the three classes of levers
B3-01: LEVER AND LOADED WAGON
Category: B3 Simple Machines
Purpose:
Demonstrate the mechanical advantage of a lever
B2-42: ARM MODEL
Category: B2 Equilibrium of Forces and Torques
Purpose:
Model the forces occurring in the arm
B2-36: EQUILIBRIUM OF TORQUES ON METERSTICK - ROTATORS
Category: B2 Equilibrium of Forces and Torques
Purpose:
Demonstrate equilibrium of torques
D1-52: FAIRGROUND ROTOR
Category: D1 Rotational Kinematics and Dynamics
Purpose:
Illustrate the application of rotational forces
D1-51 BANKED CURVE MODEL
Category: D1 Rotational Kinematics and Dynamics
Purpose:
Aid in explaining banked turns
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.
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C4-01: AIR TRACK - NEWTON'S SECOND LAW
Demonstrate F = ma Read More
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C4-02 AIR TRACK - A eq F/M
Illustrate the experimental basis for Newton's second law of motion Read More
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C4-03: ACCELERATION BY ITERATED BLOWS
Illustrate the numerical technique by which a computer carries out integration of the equation a = F/m Read More
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C4-11: ACCELEROMETER - BALL IN WATER
Demonstrate the direction of acceleration for both linear and circular cases Read More
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C4-12: ACCELEROMETER ON INCLINED PLANE
Illustrate the behavior of a liquid accelerometer accelerating down an inclined plane Read More
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C4-13: ACCELEROMETER ON ROTATOR
Show that the surface of a rotating liquid assumes a parabolic shape Read More
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C4-14: AIR TRACK - ACCELEROMETER
Demonstrate the behavior of a liquid accelerometer Read More
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C4-15: HELIUM BALLOON IN ACCELERATED BOX
Illustrate the affect of density on acceleration in a counterintuitive way Read More
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C4-21 ATWOOD MACHINE
Illustrate the second law of motion. Experimentally determine the acceleration due to gravity Read More
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C4-22: HORIZONTAL ATWOOD MACHINE
Demonstrate the Horizontal Atwood Machine quantitatively Read More
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C4-23: ATWOOD MACHINE WITH HEAVY PULLEY
Illustrate the effect of a heavy pulley on the Atwood Machine Read More
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C4-31: AIR TRACK - THE ACCELERATION OF GRAVITY
Experimentally determine the acceleration of gravity Read More
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C4-32: FREE FALL IN VACUUM - DISK AND FEATHER
Demonstrate that bodies of extremely different densities fall with equal acceleration in the absence of air friction Read More
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C4-34: GALILEO'S EXPERIMENT - MASSES IN FREE FALL
Show that the acceleration of bodies in free fall is independent of mass Read More
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C4-41: TERMINAL VELOCITY - BOTTLE IN TUBE
An easily observable terminal velocity experiment Read More
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C4-42: TERMINAL VELOCITY - FEATHER
Illustrate terminal velocity Read More
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C4-43: TERMINAL VELOCITY - STACKED COFFEE FILTERS
Illustrate terminal velocity quantitatively Read More
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C4-51: WEIGHTLESSNESS IN FREE FALL - MASS IN BEAKER
Demonstrate weightlessness in free fall Read More
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C4-52 WEIGHTLESSNESS IN FREE FALL - MASS IN CUP ON POLE
Illustrate apparent weightlessness in free fall Read More
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C4-53 WEIGHTLESSNESS IN FREE FALL - MASS ON SPRING
Illustrate apparent weightlessness in free fall Read More
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C4-54: WEIGHTLESSNESS IN FREE FALL - MAGNET AND KEEPER
Illustrate weightlessness in free fall Read More
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C4-61: ACCELERATION ON A SCALE
Illustrate forces in an accelerating system Read More
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C4-62 DROPPED SLINKY
Illustrate apparent weightlessness in free fall Read More
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