Tuesday, 16 July 2013 12:48
D1-51 BANKED CURVE MODEL
Additional Info
- ID Code: D1-51
- Purpose: Aid in explaining banked turns
- Description: The model of the curved road is banked such that at the suggested maximum rate of speed the horizontal component of the normal force provides the centripetal force required to keep the car moving in its circular path, independent of the friction of the car wheels with the road.
- Availability: Available
- Loc codes: D1
Published in
D1 Rotational Kinematics and Dynamics
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D1-01 STROBOSCOPE AND FAN
Demonstrates rotational motion using stroboscope Read More
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D1-11: CYCLOID - LIGHT BULB ON WHEEL
Demonstrate cycloidal motion Read More
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D1-12: ADDITION OF ANGULAR VELOCITIES
Illustrate the complex motion resulting from addition of two angular velocities Read More
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D1-21: ANGULAR VELOCITY - OBERBECK CROSS
Measure the angular velocity of a rotating object Read More
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D1-30: TRAJECTORY FROM CIRCULAR ORBIT - OVERHEAD PROJECTOR
Show that the instantaneous velocity of an object executing uniform circular motion is tangent to the circle Read More
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D1-31: TRAJECTORY FROM SPIRAL
Show that forces are required to create circular motion Read More
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D1-32: TRAJECTORY FROM CIRCULAR ORBIT
Show that the instantaneous velocity of an object executing uniform circular motion is tangent to the circle Read More
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D1-33 ROTATING MASS ON STRING
Illustrates centripetal force and that instantaneous velocity is tangent to the circular path Read More
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D1-34 ROTATING MASS ON SPRING
Illustrates centripetal force Read More
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D1-35 CENTRIPETAL FORCE - ROTATING MASS
Measures the required centripetal force for an object to move with uniform circular motion Read More
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D1-36: AIR TABLE - CENTRIPETAL FORCE
Show that centripetal force varies with angular velocity Read More
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D1-37 MUDSLINGER
Illustrates centripetal force and that instantaeous velocity is tangent to the circular path Read More
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D1-39: PENNY AND COAT HANGER
Demonstrate centripetal force and centrifugal reaction in a dramatic way Read More
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D1-40: CENTRIPETAL FORCE ON ROTATING RUBBER BAND
Demonstrate centripetal force and centrifugal reaction Read More
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D1-41 ROTATING WATER BUCKET
Demonstrates centripetal force and centrifugal reaction Read More
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D1-42: ROTATING WATER BUCKET WITH SPONGE
Illustrate centripetal force and centrifugal reaction with a trick Read More
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D1-43: INERTIAL FORCES - BALLS IN ROTATING JARS
Demonstrate inertial forces in bodies submerged in air and in water Read More
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D1-44: ACCELEROMETERS AND FRAMES OF REFERENCE
Demonstrate the direction of the acceleration in both rotational and translational coordinate systems Read More
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D1-51 BANKED CURVE MODEL
Aid in explaining banked turns Read More
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D1-52: FAIRGROUND ROTOR
Illustrate the application of rotational forces Read More
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D1-53 LOOP-THE-LOOP
Demonstrates conservation of energy in a rotating object and centripetal force Read More
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D1-55: ROTATING ELASTIC RINGS
Demonstrate "centrifugal reaction" and to indicate why the earth is oblate Read More
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D1-61: Rolling versus Sliding
Applies conservation of energy to a rolling object Read More
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D1-62: CONSERVATION OF ENERGY IN ROLLING BODY
Demonstrate conversion of gravitational potential energy into translational and rotational kinetic energy Read More
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D1-63: MAXWELL PENDULUM - LARGE
Demonstrate transformations between gravitational potential energy and rotational kinetic energy Read More
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D1-64: MAXWELL PENDULUM - SMALL
Demonstrate transformations between gravitational potential energy and rotational kinetic energy Read More
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D1-65: YO-YO
Illustrate transformation between various forms of energy and to perform yo-yo tricks Read More
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D1-81: TRICYCLE
Illustrate a tricky problem in rotational dynamics Read More
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D1-82: ROLLING FRICTION
Show the direction of the frictional force when a rolling object is accelerated Read More
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D1-83: SPOOL
Illustrate a counterintuitive problem in rotational dynamics Read More
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D1-84: SPINNING CYLINDRICAL SHELL
A counterintuitive demonstration of rotational dynamics Read More
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