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Conservation of Energy A wind-up toy is wound up and moving across level ground. The toy is speeding up. A B C D E Gravitational Potential Energy Elastic Energy Kinetic Energy Internal Energy (Dissipated to Heat A B C D E

Conservation of Energy Practice

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Page 1: Conservation of Energy Practice

Conservation of EnergyA wind-up toy is wound up and moving across level ground. The toy is speeding up.

A B C D E

Gravitational Potential Energy Elastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C D E

Page 2: Conservation of Energy Practice

Conservation of EnergyA wind-up toy is wound up and moving across level ground. The toy is speeding up.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C D E

Page 3: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and is moving at a constant speed up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C

D

E

Page 4: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and is moving at a constant speed up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C

D

E

Page 5: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and moving along at a constant speed.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C D E

Page 6: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and moving along at a constant speed.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C D E

Page 7: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and slowing down as it moves up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C D

E

Page 8: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and slowing down as it moves up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C D

E

Page 9: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and speeding up as it moves up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C

D

E

Page 10: Conservation of Energy Practice

Conservation of EnergyThe toy is wound up and speeding up as it moves up an incline.

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic EnergyInternal Energy(Dissipated to Heat & Sound)

A

B

C

D

E

Page 11: Conservation of Energy Practice

Conservation of EnergyA ball is held above the ground, and then is dropped so it falls straight down. (Restrict your analysis to the ball being in the air, BEFORE it hits the ground.)

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A

B

C

Page 12: Conservation of Energy Practice

Conservation of EnergyA ball is held above the ground, and then is dropped so it falls straight down. (Restrict your analysis to the ball being in the air, BEFORE it hits the ground.)

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A

B

C

Page 13: Conservation of Energy Practice

Conservation of EnergyA baseball is thrown up in the air and then falls back down. Place velocity vectors beside each corresponding baseball in the drawing, and draw an energy storage pie for each lettered position.

A B C D EGravitational Potential Energy

Elastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

Page 14: Conservation of Energy Practice

Conservation of EnergyA baseball is thrown up in the air and then falls back down. Place velocity vectors beside each corresponding baseball in the drawing, and draw an energy storage pie for each lettered position.

A B C D EGravitational Potential Energy

Elastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

Page 15: Conservation of Energy Practice

Conservation of EnergyAn object rests on a coiled spring, and is then launched upwards.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 16: Conservation of Energy Practice

Conservation of EnergyAn object rests on a coiled spring, and is then launched upwards.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 17: Conservation of Energy Practice

Conservation of EnergyA piece of clay is dropped to the floor.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A

B

C

Page 18: Conservation of Energy Practice

Conservation of EnergyA piece of clay is dropped to the floor.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A

B

C

Page 19: Conservation of Energy Practice

Conservation of EnergyA ball rolls to a stop on the floor.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 20: Conservation of Energy Practice

Conservation of EnergyA ball rolls to a stop on the floor.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 21: Conservation of Energy Practice

Conservation of EnergyA superball is dropped and bounces up and down. Draw a pie chart for each position of the ball shown. Why does the ball not bounce as high each time? Where does the energy "go”?

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

Page 22: Conservation of Energy Practice

Conservation of EnergyA superball is dropped and bounces up and down. Draw a pie chart for each position of the ball shown. Why does the ball not bounce as high each time? Where does the energy "go”?

A B C D E

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

Page 23: Conservation of Energy Practice

Conservation of EnergyA moving cart slows slightly as it rolls toward a spring, and then comes to a stop by compressing the spring.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 24: Conservation of Energy Practice

Conservation of EnergyA moving cart slows slightly as it rolls toward a spring, and then comes to a stop by compressing the spring.

A B C

Gravitational Potential EnergyElastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 25: Conservation of Energy Practice

Conservation of EnergyA truck being driven down the street.

A B C

Chemical EnergyGravitational Potential Energy

Elastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C

Page 26: Conservation of Energy Practice

Conservation of EnergyA truck being driven down the street.

A B C

Chemical EnergyGravitational Potential Energy

Elastic EnergyKinetic Energy

Internal Energy(Dissipated to Heat & Sound)

A B C