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Newton’s Universal Law of Gravitation – Practice Problems

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IB Physics Power Points Topic 6 SL Fields and Forces. www.pedagogics.ca. Newton’s Universal Law of Gravitation – Practice Problems. 1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms -2 ) - PowerPoint PPT Presentation
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Newton’s Universal Law of Gravitation – Practice Problems IB Physics Power Points Topic 6 SL Fields and Forces www.pedagogics.ca
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Slide 1

Newtons Universal Law of Gravitation Practice Problems

IB Physics Power Points

Topic 6 SLFields and Forces

www.pedagogics.ca

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.A 50 kg student in an elevator accelerating downwards at 3 ms-2A 50 kg student in an elevator falling freely

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

500 Nmgweight = 50 kg x 10 ms-2 = 500 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

500 NFg

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

500 NW

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at rest

500 NmgFN500 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.

500 NmgFN500 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.

500 NmgFN500 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.

500 NmgFN?

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.

500 NmgFN?Fnetmama = 50 x 1 = 50 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.

500 NmgFN550 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.A 50 kg student in an elevator accelerating downwards at 3 ms-2

500 NmgFN350 N

1. Draw free body diagrams (including annotations and calculated values) representing the following situations (consider g = 10 ms-2)A 50 kg student in an elevator at restA 50 kg student in an elevator moving downwards at 2 ms-1.A 50 kg student in an elevator moving upwards at 5 ms-1.A 50 kg student in an elevator accelerating upwards at 1 ms-2.A 50 kg student in an elevator accelerating downwards at 3 ms-2A 50 kg student in an elevator falling freely

500 Nmg

2. Which of the following graphs shows how the gravitational force varies with the distance of separation between two objects?

www.pedagogics.ca

3. A satellite experiences a gravitational force of 228 N at an altitude of 4.0 107 m above Earth.

What is the mass of this satellite?23 kg650 kg910 kg1 200 kg

4. A rock drops from a very high altitude towards the surface of the moon. Which of the following is correct about the changes that occur in the rocks mass and weight?


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