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Module 2.1: How fast and at what angle should you walk in the rain

Module 3.1: What is a vector, what is a scalar?

Module 3.2: Cartesian and Polar coordinates

Module 3.3: Vector

A and -A 

Module 3.4: Addition of vectors

Module 4.3: Subtraction of vectors 

Module 4.2: Finding acceleration and position using the V vs T diagram

Module 4.1: Throw two objects at different times with different speeds. 

Module 5.1: Instantaneous Acceleration: 1-Dimensional & 3-Dime 9 P

Module 6.1: Calculate how far and how high a kicked soccer ball 

Module 6.2: An astronaut on the moon throws a stone 

Module 7.1: Calculate tension in a rope given sag

Module 7.2: Explain weightlessness with respect to force

Module 8.1: Block sliding down a wedge

Module 8.2: A spring gun is used to accelerate small pucks acros 

Module 8.5: Air Drag on a Small Oil Drop

Module 8.4: Resistive Forces: Air Drag, Liquids, Spherical Ob

Module 8.3: Resistive Forces: Air Drag, Liquids, Spherical Objec

Module 8.6: Speed as a Function of Time when Resistive Force is

Module 9.1: Find centripetal acceleration using the orbital period 

Module 9.2: Finding Angular Frequency and Velocity

Module 10.1: A satellite is in orbit around the earth.

Module 10.2: Twirl a mass attached to a string in a circular path.

Module 11.1: Pulling a mass up a ramp

Module 11.2: Power: Average, Instantaneous Power, Negative

Module 12_03 | MIT 8.01SC Physics I: Classical Mechanics, F

Module 12_02 | MIT 8.01SC Physics I: Classical Mechanics

Module 12_01 | MIT 8.01SC Physics I: Classical Mechanics

Lec Module 12_04 | MIT 8.01SC Physics I: Classical Mechanics

Module 12_05 | MIT 8.01SC Physics I: Classical Mechanics

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