AP®︎ Physics 1: Topic 1.2 Practice Test

Prepare for your quiz, test, or the AP exam with focused practice questions on Topic 1.2 of AP Physics 1 – Displacement, Velocity, and Acceleration.


Questions List

Topic 1.2

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Q2
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Q7
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Q10
Q11
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Question 1 Easy

A student wants to answer each question below. For which question is it most reasonable to model the object as a single point?
AHow fast does a baseball spin about its center as it travels toward home plate?
BHow do a gymnast's arms and legs move relative to each other during a flip?
CHow long does a freight train 1 km long take to travel 300 km between two cities?
DHow much does a tennis ball's shape change while it is in contact with a racket?

What You’re Being Tested On:

Explore the learning objectives taken directly from the College Board’s AP® Physics 1 Curriculum. Ensure you’re prepared for the exact topics covered on the AP® exam, in-class tests, and quizzes, and gain confidence in your mastery of the material.

Topic 1.2: Displacement, Velocity, and Acceleration

Learning Objective: 1.2.A

Describe a change in an object’s position.

Essential Knowledge: 1.2.A.1

When using the object model, the size, shape, and internal configuration are ignored. The object may be treated as a single point with extensive properties such as mass and charge.

Essential Knowledge: 1.2.A.2

Displacement is the change in an object’s position. Relevant equation: Δx=x−x0\Delta x = x - x_0

Learning Objective: 1.2.B

Describe the average velocity and acceleration of an object.

Essential Knowledge: 1.2.B.1

Averages of velocity and acceleration are calculated considering the initial and final states of an object over an interval of time.

Essential Knowledge: 1.2.B.2

Average velocity is the displacement of an object divided by the interval of time in which that displacement occurs. Relevant equation: v⃗avg=Δx⃗Δt\vec{v}_{avg} = \frac{\vec{\Delta x}}{\Delta t}

Essential Knowledge: 1.2.B.3

Average acceleration is the change in velocity divided by the interval of time in which that change in velocity occurs. Relevant equation: a⃗avg=Δv⃗Δt\vec{a}_{avg} = \frac{\vec{\Delta v}}{\Delta t}

Essential Knowledge: 1.2.B.4

An object is accelerating if the magnitude and/or direction of the object’s velocity are changing.

Essential Knowledge: 1.2.B.5

Calculating average velocity or average acceleration over a very small time interval yields a value that is very close to the instantaneous velocity or instantaneous acceleration.