AP Physics 1 MCQ Practice by Topic 2027
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How much AP Physics 1 MCQ practice is available?
There are 42 original multiple-choice questions for each of the 43 official AP Physics 1 topics, giving 1,806 topic MCQs with answers, explanations and lesson routing.
- 43 topic banks.
- 42 MCQs per topic.
- 1,806 topic MCQs total.
Choose the exact AP Physics 1 topic
All 43 official topics are available. Each MCQ bank contains 42 original questions and each FRQ bank contains four prompts aligned to the four current free-response task types.
Vectors & Motion in Two Dimensions Practice
All questions are original. Check each answer for immediate feedback and explanation, then use the lesson link inside the explanation when a concept needs repair.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 2. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 3. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 4. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 5. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 6. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
A ball rolls horizontally off a fixed-height table. Its horizontal launch speed is multiplied by 7. Ignoring air resistance, what happens to flight time?
Correct answer: B. Vertical motion determines flight time; changing only horizontal speed does not change vertical initial conditions or gravity.
For the same horizontal-launch height, horizontal speed is multiplied by 2. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
For the same horizontal-launch height, horizontal speed is multiplied by 3. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
For the same horizontal-launch height, horizontal speed is multiplied by 4. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
For the same horizontal-launch height, horizontal speed is multiplied by 5. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
For the same horizontal-launch height, horizontal speed is multiplied by 6. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
For the same horizontal-launch height, horizontal speed is multiplied by 7. What happens to horizontal range?
Correct answer: B. Range is Δx = v_x t. The flight time is unchanged, so range scales directly with v_x.
A basketball is launched toward a hoop on a high arc. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
A soccer ball is kicked at an angle above the field. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
A stone is launched obliquely from level ground. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
A laboratory ball leaves a launcher at an upward angle. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
A water droplet follows a parabolic path from a fountain nozzle. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
A toy projectile is launched at an angle with air resistance neglected. At the highest point, which statement is correct?
Correct answer: A. Only the vertical velocity component becomes zero at the top; horizontal velocity remains constant and acceleration remains downward.
For a kicked soccer ball, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
For a thrown baseball, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
For a launched basketball, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
For a stone in ideal projectile motion, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
For a lab projectile, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
For a water droplet treated as an ideal projectile, take +x horizontal and +y upward. What are the acceleration components while it is in flight?
Correct answer: A. Neglecting air resistance, gravity acts vertically downward only.
A projectile launches with speed v₀ at angle 20° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A projectile launches with speed v₀ at angle 30° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A projectile launches with speed v₀ at angle 40° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A projectile launches with speed v₀ at angle 50° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A projectile launches with speed v₀ at angle 60° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A projectile launches with speed v₀ at angle 70° above +x. Which component expressions are correct?
Correct answer: A. For an angle measured from +x, the adjacent component is v₀ cosθ and the vertical component is v₀ sinθ.
A soccer ball leaves and returns to field level. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
A projectile launched from a tabletop-height platform returns to the same vertical level. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
A basketball is modeled from release to a later point at the same height. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
A stone follows an ideal trajectory and later crosses its launch height. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
A lab projectile is detected twice at the same height, once rising and once falling. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
A fountain droplet later passes through the same height from which it was launched. Which velocity symmetry statement is correct?
Correct answer: A. At equal heights in ideal projectile motion, the vertical velocity component has equal magnitude and opposite sign; horizontal velocity is unchanged.
Which graph description is correct for a soccer ball kicked through the air when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.
Which graph description is correct for a basketball launched on an arc when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.
Which graph description is correct for a ball fired from a laboratory projectile launcher when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.
Which graph description is correct for a stone tossed at an angle when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.
Which graph description is correct for a water droplet in an idealized fountain arc when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.
Which graph description is correct for a projectile launched from a platform when +y is upward and air resistance is neglected?
Correct answer: A. Horizontal velocity is constant, while vertical velocity changes linearly under constant downward acceleration.