AP Physics 1 MCQ Practice by Topic 2027
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- 42 MCQs per topic.
- 1,806 topic MCQs total.
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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.
Forces & Free-Body Diagrams 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 1 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A 2 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A 3 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A 4 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A 5 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A 6 kg book rests on a horizontal table. Which forces belong on the free-body diagram of the book?
Correct answer: A. A free-body diagram shows forces exerted on the chosen object by its environment, not forces the object exerts on other objects.
A block is pulled to the right by a rope with tension 15 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A block is pulled to the right by a rope with tension 20 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A block is pulled to the right by a rope with tension 25 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A block is pulled to the right by a rope with tension 30 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A block is pulled to the right by a rope with tension 35 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A block is pulled to the right by a rope with tension 40 N across a rough floor. Which set names all common forces exerted on the block?
Correct answer: A. Identify actual interactions: Earth–block, floor–block normal/friction, and rope–block tension. Motion itself is not a force.
A 2 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A 3 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A 4 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A 5 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A 6 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A 7 kg object is represented as a particle on a free-body diagram. Where should the external force arrows originate in this standard representation?
Correct answer: A. For translational analysis the system is represented by a dot at its center of mass, with force vectors drawn from that representation.
A crate sits on an incline tilted 10° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
A crate sits on an incline tilted 15° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
A crate sits on an incline tilted 20° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
A crate sits on an incline tilted 25° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
A crate sits on an incline tilted 30° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
A crate sits on an incline tilted 35° above horizontal. In which direction is the normal force exerted by the incline on the crate?
Correct answer: A. The normal force is a contact force perpendicular to the contacting surface.
At one instant an object has speed 3 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
At one instant an object has speed 4 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
At one instant an object has speed 5 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
At one instant an object has speed 6 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
At one instant an object has speed 7 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
At one instant an object has speed 8 m/s while several forces act on it. Which statement about force and velocity directions is always correct?
Correct answer: A. The net force points in the direction of acceleration. Velocity can point the same way, opposite way, or be perpendicular.
A free-body diagram shows 10 N right and 4 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A free-body diagram shows 11 N right and 5 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A free-body diagram shows 12 N right and 6 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A free-body diagram shows 13 N right and 7 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A free-body diagram shows 14 N right and 8 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A free-body diagram shows 15 N right and 9 N left, with vertical forces balanced. What is the horizontal net force?
Correct answer: A. Add force components with signs; opposite directions subtract.
A ball has just left a hand and is still moving upward at 4 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.
A ball has just left a hand and is still moving upward at 5 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.
A ball has just left a hand and is still moving upward at 6 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.
A ball has just left a hand and is still moving upward at 7 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.
A ball has just left a hand and is still moving upward at 8 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.
A ball has just left a hand and is still moving upward at 9 m/s. If air resistance is neglected, which arrow should NOT appear on its free-body diagram?
Correct answer: A. Once contact with the hand ends, the hand no longer exerts a force. The ball can keep moving upward while only gravity acts downward.