AP Physics 1: Algebra-Based FRQ Room

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AP Physics 1: Algebra-Based Free Response Questions

The best way to get better at FRQs is practice. Browse through dozens of practice AP Physics 1: Algebra-Based FRQs to get ready for the big day.

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  • Unit 1: Kinematics (62)
  • Unit 2: Dynamics (59)
  • Unit 3: Circular Motion and Gravitation (28)
  • Unit 4: Energy (25)
  • Unit 5: Momentum (31)
  • Unit 6: Simple Harmonic Motion (23)
  • Unit 7: Torque and Rotational Motion (22)
Unit 1: Kinematics

Acceleration and Deceleration in a Race

A sprinter accelerates from rest and then decelerates to a stop during a race. Analyze the different

Medium

Acceleration from a Velocity-Time Graph

A velocity vs. time graph for an object is given by the equation $$v(t) = 3*t + 2$$. Use the graph t

Easy

Analysis of Angled Motion

A projectile is launched with horizontal and vertical velocity components of $$15$$ m/s and $$20$$ m

Hard

Analysis of Falling Object with Air Resistance

A researcher drops two objects of different shapes from a height to study the effect of air resistan

Hard

Analysis of Motion on a Curved Path with Direction Changes

A runner completes a course consisting of three segments: 200 m along a curved path moving forward,

Hard

Analyzing Acceleration from a Velocity-Time Graph

This question involves calculating and interpreting acceleration from a velocity-time graph. Refer t

Medium

Analyzing Uniformly Accelerated Motion Using the BIG FIVE Equations

A motorcyclist accelerates uniformly from rest. The following data were recorded during the accelera

Medium

Baseball Projectile Motion

A baseball is hit off a bench, following a projectile trajectory under ideal conditions with no air

Hard

Calculating Acceleration with Changing Motion

A particle moves along a straight line with its velocity given by the function $$v(t) = 3 * t - 0.5

Hard

Car Crash Analysis: Motion Under Deceleration

During a crash simulation, a car decelerates uniformly from 25 m/s to 0 m/s in 4 seconds. Analyze th

Hard

Centripetal Acceleration in Circular Motion

An object moves in uniform circular motion at a constant speed of $$10 \; m/s$$ along a circle with

Medium

Comparative Analysis of Speed and Velocity Measurements

A radar system records both the speed and displacement of a vehicle over time. Answer the following

Easy

Comparing Speed and Velocity in Motion

A vehicle travels along a winding road. Although its speedometer shows a consistent reading at certa

Easy

Deriving the Relationships Among the BIG FIVE Equations

Derive one of the kinematic equations used in uniformly accelerated motion. Answer the following ste

Extreme

Determining Average Velocity and Instantaneous Acceleration from a Graph

A position vs. time graph is provided. Analyze it to answer the following questions.

Hard

Determining Instantaneous Velocity Using Video Analysis

Design an experiment that utilizes video analysis to determine the instantaneous velocity of an obje

Medium

Determining the Acceleration Due to Gravity Using a Free-Fall Apparatus

In this experiment, students drop a ball from a known height and measure the fall time to calculate

Hard

Displacement in Complex Motion

A researcher examines the motion of an object following a non-linear path. First, the object moves 1

Hard

Distance-Time Relationship Investigation

In this lab, a motion sensor is used to record the distance traveled by an object moving back and fo

Easy

Energy Considerations in Accelerated Motion

A 1500-kg car accelerates uniformly from rest to $$25 \; m/s$$ over a distance of 200 m. Use kinemat

Medium

Energy Implications of Distance vs. Displacement

A roller coaster car travels a path where the total distance covered is 200 m, but its net displacem

Hard

Experimental Determination of Acceleration

In an experiment, a cart's velocity is measured over time and a velocity vs. time graph is plotted.

Extreme

Experimental Exploration of Distance and Displacement

A mini car is programmed to follow a winding track with curves and turns. Design a laboratory experi

Easy

Free Fall Acceleration Verification

Design a controlled experiment to verify the acceleration due to gravity (using $$g = 9.81 \text{ m/

Medium

Free Fall Motion Analysis

An object is dropped from rest and allowed to fall under the influence of gravity. The distances fal

Easy

Friction in Inclined Plane Experiment Error

A student sets up an experiment on an inclined plane to determine the coefficient of kinetic frictio

Hard

Impact of Air Resistance on Projectile Motion

A ball is thrown horizontally from the top of a tall building. In this problem, consider the effects

Hard

Interpreting Negative Acceleration and Direction Change

An object's velocity is recorded over time, and the data indicate that the velocity changes sign dur

Medium

Investigating Scalar and Vector Quantities: Speed vs. Velocity

Design a laboratory experiment to measure an object's speed and velocity using motion sensors and ti

Medium

Kinematics of a Decelerating Vehicle

A truck decelerates uniformly from an initial speed until it comes to a stop. Analyze the following.

Easy

Momentum and Force in Collisions Experiment

In a collision experiment on an air track, a moving cart collides with a stationary block. A force s

Hard

Motion on an Incline: Experiment Design and Data Analysis

A researcher intends to study the motion of an object on an inclined plane. Answer the following que

Hard

Motion on an Incline: Kinematics and Friction

A ball rolls down an inclined plane and its position is recorded over time. Answer the following par

Medium

Multi-Phase Journey: Car Navigation

A researcher tracks a car that moves in two segments: first, 120 m east; then, 160 m north. Answer t

Easy

Position vs Time Graph Analysis

A position vs time graph for an object is provided. Analyze the graph to identify periods of constan

Medium

Position vs. Time Graph Analysis

A position versus time graph for an object in motion is provided. Answer the following questions bas

Medium

Position vs. Time Graph Analysis

A position vs. time graph of an object’s motion displays two distinct segments: one linear and one c

Medium

Position vs. Time Graph Experiment

A position versus time graph of a moving object is provided (see graph stimulus). You are required t

Medium

Projectile Motion Analysis

A ball is thrown with an initial speed of $$20\ m/s$$ at an angle of $$30^\circ$$ above the horizont

Hard

Projectile Motion Launch Error

A student sets up a projectile launcher to study the range of a ball. The launcher is fixed at a spe

Medium

Projectile Motion with Elevated Launch

A ball is launched from a platform 10 m high with an initial speed of 15 m/s at an angle of 40° abov

Hard

Qualitative Analysis: Effects of Air Resistance on Projectile Motion

Air resistance is often neglected in ideal projectile motion problems. Consider its qualitative effe

Hard

Race Track Analysis: Distance vs Displacement

A runner completes a race track composed of several straight segments in different directions. The r

Easy

River Navigation: Vector Addition and Resultant Displacement

A boat is attempting to cross a river. Its speed relative to the water is 5 m/s heading due north, w

Easy

Runner's Motion Analysis

A runner covers an irregular path during a cross-country race. A position vs. time graph of the runn

Easy

Scalars vs. Vectors: Identifying Quantities

A researcher compiles data for several physical quantities in an experiment, including temperature,

Easy

Speed vs. Velocity Concepts

This question explores the conceptual differences between speed and velocity. Answer the following p

Easy

Time of Flight and Range in Angled Motion

A soccer ball is kicked from ground level with an initial speed of $$18\ m/s$$ at an angle of $$50^\

Medium

Track Run Analysis: Distance vs. Displacement

A runner on a school track completes one full lap around a curved circuit. Although the runner's pat

Easy

Two-Dimensional Projectile Motion: Component Analysis

This question requires you to analyze the two-dimensional components of projectile motion. Consider

Hard

Two-Stage Motion Analysis: Acceleration and Deceleration

An object undergoes two stages of motion. In the first stage, it accelerates uniformly from rest to

Medium

Uniform Acceleration and Displacement of a Car

A car starting from rest accelerates uniformly at 5 m/s² for 10 seconds. Analyze this motion using k

Easy

Uniform Acceleration with Variable Initial Velocities

Two vehicles start moving with different initial velocities but share the same constant acceleration

Medium

Uniform Acceleration: Car Motion Analysis

A car starts from rest and accelerates uniformly at $$4 \text{ m/s}^2$$ for $$5 \text{ s}$$.

Easy

Uniformly Accelerated Free Fall Analysis

A rock is dropped from a building and its motion is analyzed using both kinematics and a provided ve

Medium

Uniformly Accelerated Motion: Graphical Analysis

A researcher analyzes a Position vs. Time graph obtained for a runner. Answer the following question

Medium

Vector Addition: Calculating Net Force

This question requires you to resolve force vectors into components and determine the net force acti

Medium

Vector and Scalar Quantities Verification Experiment

A student conducts an experiment in which a ball is rolled down an inclined plane and various quanti

Medium

Vector vs. Scalar Classification

A list of physical quantities is provided. Classify each as either a vector or a scalar quantity and

Easy

Velocity-Time Graph Analysis

A velocity vs. time graph for a moving object is provided. The graph is described by the equation $$

Easy

Velocity-Time Graph Analysis

A vehicle's motion is represented by a velocity versus time graph. The graph shows that for the firs

Medium

Video Analysis of Accelerated Motion

In this experiment, students record a toy car moving along a track using a video camera to determine

Hard
Unit 2: Dynamics

Action-Reaction Forces in Collisions

Examine and apply Newton’s Third Law in the context of collisions. Explore the concept of equal and

Easy

Action-Reaction in Everyday Life

Newton's Third Law states that every action has an equal and opposite reaction. Evaluate this law in

Easy

Analysis of System Equilibrium on a Rough Surface

A block is placed on a horizontal rough surface. A gradually increasing horizontal force is applied

Easy

Analysis of Tension Forces in a Rope

Examine the behavior of tension in a rope connecting two masses and analyze how tension is affected

Hard

Analyzing a Car Crash: Friction, Inertia, and Safety

A transportation safety study claims that an abrupt car stop during a crash can be perfectly modeled

Hard

Analyzing Forces on a Frictionless Cart

A student investigates the motion of a cart on a frictionless track by applying different constant f

Easy

Analyzing Rotational Dynamics: Constant Torque and Angular Acceleration

A demonstration experiment claims that a rotating disk subjected to a constant torque exhibits a con

Medium

Applied Force Direction and Acceleration

Design an experiment to investigate how the angle at which a force is applied affects the accelerati

Medium

Centripetal Force Analysis in a Swinging Bucket

A 2.0-kg bucket is attached to a rope and swung in a vertical circle with a radius of 1.5 m. At diff

Medium

Comparing Gravitational and Inertial Mass

In experiments, gravitational mass is determined by measuring weight in a gravitational field, while

Medium

Comparing Gravitational and Inertial Mass in a Vacuum

An experiment is conducted in a vacuum chamber to test the equivalence of gravitational and inertial

Hard

Comparing Gravitational and Inertial Mass in an Experiment

A researcher aims to compare gravitational mass (as determined by weight and pendulum oscillations)

Hard

Deceleration in a Braking Car Experiment

A student investigates the deceleration of a car during braking. The velocity vs. time graph below s

Easy

Designing a Pulley System to Study Accelerated Motion

Develop an experimental design using an Atwood machine (a pulley system with two masses) to measure

Medium

Designing a Safety Mechanism in Vehicle Dynamics

In a car collision scenario, forces experienced by passengers can be extremely high over a short tim

Extreme

Dynamic Equilibrium on a Rotating Platform

A person stands on a rotating platform and remains stationary relative to it. The person is located

Hard

Dynamics Experiment 5: Dynamic Force Sensor Calibration

A student performs an experiment using a digital force sensor to quantify the net force acting on a

Medium

Dynamics FRQ #2: Tension in a Pulley System

Two masses are connected by a rope over a frictionless pulley system. Mass $$m_1 = 3.0\,kg$$ hangs o

Medium

Dynamics FRQ #7: Investigating Inertial Mass with a Force Sensor

A student performs an experiment to measure inertial mass. Using a force sensor, the student applies

Easy

Dynamics FRQ #18: Normal Force on a Curved Surface

A roller coaster car of mass 500 kg travels over the top of a convex hill with a radius of curvature

Medium

Dynamics of a Block on an Incline with Applied Force

An experiment investigates the motion of a block on an inclined plane while an additional force is a

Medium

Dynamics of a Tetherball Swing

A 1.0-kg tetherball is attached to a rope of length 3.0 m and is set into motion, swinging in a near

Hard

Dynamics of a Two-Mass Pulley System

A two-mass system is set up with mass $$m_1 = 4 ~kg$$ on a horizontal surface that has kinetic frict

Medium

Dynamics of Connected Objects (Pulley Systems)

Analyze the dynamics of a pulley system connecting two masses, and compare theoretical predictions w

Hard

Dynamics on an Inclined Plane

A block of mass $$m$$ is placed on a frictional incline with an angle $$\theta$$ relative to the hor

Medium

Dynamics Problem 2: Forces on an Inclined Plane

A block of mass $$m = 8\ kg$$ is placed on a frictionless incline that makes an angle $$\theta = 30^

Medium

Dynamics Problem 3: Gravitational vs. Inertial Mass Comparison

A scientist conducts an experiment using a torsion balance to compare gravitational and inertial mas

Hard

Dynamics Problem 9: Impulse from a Force-Time Graph

A force is applied to a small cart for a short duration, and the force varies with time. A force vs.

Medium

Dynamics with Air Resistance Approximation

An object of mass 4 kg is dropped and experiences air resistance acting upward with a constant force

Easy

Examining the Role of Inertial Mass in Acceleration

A cart on an air track is propelled by a constant force from a motor. By varying the cart’s mass usi

Medium

Force Analysis on a Swinging Crane Arm

A crane lifts a heavy load by rotating its arm while applying tension through a supporting cable. Th

Hard

Force Analysis on an Inclined Plane

A 5 kg block is placed on a 30° inclined plane with a coefficient of friction $$\mu = 0.2$$. Analyze

Medium

Force Analysis on Explosive Separation

Two objects initially connected separate due to an internal explosion. Object A has mass $$m_A = 1 *

Hard

Free-Fall Dynamics Experiment

A student uses a motion sensor to record the motion of a freely falling object. The resulting veloci

Easy

Friction on an Inclined Plane

A block of mass 8.00 kg slides down an inclined plane that makes an angle of $$\theta = 25^\circ$$ w

Medium

FRQ11: Multi-Force System Dynamics

A block is subjected to multiple forces simultaneously: an applied force, friction, and a tension fo

Hard

FRQ13: Tension Effects in a Two-Mass Pulley System

In a two-mass pulley experiment, different mass combinations yield different accelerations. Analyze

Medium

FRQ19: Elevator Dynamics: Tension and Acceleration

An experiment on an elevator involves measuring the cable tension for different elevator masses and

Hard

Gravitational vs. Inertial Mass Comparison

Newton's laws involve both gravitational and inertial mass. Consider experiments where these masses

Medium

Investigating Air Resistance and Terminal Velocity

A researcher drops objects of varying shapes and masses from a tall structure to study the effects o

Hard

Investigating Circular Motion and Centripetal Force

A mass is attached to a string and swung in a circle on a horizontal plane. The researcher investiga

Medium

Investigating Circular Motion on a Banked Curve

A car negotiates a banked curve with radius $$r = 50 * (m)$$ and bank angle $$\theta = 20^\circ$$. A

Hard

Investigating Frictional Forces on an Inclined Plane

Examine the forces acting on a block sliding down an inclined plane with friction. Explore both the

Medium

Investigating Gravitational Mass

A series of experiments are conducted to compare gravitational mass and inertial mass. In one experi

Medium

Investigating Variable Forces on an Accelerating Car

A car's acceleration over time was recorded as it navigated varying inclines and declines. A graph o

Extreme

Investigation into the Effects of Applied Force on Acceleration

A cart on an air track is subjected to varying magnitudes of constant force. The resulting accelerat

Easy

Mass-Spring System and Damping Forces

A mass-spring system consists of a mass $$m = 0.5 * kg$$ attached to a spring with spring constant $

Medium

Mass-Spring System and Dynamics

A mass-spring system consists of a 2 kg mass attached to a spring with a spring constant of $$k = 50

Easy

Net Force on a Sliding Block

A 5.00-kg block is placed on a horizontal surface. A constant applied force of 20.0 N pushes the blo

Medium

Newton's Third Law in Collision Dynamics

A researcher studies a head-on collision between two objects and collects data on the forces experie

Extreme

Newton's Third Law: Analysis of Action-Reaction Forces

A collision experiment is conducted where two objects interact over a short interval of time. A grap

Medium

Pendulum Experiment for Gravitational Acceleration

A student sets up a pendulum with a long string and heavy bob to measure the gravitational accelerat

Medium

Projectile Motion and Air Resistance in a Thrown Ball Experiment

A sports news report claims that for a ball thrown at speeds below $$20$$ m/s, air resistance has a

Medium

Projectile Motion with Air Resistance Idealization

A projectile is launched with an initial speed $$v_0 = 20 * m/s$$ at an angle $$\theta = 30°$$ above

Hard

Quantitative Analysis of Tension Variation in a Pulley System

In a two-mass pulley system, a researcher analyzes the forces acting on each mass and the tension in

Extreme

Relationship Between Applied Force and Acceleration

A student performs an experiment on a single object by applying different forces and measuring the r

Easy

Rotational Dynamics: Moment of Inertia Measurement

Students aim to measure the moment of inertia of a rotating disk by attaching small masses at known

Hard

Spring Force and Acceleration

In a lab experiment, a spring is used to apply a force on an object. The extension of the spring is

Easy

Tension and Acceleration in a Two-Mass Pulley System

In an experiment, two masses connected over a pulley are released and both the acceleration of the s

Medium
Unit 3: Circular Motion and Gravitation

Analysis of a Rotating Space Station for Artificial Gravity

A proposed rotating space station creates artificial gravity on its inner surface by rotating as a c

Hard

Analyzing Gravity Measuring Apparatus Data

A student builds a gravity measuring apparatus that relies on timing the free fall of a small ball t

Hard

Calculating Tension in a Conical Pendulum Setup

A conical pendulum consists of a mass swinging in a horizontal circle such that the string makes an

Easy

Centripetal Force on a Banked Curve

A car navigates a frictionless banked curve of radius $$r$$ and bank angle $$\theta$$. Using a free-

Medium

Comparative Study of Orbital Velocities: Terrestrial vs. Celestial Bodies

Design a simulation experiment to compare the orbital velocities of objects orbiting Earth and anoth

Hard

Comparing Methodologies: Damped Pendulum versus Free Fall for g Measurement

Design two experimental procedures—one using a damped pendulum and one using free fall—to measure th

Hard

Consequences of Uniform Circular Motion in Orbiting Systems

A satellite in a stable circular orbit around Earth relies on the balance between gravitational forc

Medium

Designing a Lab to Measure Air Resistance Effects on Free-Fall Acceleration

Design a comprehensive experiment to investigate how air resistance affects the measured free-fall a

Medium

Designing an Experiment to Measure Centripetal Acceleration

Design an experiment to measure the centripetal acceleration of an object in uniform circular motion

Medium

Determining the Gravitational Constant G Using a Torsion Balance

Design an experiment using a torsion balance to measure the gravitational constant $$G$$. Your desig

Extreme

Effect of Magnetic Forces on Uniform Circular Motion

Design an experiment to investigate how an applied magnetic field influences the circular motion of

Hard

Experimental Determination of Gravitational Acceleration

In a free-fall experiment, a student drops an object from various known heights and records the time

Medium

Experimental Validation of Gravitational Law

Free-fall experiments were conducted at various altitudes to measure gravitational acceleration. The

Extreme

Free Fall on Different Celestial Bodies

An experiment involves dropping an object from a height of 20 m under different gravitational accele

Hard

Free-Fall Versus Circular Motion Analysis

Compare the dynamics of free-fall motion and uniform circular motion. (a) Derive the equations gover

Hard

Graph Analysis of Uniform Circular Motion

In an experiment, the centripetal acceleration of a rotating object was measured at various speeds.

Medium

Investigation of Force Measurement Techniques in Uniform Circular Motion

Design an experiment to compare different techniques for measuring centripetal force in a system und

Hard

Measuring Gravitational Acceleration Variation on Earth's Surface

An experiment was conducted in a mountainous region to measure gravitational acceleration at various

Medium

Non-uniform Circular Motion with Tangential Acceleration

A particle in nearly uniform circular motion experiences a small tangential acceleration in addition

Extreme

Orbital Period Analysis of a Moon

A small moon orbits a planet in a nearly circular orbit. The gravitational force provides the centri

Extreme

Pendulum Period Variations and Gravitation

A pendulum clock is used to measure local gravitational acceleration by observing its period. The pe

Medium

Radius Change and its Effect on Centripetal Acceleration

A car travels at a constant speed of 20 m/s around a circular track. Answer the following:

Easy

Satellite Motion and Free-Body Analysis

This problem involves analyzing a satellite in orbit, including drawing a free-body diagram and deri

Hard

Satellite Orbit and Free-fall

A 500-kg satellite is orbiting the Earth at an altitude of 300 km above the Earth's surface. Assume

Medium

Transition from Circular to Projectile Motion

This problem investigates the transition of motion from uniform circular to projectile motion when t

Easy

Uniform Circular Motion of a Ball on a String

A ball of mass $$m = 0.5 \;kg$$ is attached to a string and swung in a horizontal circle of radius $

Easy

Vertical Circular Motion

A 0.5 kg mass is swung in a vertical circle of radius 2 m at a constant speed of 6 m/s.

Easy

Water Park Slide Centripetal Dynamics

At a water park, a curved slide features a circular arc section with a fixed radius of $$r = 5\,m$$.

Medium
Unit 4: Energy

Analysis of Mechanical Energy Conservation in a Pendulum

A pendulum with a 2 kg bob is released from a height of 1.5 m above its lowest point. Answer the fol

Easy

Analysis of Power Output in Weight Lifting

A study measures human power output by having a subject lift a weight (mass = 50 kg) vertically by 2

Medium

Analysis of Work with Variable Force and Angle

An object is pulled along a horizontal surface using a rope. However, both the magnitude of the appl

Extreme

Calculating Power Output in Lifting Tasks

A person lifts a 60 kg weight vertically by 1.5 m off the ground in 3 seconds. Answer the following:

Easy

Comparative Analysis of Work in Different Force Directions

A researcher pushes two identical boxes under different conditions. In Case A, the force is applied

Easy

Energy Analysis of a Spring-Mass System

A 2 kg mass is attached to a spring with a spring constant of 100 N/m and is pulled 0.3 m from its e

Medium

Energy Transformation in a Pendulum

A simple pendulum of length 2 m and mass 1 kg is released from an initial angle of $$30°$$ with the

Medium

Energy Transformation in a Roller Coaster

A roller coaster car with a mass of 500 kg starts from rest at the top of a 20 m high hill and desce

Medium

Evaluating Mechanical Advantage in a Pulley System

A pulley system is used to lift a 100 kg load. The system requires an applied force of $$150 N$$ ove

Hard

Evaluating the Impact of Nonconservative Forces in a Pendulum

A simple pendulum is released from rest at a height of $$1.00\,m$$ above its lowest point. Due to ai

Hard

Force at an Angle: Lifting a Load

A construction worker lifts a heavy load using a rope that makes an angle of $$30^{\circ}$$ with the

Easy

Forces and Energy in a Bicycle Ride

A cyclist with a total mass (including the bicycle) of $$80\,kg$$ rides uphill and gains a vertical

Easy

Interpreting a Diagram of Mechanical Energy Conservation

A diagram is provided that shows the energy transformations of a roller coaster car as it moves alon

Hard

Interpreting a Free-Body Diagram of a Block on an Incline

Below is a free-body diagram intended to represent a block on an inclined plane. The diagram shows t

Hard

Investigating Power Variations in Electric Motor-Driven Lifts

An electric motor is used to power a lift that raises a load at constant speed. The experiment recor

Extreme

Investigating the Scalar Nature of Work

Review the experimental data that illustrates how work varies with the angle between force and displ

Easy

Investigation of Friction in a Sliding Block

A 2 kg block initially moving at 6 m/s decelerates to 2 m/s due to friction on a horizontal surface.

Medium

Kinetic Energy and Braking Force

A vehicle of mass $$1200 kg$$ is traveling at $$20 m/s$$ and comes to a stop over a distance of $$40

Easy

Pendulum Energy Conservation and Nonconservative Forces

In this experiment, a student sets up a pendulum and measures its maximum height and the speed at it

Medium

Power Calculation for Lifting Equipment

A lifting crane raises a $$1000\;kg$$ load vertically by $$10\;m$$ in $$20\;s$$. Calculate the work

Easy

Pulley System Energy Analysis

In a pulley system, a 50 kg mass is lifted 3 m vertically. Due to friction in the pulley, an extra 1

Hard

Quantitative Analysis of Frictional Work

Examine the provided data which quantifies work done by friction on surfaces of varying roughness. A

Hard

Variable Force Analysis in Tug-of-War

In a tug-of-war competition, force measurements for the winning team are recorded over a 10-second i

Hard

Work and Power in a Lifting Scenario

A person lifts a 50 kg weight vertically by 2 m in 5 seconds. Answer the following:

Easy

Work-Energy Theorem in a Kinetic Friction Scenario

A $$2\;kg$$ block slides across a rough surface. It starts with an initial velocity of $$5\;m/s$$ an

Medium
Unit 5: Momentum

Analysis of a Perfectly Inelastic Collision

Consider a 2.0 kg cart moving at 4.0 m/s that collides with a 3.0 kg cart at rest, and the two carts

Easy

Car Braking and Impulse

A car of mass $$1200\,kg$$ traveling at $$25\,m/s$$ comes to a complete stop by braking over a time

Medium

Coefficient of Restitution and Collision Analysis

In a collision experiment, two objects rebound after impact. Object X (mass = 1 kg) and Object Y (ma

Medium

Coefficient of Restitution in Collisions

A 1.0 kg ball moving at 8 m/s collides head-on with a 1.0 kg ball moving at -2 m/s. After the collis

Medium

Critique of Experimental Design in Momentum Measurement

A laboratory experiment is designed to measure the impulse delivered to a ball by a bat. The experim

Medium

Data Analysis of Collision from Velocity Graph

The velocity vs. time graph for Glider A during a collision on an air track is provided. Assume Glid

Medium

Design an Experiment to Verify Momentum Conservation

Design a controlled laboratory experiment to verify the law of conservation of linear momentum. Your

Medium

Designing an Air Track Experiment for Momentum Conservation

A student plans to verify momentum conservation using an air track and gliders. The experiment invol

Easy

Determining the Coefficient of Restitution

A ball of mass $$0.5 \ kg$$ is thrown against a wall with a speed of $$10 \ m/s$$. After rebounding

Easy

Determining the Coefficient of Restitution using Collision Data

A ball is dropped from a height and bounces off a hard surface. Using the recorded drop heights and

Hard

Erroneous Application of Momentum Conservation in Explosive Separations

In this experiment, an object is exploded into two fragments by a small charge, and the velocities o

Hard

Explosive Separation in a Projectile

A projectile of total mass 5.0 kg explodes mid-air into two fragments. One fragment has a mass of 3.

Extreme

Firework Launch Momentum Analysis

A researcher studies the launch of a firework rocket by measuring both force over time and the subse

Hard

Ice Hockey Puck Collision

An ice hockey puck of mass $$0.17 \ kg$$ moves at $$30 \ m/s$$ when it is struck by a hockey stick.

Medium

Impact of External Forces on Momentum Conservation

Investigate how small external forces, such as air resistance or friction, can affect the conservati

Extreme

Impulse and its Graphical Representation

A force versus time graph with both positive and negative force regions is provided. Analyze the gra

Hard

Impulse Applied to Varying Masses

In a physics lab, a constant impulse of $$10$$ Ns is applied separately to two objects of different

Medium

Impulse in Sports Performance

In sports such as baseball, the brief, high-force impact between the bat and ball generates an impul

Easy

Impulse‐Momentum Theorem from Force‐Time Graph

A ball collides with a wall, and the force exerted during the collision is recorded in a force-time

Medium

Impulse, Momentum, and Safety: Automobile Crash Analysis

Design an experiment or simulation to evaluate how automobile safety features (such as airbags and c

Extreme

Inelastic Collision Investigation

A researcher observes an inelastic collision in which two vehicles collide and stick together. The e

Medium

Momentum and Energy in a Diver's Jump

A diver with a mass of $$70\,kg$$ jumps off a platform and enters the water at a speed of $$3.0\,m/s

Medium

Momentum Change Due to Friction

A 5.0 kg block is sliding on a horizontal surface and comes to rest due to kinetic friction over a p

Medium

Momentum Conservation in Collisions

In a collision experiment, two objects on a frictionless surface exhibit the following experimental

Medium

Momentum Conservation in Explosions

A 10 kg object at rest explodes into two fragments. One fragment, with a mass of 6 kg, is observed t

Medium

Momentum in Explosions

A projectile of mass 1.2 kg is moving horizontally at 20 m/s when it explodes into two fragments. On

Hard

Momentum in Water Collisions: Inelastic Collision in a Fluid

A small boat (mass $$500\,kg$$) moving at $$4\,m/s$$ collides with a floating barrel (mass $$100\,kg

Hard

Momentum Transfer in a Baseball Collision

A baseball (mass $$0.145\,\text{kg}$$) is pitched toward a batter at $$40\,\text{m/s}$$. Upon being

Medium

Perfectly Inelastic Collision: System Momentum Analysis

Two vehicles are involved in a head-on collision and lock together after impact. Vehicle A has a mas

Medium

Sports Collision: Soccer Heading Impact

A soccer ball with mass $$0.43 \ kg$$ is moving at $$15 \ m/s$$ toward a player's head. Upon impact,

Easy

Two-Dimensional Collision with Angular Components

Two objects on a frictionless surface collide. Object A (mass $$1.5$$ kg) is moving at $$4$$ m/s hor

Extreme
Unit 6: Simple Harmonic Motion

Amplitude Independence of Period in SHM

In ideal simple harmonic motion, the period is independent of the amplitude. Answer the following pa

Medium

Analysis of the Effects of Gravity on Pendulum SHM

A pendulum’s period is influenced by the gravitational acceleration in its environment.

Easy

Calculating Energy Loss in a Damped Oscillator

In a damped oscillator, the amplitude decays over time due to energy dissipation. (a) Derive the ex

Hard

Comparing Displacement Functions

Consider the two displacement functions for a mass-spring system: $$x_1(t)= A*cos(ω*t+φ)$$ and $$x_2

Medium

Conservation of Energy Over a SHM Cycle

A block attached to a spring oscillates with constant total mechanical energy. (a) Write expression

Easy

Coupled Oscillators and Energy Transfer

When two mass-spring oscillators are coupled by a weak spring, energy can be exchanged between them,

Extreme

Design Challenge: Combined SHM System

A researcher designs a compound system in which a pendulum is attached to a spring, resulting in two

Extreme

Determining Spring Constant from Energy Measurements

A mass-spring oscillator has a measured amplitude of 0.25 m and a total mechanical energy of 3.125 J

Medium

Determining the Damping Coefficient from Experimental Data

An experiment on a damped oscillator recorded its amplitude at different times. The data is shown in

Hard

Effect of Mass Variation on Oscillation Parameters

An investigation is conducted in which the mass attached to a spring in an SHM system is varied, whi

Easy

Energy Transformation in a Mass-Spring System

In a mass-spring system, the total mechanical energy is given by $$E = \frac{1}{2} k A^2$$, while th

Medium

Evidence of Damping in Oscillatory Motion

An experiment studying a damped oscillator records the amplitude of oscillation at successive time i

Medium

Experimental Data Analysis in SHM

An experiment on a mass-spring oscillator yields the following displacement data as a function of ti

Extreme

Experimental Determination of Angular Frequency

An experiment recorded the displacement of a mass-spring oscillator at various times (see table belo

Medium

Exploring SHM in Pendulums

Examine the validity of the small-angle approximation used in simple pendulum motion.

Medium

Force Analysis in SHM: Vector Representation

The restoring force in SHM is given by Hooke’s Law: $$F = -k*x$$. (a) Explain the significance of t

Easy

Investigating the Relationship between Frequency and Energy in SHM

Analyze the relationship between the frequency of oscillation and the energy in a mass-spring system

Medium

Mathematical Modeling of SHM

Develop a mathematical model for the displacement of a harmonic oscillator.

Hard

Pendulum Length and Period Investigation

A physics student wants to investigate the relationship between the length of a simple pendulum and

Easy

Pendulum Motion Comparison

Pendulums are a common example of systems exhibiting periodic motion. Answer the following:

Easy

Pendulum Period Analysis

In an experiment studying pendulum motion, the period of a pendulum was measured for different lengt

Medium

Pendulum vs. Mass-Spring Oscillator Behavior

A researcher compares the oscillatory behavior of a simple pendulum with that of a mass-spring oscil

Hard

Phase Shift Analysis in Damped SHM

Investigate how damping influences the phase shift in a simple harmonic oscillator.

Hard
Unit 7: Torque and Rotational Motion

Analyzing a Damped Rotational System

Investigate a rotating disc subjected to a damping torque proportional to its angular velocity.

Hard

Analyzing Angular Acceleration from Graph Data

A rotating object’s angular velocity is recorded over time. Analyze the provided graph to determine

Medium

Angular Displacement from Arc Length

A car travels along a circular track with a radius of $$50 \;m$$ and covers an arc length of $$200 \

Easy

Angular Impulse Analysis

A rotating turntable receives a brief pulse of force, which results in an angular impulse that chang

Easy

Basic Angular Kinematics Calculations

A rotating wheel undergoes an angular displacement of $$6.28 \text{ rad}$$ in 4 s. (a) Calculate its

Easy

Center of Mass vs. Geometric Center: A Rotational Dynamics Experiment

In an experiment on a non-uniform rod, mass elements are recorded at various positions along the rod

Medium

Conservation of Angular Momentum in Changing Radius Systems

A figure skater spins with arms extended at an angular speed of $$\omega_i = 2\;rad/s$$ and has a mo

Medium

Coupled Rotational Systems Analysis

A system consists of two disks connected by a frictionless axle. Disk X has mass $$4 \text{ kg}$$ an

Extreme

Cylindrical Rod Angular Acceleration Experiment Error

A student conducts an experiment to measure the angular acceleration of a cylindrical rod pivoted at

Easy

Designing a Rotational Motion Experiment

Design an experiment to measure the moment of inertia of a solid cylinder. Outline the experimental

Medium

Determining Angular Acceleration in Non-Uniform Circular Motion

A rotating system exhibits non-uniform circular motion. Analyze the provided graph to determine both

Extreme

Determining the Effect of Mass Distribution on Torque

An experiment investigates how the torque produced by a force changes with the lever arm distance. T

Medium

Force Distribution on a Rotating Beam

In this problem, you will analyze torques produced by weights attached to a beam and determine the a

Extreme

Load Distribution and Angular Velocity in a Space Station

A rotating space station generates artificial gravity. Initially, the station has a moment of inerti

Hard

Moment of Inertia Calculation for a Solid Disk

A solid disk of mass $$5 \text{ kg}$$ and radius $$0.3 \text{ m}$$ rotates about its center. (a) Wri

Hard

Relating Angular to Linear Motion

A carousel rotates at a constant angular velocity of $$0.8 \text{ rad/s}$$. (a) Calculate the tangen

Medium

Rotational Collision Dynamics

Two separate rotating bodies collide and stick together. Analyze the collision using conservation of

Hard

Rotational Collision: Turntable and Clay Ball

A turntable with a moment of inertia $$3.0 kg·m^2$$ rotates at $$5 rad/s$$. A clay ball of mass $$2

Hard

Rotational Kinetic Energy Experiment Error

A student attempts to measure the rotational kinetic energy of a spinning disk by recording its angu

Hard

Torque and Angular Acceleration Experiment

A series of experiments measures the relationship between applied torque and resulting angular accel

Medium

Torque Calculation with Off-Axis Forces

A force of 50 N is applied at an angle of 30° to a wrench that is 0.4 m long. Determine the effectiv

Hard

Torque Requirements in a Robotic Arm

Design a robotic arm joint system where motors are required to generate sufficient torque for rotati

Hard

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Where can I find practice free response questions for the AP Physics 1: Algebra-Based exam?
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Once you’re done reviewing your study guides, find and bookmark all the free response questions you can find. The question above has some good places to look! while you’re going through them, simulate exam conditions by setting a timer that matches the time allowed on the actual exam. Time management is going to help you answer the FRQs on the real exam concisely when you’re in that time crunch.
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Before you start writing out your response, take a few minutes to outline the key points you want to make sure to touch on. This may seem like a waste of time, but it’s very helpful in making sure your response effectively addresses all the parts of the question. Once you do your practice free response questions, compare them to scoring guidelines and sample responses to identify areas for improvement. When you do the free response practice on the AP Physics 1: Algebra-Based Free Response Room, there’s an option to let it grade your response against the rubric and tell you exactly what you need to study more.
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Answering AP Physics 1: Algebra-Based free response questions the right way is all about practice! As you go through the AP AP Physics 1: Algebra-Based Free Response Room, treat it like a real exam and approach it this way so you stay calm during the actual exam. When you first see the question, take some time to process exactly what it’s asking. Make sure to also read through all the sub-parts in the question and re-read the main prompt, making sure to circle and underline any key information. This will help you allocate your time properly and also make sure you are hitting all the parts of the question. Before you answer each question, note down the key points you want to hit and evidence you want to use (where applicable). Once you have the skeleton of your response, writing it out will be quick, plus you won’t make any silly mistake in a rush and forget something important.