AP Physics 1: Algebra-Based FRQ Room

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AP Physics 1: Algebra-Based Free Response Questions

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  • Unit 1: Kinematics (49)
  • Unit 2: Dynamics (54)
  • Unit 3: Circular Motion and Gravitation (29)
  • Unit 4: Energy (32)
  • Unit 5: Momentum (26)
  • Unit 6: Simple Harmonic Motion (31)
  • Unit 7: Torque and Rotational Motion (29)
Unit 1: Kinematics

Acceleration Calculation from Tabulated Data

Using the table of velocity data below, answer the following kinematics questions.

Hard

Analyzing a Velocity-Time Graph

A velocity-time graph is provided showing the motion of an object.

Medium

Analyzing Changing Vectors: Two-Dimensional Motion

A drone takes off and follows a multi-leg flight path in a horizontal plane. The flight path consist

Hard

Analyzing Motion from Time-Dependent Acceleration Data

A vehicle undergoes non-uniform acceleration. Analyze its motion using the following acceleration da

Hard

Analyzing Position vs Time Graph

A student tracks the motion of an object along a straight track and records its position over time.

Easy

Analyzing Uniformly Accelerated Motion Using the BIG FIVE Equations

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

Medium

Angled Motion Experiment

An experiment records the time of flight, range, and maximum height for a ball thrown at different l

Medium

Angled Motion: Design and Analysis

A cannon fires a projectile with an initial speed of $$50 m/s$$ at an angle of $$40^{\circ}$$ above

Hard

Calculations of Speed and Velocity from Experimental Data

The table below shows an object's position at various times during an experiment. Use the data to co

Medium

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

Comparing Average Speed and Average Velocity

A runner completes a 400 m loop around a track in 50 s, with a net displacement of only 50 m. Analyz

Medium

Comparing Speed and Velocity in Motion

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

Easy

Determining Acceleration from Position Data

A cart's position as a function of time is given by $$s(t)= 2*t^2 - 4*t + 1$$, where s is measured i

Medium

Determining Acceleration in a Free Fall Drop Experiment

In a school laboratory drop experiment, the following data was recorded: | Height (m) | Time (s) |

Hard

Determining Average and Instantaneous Velocity

The following table lists the position of an object at various times. Use this data to distinguish b

Medium

Effects of Initial Launch Angle on Projectile Range

A researcher launches a projectile with an initial speed of 25 m/s at various angles. The table belo

Hard

Evaluating Motion from Position vs Time Graph: Acceleration Analysis

Examine the following position vs time graph represented by the function $$s(t)=5*t - 0.1*t^3$$. Ans

Medium

Experimental Determination of Acceleration

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

Extreme

Free Fall Experiment Analysis

In a free fall experiment, an object is dropped from rest. Its fall is recorded in the table below.

Easy

Free Fall Experiment and Error Analysis

An experiment is conducted to measure the acceleration due to gravity using free fall.

Extreme

Graph Analysis: Position vs. Time

A researcher records the motion of an object and plots its position (m) versus time (s) on the graph

Easy

Identifying Vector vs. Scalar Quantities

A table lists several physical quantities recorded during an experiment. Classify each quantity as e

Medium

Interpreting a Position vs Time Graph

A position vs. time graph for a moving car is provided in the stimulus. The graph displays three dis

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

Investigating Two-Dimensional Motion: Horizontal and Vertical Components

Design a comprehensive experiment to investigate two-dimensional projectile motion, specifically iso

Extreme

Lab Analysis of Distance vs. Displacement

In this experiment, a small cart is propelled along a straight track by a compressed spring. A motio

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 Sensor and Staircase Displacement Experiment

In this experiment, a motion sensor is used to track a subject as they walk up and down a flight of

Hard

Non-uniform Acceleration Analysis

An experiment records the motion of an object experiencing non-uniform acceleration. The velocity vs

Hard

Non-Uniform Acceleration and Displacement

An object's velocity changes in a non-uniform manner over time. Given the velocity function $$v(t)=t

Extreme

Pendulum Length and Period Experiment

In a pendulum experiment designed to investigate the relationship between length and period, student

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, Velocity, and Acceleration Lab on a Moving Cart

A cart on a frictionless track is equipped with a position sensor that records its position over tim

Hard

Projectile Motion Analysis

A ball is launched from the ground with a given initial speed and launch angle. Use the equations of

Hard

Projectile Motion Analysis

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

Medium

Projectile Motion Analysis from Graph Data

A graph of a projectile's vertical position versus time is provided. Analyze the graph to extract ke

Hard

Projectile Motion with Ramp Launch

A car drives off a ramp with a speed of 15 m/s at an angle of 20° above the horizontal. The end of t

Medium

Projectile Motion with Varying Launch Speeds

A researcher investigates how changes in the launch speed $$v_0$$ affect the range of a projectile l

Hard

Relative Motion: Moving Walkway Problem

A person walks on a moving walkway at a speed of 1.5 m/s relative to the walkway. The walkway moves

Medium

Robot Navigation: Multiple Vector Addition

A researcher programs a robot to move in the following sequence: 1. 80 m due east, 2. 60 m at 30° no

Medium

Simulated Impact Test: Speed and Velocity

In a crash simulation lab, a test vehicle decelerates from a high speed and various sensors record i

Medium

Speed vs. Velocity Measurement Error

A student uses a photogate sensor to measure the speed of a cart moving along a straight track. The

Medium

Uniform Acceleration: Big Five Equations Validation

You are tasked with validating the Big Five Equations of Motion using experimental data from a unifo

Hard

Uniformly Accelerated Car

A car starting from rest accelerates uniformly along a straight road and then decelerates uniformly

Medium

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 and BIG FIVE Equations Lab

A lab experiment involves releasing a cart from rest down a ramp to study uniformly accelerated moti

Hard

Uniformly Accelerated Motion for a Car

A car starting from rest accelerates uniformly with an acceleration of $$a = 3 \;m/s^2$$ for a time

Easy

Uniformly Accelerated Motion with the BIG FIVE Equations

This question requires you to apply the BIG FIVE equations of motion to analyze uniformly accelerate

Easy

Vector Addition: Calculating Net Force

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

Medium
Unit 2: Dynamics

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

Applied Force Direction and Acceleration

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

Medium

Applying Newton's Second Law

Investigate Newton's Second Law through both theoretical derivation and experimental data.

Medium

Block on an Inclined Plane with Friction Analysis

A block of mass $$m$$ slides down an inclined plane with an angle $$\theta$$. The coefficient of kin

Medium

Circular Motion on a Banked Curve

A car of mass $$m$$ travels at speed $$v$$ along a banked circular road of radius $$r$$ and banking

Hard

Comparing Gravitational and Inertial Mass

In a laboratory experiment, a student measures the gravitational force on an unknown mass using a sp

Medium

Designing a Multi-Factor Experiment for Vehicle Safety Dynamics

Design a comprehensive experiment to investigate how various forces (such as friction, tension, and

Extreme

Designing a Safety System Using Dynamics Principles

Engineers are designing a safety harness system for vehicles to minimize forces on passengers during

Medium

Dynamic Analysis of a Multi-car Train

A train consists of three cars, each with a mass of 5000 kg, pulled by a locomotive that provides a

Medium

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 #6: Circular Motion on a Banked Curve

A car of mass 1500 kg is rounding a frictionless banked curve of radius 50 m. The curve is banked at

Hard

Dynamics FRQ #9: Newton's Third Law in Action

Two ice skaters are initially at rest on frictionless ice and push off against each other. Skater A

Medium

Dynamics FRQ #20: Tension and Acceleration in a Complex Pulley System

Consider a system where two masses, $$m_1 = 4.0\,kg$$ and $$m_2 = 6.0\,kg$$, are connected by a rope

Medium

Dynamics in Explosive Recoil Systems

Analyze the dynamics involved in explosive recoil systems and design an experiment to measure recoil

Extreme

Dynamics of a Rotating Rod Experiment

Students investigate the angular acceleration of a rod pivoted at one end by applying a force at its

Extreme

Dynamics of a Sliding Block with Varying Force

A block of mass $$m$$ slides on a horizontal surface with a coefficient of kinetic friction $$\mu_k$

Hard

Dynamics Problem 1: Inertia and Motion on a Frictionless Surface

A block of mass $$m = 5\ kg$$ is placed on a frictionless horizontal surface. Initially, the block i

Easy

Dynamics Problem 16: Investigating Friction Coefficients in a Lab

In a laboratory experiment, students measure the static and kinetic friction coefficients for a bloc

Easy

Dynamics Problem 18: Effects of Air Resistance on Free-Fall

An object in free-fall is subject not only to gravity but also to a constant air resistance force $$

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

Dynamics with Variable Friction: Motion on a Rough Surface

A 6 kg block starts from rest and is pushed along a horizontal surface by a constant force of 40 N.

Extreme

Effect of Friction on a Moving Object on an Inclined Plane

An object slides down an inclined plane where friction plays a non-negligible role. A researcher inv

Medium

Energy and Dynamics: Understanding Work and Force

A researcher studies the work done on an object as it is pushed up a ramp. The investigation examine

Medium

Energy and Newton's Laws: Work Done Against Friction

A box of mass 8 kg is pushed over a distance of 5 m on a rough horizontal surface. The coefficient o

Easy

Evaluating Newton's Third Law in Action-Reaction Pairs

A researcher investigates the force interactions between a person and a boat when the person jumps o

Easy

Evaluating Satellite Motion: Gravitational Force and Newton's Laws

A recent aerospace report claims that satellites in low Earth orbit experience slightly lower gravit

Hard

Force Analysis on a Rotating Platform

A 70 kg person stands on a rotating platform of radius 2 m. The platform rotates with an angular spe

Hard

Friction and a Block on an Incline

A block with mass $$m = 2 * (kg)$$ is placed on an incline with an angle of $$30^\circ$$. The experi

Medium

Friction on a Horizontal Surface

A 10 kg block is pushed along a horizontal surface. An applied force of $$30\ \text{N}$$ acts on the

Medium

Frictional Force and Acceleration Experiment

Students investigate the relationship between applied force and acceleration on a dynamics cart by a

Hard

FRQ5: Dynamics on an Inclined Plane

A cart is allowed to slide down a nearly frictionless inclined plane at varying angles. Study the da

Medium

FRQ19: Elevator Dynamics: Tension and Acceleration

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

Hard

Impact of Non-Inertial Frames on Newton's Laws

When observing motion in a non-inertial frame, fictitious forces appear in the analysis of dynamics.

Extreme

Impulse and Momentum in Collisions

During collisions, the impulse delivered to an object is closely related to its change in momentum.

Medium

Inclined Plane Friction Experiment

A block is released from rest on an inclined plane and slides down while its acceleration is measure

Medium

Investigating Acceleration in Circular Motion

An object moves in a circle of radius $$r$$ with a constant speed $$v$$.

Medium

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 Gravitational vs Inertial Mass

In an experiment, a cart is placed on a low-friction track. A known net force is applied to the cart

Medium

Investigating Tension in a Two-Mass Pulley System

Design an experiment using a two-mass pulley system (Atwood machine) to measure the tension in the c

Easy

Measuring the Moment of Inertia of a Rotating Disk

Design an experiment to measure the moment of inertia of a rotating disk by using a falling mass tha

Hard

Motion on an Inclined Plane

A block of mass $$m$$ is placed on a frictional inclined plane with an angle $$\theta$$. Analyze the

Medium

Motion under a Variable Force

An object of mass \(m\) experiences a net force that varies with time according to \(F(t) = 2*t\) (i

Hard

Motion Under Variable Friction Conditions

A student studies the effect of different surface textures on the acceleration of a sliding object.

Medium

Multiple Forces on an Inclined Plane

A 10 kg block slides down a 30° inclined plane with a coefficient of kinetic friction of 0.2. Analyz

Medium

Newton's First Law in Everyday Contexts

Newton's First Law, the law of inertia, explains the persistence of motion. Apply this concept to ev

Easy

Newton's Third Law: Action and Reaction

Examine the implications of Newton's Third Law in everyday and complex scenarios.

Medium

Projectile Motion: Influence of Newton's Laws

A projectile is launched with an initial velocity $$v_0$$ at an angle $$\theta$$. Analyze its motion

Medium

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

Rotational-Translational Dynamics in a Rolling Cylinder

A student investigates a cylinder rolling down an inclined plane without slipping. The experiment in

Extreme

Small Angle Pendulum Dynamics

A simple pendulum consists of a 0.75 kg bob suspended by a light string of length 1.5 m. The bob is

Easy

Tension in a Multi-Body Pulley System

Examine a complex pulley system consisting of three masses connected by two pulleys.

Hard

Torque and Rotational Equilibrium

A uniform beam with a length of 10 m and a mass of 20 kg is hinged at one end. It is maintained in e

Medium

Torque and Rotational Equilibrium on a Seesaw

Students set up a seesaw experiment to study the effects of weight distribution on torque. They plac

Hard

Vector Decomposition on an Incline

An object of mass \(m\) rests on a \(30^\circ\) inclined plane. Decompose the gravitational force in

Easy
Unit 3: Circular Motion and Gravitation

Analysis of Free-Fall Motion Data

This problem uses experimental data on free-fall motion to validate the constant acceleration due to

Easy

Analyzing the Transition from Circular to Elliptical Orbits

Design a simulation-based experiment to analyze how a slight increase in the orbital speed of a sate

Extreme

Calculation of Gravitational Acceleration on a Different Planet

A probe lands on a small planet and records the following parameters: mass of the planet is $$5.0 \t

Medium

Centripetal Acceleration Dependency on Speed: Data Table Analysis

This problem asks you to use experimental data to analyze the relationship between speed and centrip

Medium

Centripetal Acceleration Due to Earth's Rotation

At the equator, a point on Earth's surface experiences centripetal acceleration due to the planet's

Easy

Centripetal Acceleration in a Mass-Spring System in Circular Motion

A mass attached to a spring is undergoing horizontal circular motion. The spring extends by a distan

Medium

Centripetal Force in a Roller Coaster Loop

This problem analyzes the forces acting on a roller coaster car as it navigates a vertical loop.

Hard

Centripetal Force in a Rotating Amusement Park Ride

An amusement park ride consists of a rotating circular platform. A rider with a mass of $$70 \;kg$$

Medium

Centripetal Force in Amusement Park Ride

An engineering team analyzes ride safety by measuring forces acting on riders during a circular moti

Easy

Centripetal Force with Variable Speed

A rotating platform has a mass attached that experiences different speeds over time. Initially, at t

Hard

Determining Angular Speed from Tangential Speed

A rotating disc has a marked point on its edge, and its tangential speed is measured directly. Use t

Medium

Effect of Charge Distribution on Electrostatic Force

In an experiment, two charged spheres are placed at varying separations, and the force between them

Easy

Electric Force in Circular Motion: Error Analysis

A student constructs an experiment where a charged ball is made to move in a circular path under the

Hard

Friction and Circular Motion on a Flat Curve

A car negotiating a circular turn on a flat road relies on static friction to provide the necessary

Easy

Graphical Analysis of Angular Motion

A graph showing angular displacement $$\theta$$ (in radians) versus time $$t$$ (in seconds) for an o

Hard

Investigating Free Fall using Sensor Data

An object is dropped in a vacuum chamber and its displacement is recorded over time using a high-spe

Hard

Investigating the Effects of Air Resistance on Free Fall

An experiment compares free-fall times in a vacuum versus in air for a 50 m drop. The data are summa

Hard

Liquid Spinning Experiment Analysis

In a laboratory experiment, a cylindrical container with a radius of $$0.5 \;m$$ is filled with liqu

Extreme

Measuring the Effect of Friction on Circular Motion

Design an experiment to assess how frictional forces affect uniform circular motion on a track. Your

Medium

Multiple Forces in Circular Motion: Combined Gravity and Tension

A pendulum bob of mass 0.8 kg is swung in a vertical circle using a string of length 3 m. Assume the

Hard

Orbit Simulation: Satellite Motion and Gravitational Force

Design a simulation-based experiment to study how the orbital period of a satellite changes with its

Hard

Orbital Period Analysis of a Moon

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

Extreme

Roller Coaster Loop Dynamics

A roller coaster car of mass $$m$$ travels through a vertical circular loop of radius $$r$$. At the

Hard

Rotating Amusement Ride Analysis

An amusement park ride rotates a circular platform of radius $$r = 10\,m$$ such that riders experien

Easy

Rotational Dynamics of a Car on a Circular Track

A student simulates the motion of a car on a circular track to study centripetal force and friction.

Medium

Rotational Dynamics: Torque and Angular Acceleration

A solid disk of radius 0.5 m and mass 10 kg is subjected to a tangential force applied at its rim, c

Medium

Synthesis of Circular Motion and Energy Principles in a Pendulum

A simple pendulum with small oscillations undergoes circular motion near the bottom of its swing. (

Medium

Transition from Circular to Linear Motion

A ball is swung in a circular path with a constant speed of $$7 \;m/s$$. At a certain moment, the st

Easy

Uniform Circular Motion: Centripetal Force Calculation

This question explores the basic principles of uniform circular motion and how centripetal force is

Easy
Unit 4: Energy

Analysis of Power in an Oscillatory System

A mass-spring system oscillates with a mass of $$2 kg$$ attached to a spring of constant $$200 N/m$$

Extreme

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

Analyzing Friction's Impact on Work in a Moving Block

A 2.5 kg block is pushed along a horizontal surface by a constant applied force of 15 N. The surface

Medium

Assessing Energy Loss due to Air Resistance in a Free Fall

A skydiver of mass $$80\,kg$$ jumps from a balloon at an altitude of $$3000\,m$$. After deploying th

Medium

Block on Rough Surface

A 3 kg block is projected with an initial speed of 7 m/s on a horizontal rough surface. It travels 8

Medium

Calculating Work on an Inclined Surface

A 10 kg box is pushed up a frictionless ramp inclined at 30° to the horizontal using a constant forc

Medium

Comparative Power Outputs in Different Systems

Two machines are used for similar tasks. Machine A operates at a constant power output of $$2000\;W$

Hard

Conservation of Mechanical Energy in a Roller Coaster

In a laboratory experiment, a small model roller coaster is tested on a nearly frictionless track. T

Medium

Designing an Experiment on Force Angle and Work

Design an experiment to test the hypothesis that the work done on an object decreases as the angle b

Medium

Determining Efficiency in a Simple Machine

A simple machine was tested in three separate trials. Data for each trial are provided in the table

Medium

Effects of Force Direction on Work Calculations

A sled is pulled 15 m by a force of 40 N applied at different angles. Answer the following: (a) Cal

Medium

Energy Efficiency of a Machine

A machine receives an energy input of $$1000 J$$ and converts part of this energy into useful work.

Medium

Energy Loss in a Bouncing Ball

A ball is dropped from a height of 10 m and bounces back to a height of 6 m. Answer all parts.

Medium

Energy Loss in a Frictional Slide

A sled of mass $$50 kg$$ slides down a snow-covered hill with a slope length of $$15 m$$. The sled s

Medium

Energy Transitions in a Pendulum System

A researcher investigates energy transitions in a simple pendulum system. A 1 kg pendulum is release

Medium

Evaluating Mechanical Energy during a Bounce

Analyze the experimental data from a bouncing ball that tracks bounce height and kinetic energy at i

Medium

Exploring the Relationship Between Force, Work, and Time in Athletic Performance

An athlete pushes a sled with a time-varying force given by $$F(t)= 100 - 5 * t$$ (in N) for t from

Extreme

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

Frictional Work Analysis on a Moving Block

A researcher pushes a 2 kg block on a rough horizontal surface. The block has an initial speed of $$

Medium

Impact of Mass on Kinetic Energy

Examine the experimental data on kinetic energy for objects with different masses but the same veloc

Easy

Inclined Plane Energy Conservation

A 4 kg block is released from rest at the top of a frictionless incline that is $$10 m$$ long and ma

Medium

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

Interpreting a Work-Energy Graph

Examine the following graph which plots the kinetic energy (KE) of an object versus its displacement

Hard

Motor Power and Efficiency

A motor lifts a 150 kg load vertically by 4 m in 10 s. The motor consumes 10,000 J of electrical ene

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 Output during Lifting Exercise

Investigate the experimental data from lifting exercises where work and power output are calculated.

Easy

Projectile Mechanical Energy Analysis

A researcher launches a projectile from ground level. The projectile has a mass of $$0.5 \; kg$$ and

Medium

Quantitative Analysis of Friction Work

A 2 kg block is sliding on a rough horizontal surface and comes to rest after traveling a distance o

Easy

Work at an Angle Experiment Analysis

This question presents experimental data on work done by applying a force at different angles. Analy

Easy

Work Done in Circular Motion

A 1 kg ball tied to a string is moving in uniform circular motion at a constant speed of 5 m/s in a

Medium

Work Done with an Applied Force at an Angle

A force of $$30\;N$$ is applied at an angle of $$45^{\circ}$$ to the horizontal, moving an object th

Easy

Work-Energy Calculations in a Laboratory Experiment

In a lab experiment, a cart is subjected to a constant force during three separate trials as it move

Hard
Unit 5: Momentum

Analyzing a Force-Time Graph: Diagram Interpretation

A force versus time graph representing the force applied during a collision event is provided. Analy

Medium

Analyzing Impulse in a Bat-and-Ball Collision

In a baseball collision experiment, the following data were recorded: the ball has a mass of 0.145 k

Medium

Basic Momentum and Impulse Calculation

Consider a 2.5 kg object moving with a velocity of 3.0 m/s eastward. A constant force of 5.0 N is ap

Easy

Basic Momentum and Impulse Calculation

A 1500 kg car is moving to the right with a velocity of $$20\,\text{m/s}$$. Answer the following:

Easy

Collision and Rebound in a Roller Coaster Car

A 300-kg roller coaster car traveling at $$10 \ m/s$$ collides with a safety bumper and comes to a s

Medium

Comparing Elastic and Inelastic Collisions

Two objects with masses $$m_1 = 4\,\text{kg}$$ and $$m_2 = 6\,\text{kg}$$ are moving on a frictionle

Hard

Complex Collision Data Analysis

In an experiment involving three colliding objects, the following table provides measurements of the

Extreme

Designing a Controlled Experiment for Elastic Collisions

Design an experiment to investigate the effect of varying mass ratios on the coefficient of restitut

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

Experimental Analysis of Impulse Under Variable Forces

Design an experiment to measure the impulse delivered to a cart using a force sensor that records fo

Hard

Experimental Design: Effect of Mass on Momentum

Design an experiment to investigate the hypothesis that, for a constant velocity, increasing the mas

Medium

Explosion and Momentum Conservation in a Cart System

A stationary cart of mass $$M = 4$$ kg explodes into three fragments. Two fragments, each of mass $$

Medium

Explosive Separations and Momentum Distribution

A device at rest explodes into three fragments. Data for two fragments is provided, and the momentum

Extreme

Impulse Analysis from Crash Test Data

During a vehicle collision test, the force experienced by the test dummy is recorded over time. Use

Medium

Impulse Analysis with a Varying Force Profile

During a car crash test, the force experienced by the car is recorded as a function of time and show

Hard

Impulse in Sports: Baseball Analysis

A baseball of mass $$0.145$$ kg is hit by a bat. The ball accelerates from rest to $$40$$ m/s in $$0

Medium

Investigating Elastic and Inelastic Collisions

In a laboratory setup, two carts are made to collide under two different conditions: one where they

Hard

Misapplication of the Impulse-Momentum Theorem in a Rotational Setup

In this experiment, a rotating wheel is subjected to a brief, linear force impulse and sensors recor

Extreme

Momentum Analysis in a Projectile Splitting

A projectile initially at rest explodes into two fragments. Fragment A has a mass of $$2 \ kg$$ and

Medium

Momentum and Safety Design in Car Crashes

Modern cars use design features like airbags and crumple zones to manage the impulse experienced dur

Hard

Momentum Transfer in Rocket Propulsion

A simplified model of rocket propulsion involves ejecting mass to generate forward momentum in a fri

Extreme

Neglected Frictional Effects in Momentum Experiment

In this experiment, two carts are set to collide on a track that is assumed to be frictionless. The

Medium

Oblique Collision and Vector Decomposition

Two ice pucks are set to collide on a frictionless surface. Puck A (mass $$0.5\,kg$$) is moving at $

Hard

One-Dimensional Collision and Momentum Conservation

On a frictionless surface, Object 1 (mass = 2 kg) is moving east at 3 m/s, and Object 2 (mass = 3 kg

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

Rebound and Energy Dissipation in Ball Collisions

A 0.25 kg ball is dropped from a height of 2 m and bounces back to a height of 1.2 m. Assume air res

Hard
Unit 6: Simple Harmonic Motion

Adapting SHM for Seismic Measurement

Seismometers use principles of SHM to detect and measure ground motion. Consider a design using a ma

Extreme

Amplitude Effects on Oscillator Energy

A mass attached to a spring oscillates with amplitude A. The total mechanical energy is given by $$E

Medium

Calculation Error in Determining Angular Frequency

A student sets up an experiment to measure the angular frequency (ω) of a mass-spring oscillator by

Medium

Characteristic Analysis of Spring-Block Oscillator

A spring-block system oscillates with displacement described by $$x = A*\cos(\omega*t + \phi)$$. Exp

Medium

Comparative Analysis of Mass-Spring and Pendulum Systems

Compare the oscillatory behavior of a mass-spring system and a simple pendulum. (a) Write down the

Medium

Comparative Analysis: Mass-Spring vs. Pendulum SHM

Two experiments are conducted: one with a mass-spring oscillator and one with a simple pendulum. Bot

Hard

Comparative Dynamics: Pendulum vs. Mass-Spring System

Compare the dynamics of a simple pendulum and a mass-spring oscillator.

Medium

Comparing Mass-Spring and Pendulum Oscillators

Consider two systems: System A: A 0.3 kg mass attached to a spring with a spring constant k = 180 N/

Hard

Conservation of Energy in SHM

An experiment monitored the kinetic and potential energies of a mass-spring system undergoing simple

Medium

Designing an SHM Experiment

Design an experiment to study the effect of varying the spring constant (k) on the period (T) of a m

Medium

Determining System Parameters from SHM Equations

A researcher is given an equation for the displacement of a mass-spring system: $$x = 0.05 \cos(25t

Easy

Effect of Amplitude on Energy in SHM

For a mass-spring system in simple harmonic motion, the total mechanical energy is directly related

Easy

Effect of Spring Constant on Oscillation

The spring constant (k) affects the angular frequency and period of oscillation in a mass-spring sys

Medium

Error in Relating Frequency to Energy in SHM

A student investigates the relationship between frequency and total mechanical energy in a mass-spri

Hard

Experimental Determination of Spring Constant

Using experimental data, determine the spring constant of a given spring.

Medium

Exploring Non-Ideal Behaviors in SHM

In an experiment using a mass-spring system, deviations from ideal SHM are observed, including gradu

Hard

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

Mass-Spring SHM Analysis

A mass-spring system undergoes simple harmonic motion. Analyze the motion by deriving the relationsh

Medium

Measurement of Angular Frequency from Velocity Data

A mass-spring oscillator’s velocity was measured at various times, and the data are presented in the

Medium

Misapplication of Hooke's Law in Oscillatory Force Experiment

A student examines the relationship between displacement and force in a spring system. In the experi

Hard

Non-Ideal SHM: Measurement Uncertainty

Investigations of SHM in a laboratory setting are subject to various sources of measurement uncertai

Medium

Oscillation Period with Varying Spring Constant

An experiment examines a mass-spring oscillator using different springs with varying spring constant

Medium

Pendulum Period Calculation

A simple pendulum of length $$L$$ swings under the influence of gravity $$g$$. The period of a pendu

Easy

Pendulum Period Measurement Error

A student conducts an experiment using a simple pendulum to study the relationship between the lengt

Medium

Phase Relationship in SHM: Displacement and Velocity

In a mass-spring system undergoing SHM, the displacement is given by $$x = A \cos(\omega t + \phi)$$

Medium

Phase Shift Effects on Energy Distribution in SHM

A study of a mass-spring oscillator produced a graph showing the kinetic and potential energies as f

Medium

Resonance in Driven Damped Oscillators

A driven, damped oscillator is described by the equation $$m\frac{d^2x}{dt^2}+b\frac{dx}{dt}+kx=F_0\

Extreme

Rotational SHM: Physical Pendulum

An experiment is conducted with a physical pendulum, where a rigid body swings about a fixed pivot.

Hard

Time-Dependent Behavior of SHM with Phase Shift

Consider an oscillator described by $$x(t) = A \cos(\omega*t + \phi)$$. (a) Derive an expression fo

Medium

Verification of SHM Under Varying Conditions

An experiment is conducted in which both the mass and the spring constant are varied to study their

Extreme
Unit 7: Torque and Rotational Motion

Amusement Park Ride Safety Check

An amusement park ride features a long rotating arm 10 m in length with a seat at the end. The ride

Hard

Analysis of Rotational Energy Data

An experiment measured the rotational kinetic energy of a rotating object at various angular velocit

Hard

Analysis of Rotational Equilibrium on a Seesaw

A seesaw is in rotational equilibrium. A weight of 20 N is placed 1.0 m from the pivot on one side.

Easy

Angular Displacement and Arc Length

A car is navigating a circular path with a radius of $$r = 50\, m$$, covering an arc length of $$s =

Easy

Angular Momentum Change on a Rotating Platform

A rotating platform with a moment of inertia $$5.0 kg·m^2$$ spins at $$4 rad/s$$. A 50 kg person (tr

Hard

Center of Mass in an Irregular Rotating Object

A researcher studies an irregularly shaped rotating object and claims that the object rotates about

Medium

Centripetal and Tangential Acceleration in Circular Motion

A particle moving in a circle of radius $$0.8 \;m$$ has its angular velocity increase uniformly from

Medium

Centripetal vs Angular Acceleration Misinterpretation

A student is performing an experiment with a rotating object moving along a curved path. The student

Medium

Comparative Analysis of Angular Sensors and Linear Measurement Systems

A researcher is evaluating two sensor types for measuring rotational motion in an industrial machine

Extreme

Coupled Rotational Systems Analysis

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

Extreme

Designing a Robot Arm: Optimizing for Rotational Motion

A robotics engineer is designing a robot arm and needs to optimize its rotational motion. Analyze th

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

Dynamics of a Rotational Engine System

A rotational engine model consists of a flywheel (moment of inertia = $$5 \text{ kg*m}^2$$) subjecte

Extreme

Experimental Analysis of Rotational Deceleration

A rotor is observed to decelerate uniformly, and the following data for angular velocity $$\omega$$

Hard

Experimental Verification of the Right-Hand Rule in Torque

During a demonstration, various forces are applied to a lever arm, and the resulting torque directio

Easy

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

Frictional Torque on a Rotating Platform

A rotating platform initially spins at 4.0 rad/s and comes to a complete stop in 12 seconds due to f

Medium

Gyroscopic Precession Experiment Error

A student conducts an experiment on gyroscopic precession using a spinning top. The top is subjected

Hard

Rotating Disk Dynamics Experiment

A uniform disk of radius $$R = 0.5$$ m and mass 2 kg is mounted on a nearly frictionless axle. A for

Easy

Rotational Collision Dynamics

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

Hard

Rotational Dynamics in a Newton’s Cradle

In a modified Newton's Cradle setup, the collision of swinging spheres not only involves translation

Hard

Rotational Dynamics with Friction

A turntable with a moment of inertia $$I = 0.4 \;kg\cdot m^2$$ is subject to a constant frictional t

Easy

Static Equilibrium in Rotational Systems

A beam is subjected to several forces applied at different distances from a pivot point. Using the d

Medium

Testing the Relationship Between Linear and Rotational Speeds

Design an experiment to validate the relationship between linear speed and angular velocity, given b

Medium

Torque and Angular Momentum in a Rotating Machine

A rotating machine experiences varying torques over different time intervals. Use the data provided

Hard

Torque in a Non-Uniform Beam

A 2 m long beam pivots about one end. A 3 kg mass is placed 0.5 m from the pivot on one side, and a

Medium

Variable Torque and Angular Acceleration

An object with a moment of inertia of $$I = 5.0 kg·m^2$$ is subjected to different net torques over

Medium

Work and Energy Transfer in Rotational Motion

Analyze the work done on a rotating system by examining the provided graph of torque versus angular

Medium

Work-Energy Analysis in Rotational Motion

A rotating disk starts from rest and accelerates to a final angular velocity. Using the given parame

Hard

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Tips from Former AP Students

FAQWe thought you might have some questions...
Where can I find practice free response questions for the AP Physics 1: Algebra-Based exam?
The free response section of each AP exam varies slightly, so you’ll definitely want to practice that before stepping into that exam room. Here are some free places to find practice FRQs :
  • Of course, make sure to run through College Board's past FRQ questions!
  • Once you’re done with those go through all the questions in the AP Physics 1: Algebra-BasedFree Response Room. You can answer the question and have it grade you against the rubric so you know exactly where to improve.
  • Reddit it also a great place to find AP free response questions that other students may have access to.
How do I practice for AP AP Physics 1: Algebra-Based Exam FRQs?
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.
What are some tips for AP Physics 1: Algebra-Based free response questions?
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.
How do I answer AP Physics 1: Algebra-Based free-response questions?
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.