AP Physics 1 — Algebra-Based courseintermediate19 lesson roadmap15 learning hours

AP Physics 1 — Algebra-Based

Build mastery through representations, inquiry, and original AP-style reasoning

ap-physics-1physicskinematicsalgebra-based

Course roadmap

A complete AP Physics 1 — Algebra-Based learning path

See the full journey before you begin, open any available lesson directly, and understand how each module builds toward mastery.

19 lessons ready now8 modules · 19 lesson roadmap

Module 1

Kinematics

Represent and predict one- and two-dimensional motion before explaining its causes.

Lesson 1 · 15 minRepresenting and Predicting Motion Lesson 2 · 4 hrMotion Graphs and Mathematical Models Lesson 3 · 5 minVectors and Two-Dimensional Motion Lesson 4 · 4 hrRelative Motion and Reference Frames

Module 2

Force and Translational Dynamics

Model how external interactions change the motion of a chosen system using force diagrams and Newton's laws.

Lesson 1 · 20 minInteractions, Forces, and Newton's Laws Lesson 2 · 5 minCircular Motion and Gravitation Lesson 3 · 5 minFriction, Springs, and Connected Systems

Module 3

Work, Energy, and Power

Use system boundaries, work, energy stores, and power to model changes between physical states.

Lesson 1 · 20 minSystem Energy and Work Models Lesson 2 · 4 hrPower, Efficiency, and Energy Transfer

Module 4

Linear Momentum

Use impulse and system momentum to predict collisions, recoil, and brief interactions.

Lesson 1 · 15 minImpulse, Collisions, and System Momentum Lesson 2 · 5 minCenter of Mass and Collision Models

Module 5

Torque and Rotational Dynamics

Analyze how force location, direction, and mass distribution determine rotational equilibrium and angular acceleration.

Lesson 1 · 15 minTorque, Equilibrium, and Angular Acceleration Lesson 2 · 5 minRotational Kinematics and Moment of Inertia

Module 6

Energy and Momentum of Rotating Systems

Track rotational kinetic energy, angular impulse, and angular momentum in rigid and rolling systems.

Lesson 1 · 10 minRotational Energy and Angular Momentum Lesson 2 · 5 minRolling Without Slipping and Coupled Motion

Module 7

Oscillations

Model how restoring interactions produce periodic motion and connect force, energy, and motion representations.

Lesson 1 · 10 minRestoring Forces and Periodic Motion Lesson 2 · 5 minPendulums and Oscillation Energy

Module 8

Fluids

Explain fluid pressure, buoyancy, continuity, and ideal-flow energy using system and field models.

Lesson 1 · 15 minPressure, Buoyancy, and Flow Lesson 2 · 5 minFluid Dynamics and Bernoulli Applications

Course learning plan

Built for step-by-step mastery

This course brings together a structured curriculum, reviewed learning goals, approved videos, hands-on labs, mastery checks, and source-grounded references.

19Live study rooms0.1.0Content version

Audience profile

Who this course is built for

Learning contract

How the course should behave

Lesson target35-65 minutesMastery threshold80%

Source grounding

Reviewed references

Study space design

A focused room for every lesson

Watch first

Approved videos establish the mental model before text gets dense.

Practice while learning

Labs and retrieval prompts help students explain, self-check, and catch weak spots.

Prove mastery

Short recall checks keep the loop honest and build durable confidence.

Course path

Start with the foundations

Each lesson keeps the learning loop short: video anchor, reading lab, retrieval practice, and a quick mastery check.

Module 1

Kinematics

Represent and predict one- and two-dimensional motion before explaining its causes.

4 lessons

Representing and Predicting Motion15 minVideoMastery Motion Graphs and Mathematical Models4 hrVideoMastery Vectors and Two-Dimensional Motion5 minVideoMastery Relative Motion and Reference Frames4 hrVideoMastery

Module 2

Force and Translational Dynamics

Model how external interactions change the motion of a chosen system using force diagrams and Newton's laws.

3 lessons

Interactions, Forces, and Newton's Laws20 minVideoMastery Circular Motion and Gravitation5 minVideoMastery Friction, Springs, and Connected Systems5 minVideoMastery

Module 3

Work, Energy, and Power

Use system boundaries, work, energy stores, and power to model changes between physical states.

2 lessons

System Energy and Work Models20 minVideoMastery Power, Efficiency, and Energy Transfer4 hrVideoMastery

Module 4

Linear Momentum

Use impulse and system momentum to predict collisions, recoil, and brief interactions.

2 lessons

Impulse, Collisions, and System Momentum15 minVideoMastery Center of Mass and Collision Models5 minVideoMastery

Module 5

Torque and Rotational Dynamics

Analyze how force location, direction, and mass distribution determine rotational equilibrium and angular acceleration.

2 lessons

Torque, Equilibrium, and Angular Acceleration15 minVideoMastery Rotational Kinematics and Moment of Inertia5 minVideoMastery

Module 6

Energy and Momentum of Rotating Systems

Track rotational kinetic energy, angular impulse, and angular momentum in rigid and rolling systems.

2 lessons

Rotational Energy and Angular Momentum10 minVideoMastery Rolling Without Slipping and Coupled Motion5 minVideoMastery

Module 7

Oscillations

Model how restoring interactions produce periodic motion and connect force, energy, and motion representations.

2 lessons

Restoring Forces and Periodic Motion10 minVideoMastery Pendulums and Oscillation Energy5 minVideoMastery

Module 8

Fluids

Explain fluid pressure, buoyancy, continuity, and ideal-flow energy using system and field models.

2 lessons

Pressure, Buoyancy, and Flow15 minVideoMastery Fluid Dynamics and Bernoulli Applications5 minVideoMastery