AP Physics C: Mechanics Study Schedules
Choose a pre-built study schedule for AP Physics C: Mechanics. Each plan balances calculus-based lessons, problem sets, and timed practice.
4-Week AP Physics C: Mechanics Sprint
Rapid calculus-based review of kinematics, Newton's laws, energy, momentum, rotation, and oscillations for students who need a final push before the exam.
10-Week AP Physics C: Mechanics Plan
Systematic coverage of all Physics C: Mechanics topics with calculus-heavy problem solving, derivations, and practice exams.
16-Week AP Physics C: Mechanics Mastery
In-depth preparation with calculus derivations, advanced problem sets, lab-style analysis, and multiple full-length practice exams.
Schedules are added to your dashboard (Practice › Study schedules), where you can track progress, check off tasks, and adjust the dates. Want to know what to study first? Take the course diagnostic for a personal study plan.
These study plans break exam prep into a day-by-day schedule, with options sized for different timelines — from a full runway down to a final-weeks push. Whichever plan you pick is added to your dashboard planner, where you can check off tasks and adjust the pace as you go. Choose the one that matches the time you actually have.
About the AP Physics C: Mechanics exam
AP Physics C: Mechanics is a calculus-based college physics course intended for students pursuing engineering and the physical sciences. It covers kinematics, Newton's laws and dynamics, work, energy and power, systems of particles and linear momentum, rotational motion, oscillations, and gravitation, treating each topic with the rigor of differential and integral calculus. Unlike the algebra-based Physics 1 and 2 courses, here calculus is woven throughout: students differentiate position to find velocity and acceleration, integrate force or acceleration over time or distance, and use calculus to derive moments of inertia, work from variable forces, and equations of motion for oscillating and orbiting systems. This makes concurrent or prior calculus coursework essentially a prerequisite. The 2024-25 redesign expanded the exam to 40 four-option multiple-choice questions over 80 minutes and four free-response questions over 100 minutes, retiring the older 35-question, 45-minute format. Students often find the mathematics demanding not because the calculus is advanced but because they must set up integrals and derivatives from physical situations, choosing appropriate limits and variables. Conceptual depth matters too: the exam rewards understanding why principles like conservation of energy and angular momentum hold and how to apply them to nonstandard configurations. Strong preparation pairs fluency in calculus with deep mechanics intuition, careful free-body and force analysis, and disciplined practice on released free-response questions, where partial credit follows specific derivation steps. Treating the calculus as a tool for expressing physical reasoning, rather than as a separate hurdle, is the key to performing well across both sections of this exam.
Exam structure
Two sections, each worth 50%: Section I is 40 multiple-choice questions (four options) in 80 minutes; Section II is 4 free-response questions in 100 minutes. A calculator is permitted on both sections, and a formula/equations sheet is provided.
Scoring
Section I (50%) and Section II (50%) combine into a composite that is converted to the reported AP score of 1 to 5.
Common mistakes
- Struggling to set up the correct integrals and derivatives from a physical scenario, including choosing proper variables and limits
- Weak free-body diagrams and force analysis that derail otherwise correct calculus
- Confusing rotational quantities (torque, moment of inertia, angular momentum) with their translational analogs
- Misapplying conservation of energy or momentum to nonstandard systems instead of analyzing forces and constraints carefully
- Skipping intermediate derivation steps on free-response questions, forfeiting the partial credit awarded for them