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AP Physics 1 1-Month Study Plan

A structured 4-week plan that builds mastery without burning out.

⏱️ ~60 hours total over 4 weeks⚛️ AP Physics 1

You have one month until the AP Physics 1 exam. This schedule gives you time to learn each unit deeply, practice thoroughly, and build confidence before test day.

Each week targets 2 units (or 1 complex unit with extras). Dedicate 1–2 hours per day to this plan, mixing concept review with practice problems. This leaves room for your other classes and life.


Week 1: Kinematics & Translational Dynamics

Monday-Tuesday: Unit 1 — Kinematics

Topics to master:

  • Constant acceleration equations: v=v0+atv = v_0 + at, Δx=v0t+12at2\Delta x = v_0 t + \frac{1}{2}at^2, v2=v02+2aΔxv^2 = v_0^2 + 2a\Delta x
  • Kinematic graphs: slope of xx vs tt is velocity; slope of vv vs tt is acceleration
  • Projectile motion: horizontal and vertical components are independent

Daily routine:

  • Read the concept summary (30 min).
  • Work 8–10 representative problems (60 min).
  • Review one worked example video (15 min).

Check yourself: Can you identify which kinematics equation to use for each problem type without hesitation? Can you interpret a velocity-time graph instantly?


Wednesday-Thursday: Unit 2 — Translational Dynamics

Topics to master:

  • Newton's three laws (state them verbatim).
  • Free body diagrams: draw every force, label magnitudes and angles.
  • Friction: static (fs≤μsNf_s \leq \mu_s N) vs kinetic (fk=μkNf_k = \mu_k N).
  • Inclined planes: resolve weight into components (N=mgcos⁡θN = mg\cos\theta, F∥=mgsin⁡θF_{\parallel} = mg\sin\theta).
  • Tension and Atwood machines.

Daily routine:

  • Concept summary (30 min).
  • Draw 15 free body diagrams, labeling forces (90 min total).
  • Solve 4 dynamics problems using FBDs as justification (60 min).

Check yourself: Can you draw a correct FBD for a complex scenario (block on an incline with friction, connected masses, etc.)?


Friday-Sunday: Cumulative + FRQ Practice

  • Friday: Review Units 1 & 2 (30 min). Work 5 mixed problems from both units (90 min).
  • Saturday: Attempt 1 full kinematics FRQ + 1 dynamics FRQ (timed, 30 min each). Score and review errors.
  • Sunday: Light review. Rework any problems you stumbled on.

Week 2: Energy, Power, and Momentum

Monday-Tuesday: Unit 3 — Work, Energy, and Power

Topics to master:

  • Work: W=Fdcos⁡θW = Fd\cos\theta (force component times displacement).
  • Kinetic energy: KE=12mv2KE = \frac{1}{2}mv^2.
  • Gravitational PE: PE=mghPE = mgh (choose a reference point).
  • Spring PE: PE=12kx2PE = \frac{1}{2}kx^2.
  • Energy conservation: Einitial=EfinalE_{\text{initial}} = E_{\text{final}}.
  • Power: P=WtP = \frac{W}{t} (watts).

Daily routine:

  • Concept summary (30 min).
  • 8–10 energy problems, emphasizing conservation setups (90 min).
  • 1 worked example: energy conservation with a spring (30 min).

Check yourself: When you see a problem with a spring or height change, do you automatically reach for energy conservation?


Wednesday-Thursday: Unit 4 — Linear Momentum & Collisions

Topics to master:

  • Momentum: p=mvp = mv (a vector).
  • Impulse-momentum theorem: J=FΔt=ΔpJ = F\Delta t = \Delta p.
  • Conservation of momentum: pbefore=pafterp_{\text{before}} = p_{\text{after}} (always true).
  • Elastic collisions: KEKE conserved.
  • Inelastic collisions: KEKE not conserved; pp always conserved.

Daily routine:

  • Concept summary (30 min).
  • Solve 6 collision problems (90 min): mix elastic and inelastic, 1D and 2D.
  • Analyze one FRQ that distinguishes elastic from inelastic (30 min).

Check yourself: Can you explain why momentum is always conserved, but kinetic energy is not?


Friday-Sunday: Cumulative Practice

  • Friday: Review Units 3 & 4 (30 min). Solve 5 mixed energy and momentum problems (90 min).
  • Saturday: Attempt 1 energy FRQ + 1 collision FRQ (timed). Score; identify what broke your reasoning.
  • Sunday: Revisit any conceptual gaps. Redo one problem you missed.

Week 3: Rotation and Oscillations

Monday-Tuesday: Unit 5 — Rotational Dynamics

Topics to master:

  • Rotational kinematics: ω=ω0+αt\omega = \omega_0 + \alpha t, θ=ω0t+12αt2\theta = \omega_0 t + \frac{1}{2}\alpha t^2 (parallels linear).
  • Torque: τ=rFsin⁡θ\tau = rF\sin\theta (perpendicular distance matters).
  • Rotational dynamics: Στ=Iα\Sigma\tau = I\alpha (Newton's 2nd law for rotation).
  • Moment of inertia: I=∑miri2I = \sum m_i r_i^2 (use formulas for standard shapes).
  • Rotational KE: 12Iω2\frac{1}{2}I\omega^2.
  • Angular momentum: L=IωL = I\omega; conserved when net torque = 0.

Daily routine:

  • Concept summary (30 min).
  • 8 rotational problems (90 min): torque equilibrium, τ=Iα\tau = I\alpha, angular momentum.
  • 1 rolling-without-slipping problem (real College Board favorite).

Check yourself: Do you remember that sin⁡θ\sin\theta in τ=rFsin⁡θ\tau = rF\sin\theta is the angle between the force and the position vector?


Wednesday-Thursday: Unit 6 — Oscillations & Waves

Topics to master:

  • Simple harmonic motion (SHM): x(t)=Acos⁡(ωt)x(t) = A\cos(\omega t).
  • Spring period: T=2πmkT = 2\pi\sqrt{\frac{m}{k}}.
  • Pendulum period: T=2πLgT = 2\pi\sqrt{\frac{L}{g}} (independent of mass).
  • Energy in oscillators: Etotal=12kA2E_{\text{total}} = \frac{1}{2}kA^2 (or 12mghmax\frac{1}{2}mgh_{\text{max}} for pendulum).
  • Maximum velocity in SHM: vmax=Aωv_{\text{max}} = A\omega.

Daily routine:

  • Concept summary (30 min).
  • 6 SHM problems (90 min): period, frequency, energy, max velocity.
  • Analyze what happens if mass or spring constant doubles (conceptual, not just calculation).

Check yourself: Can you explain why a heavier pendulum has the same period as a lighter one?


Friday-Sunday: Cumulative Practice

  • Friday: Review Units 5 & 6 (30 min). Solve 5 mixed rotation and oscillation problems (90 min).
  • Saturday: Attempt 1 torque FRQ + 1 SHM FRQ (timed). Score carefully.
  • Sunday: Conceptual review. Make a one-page guide: "When to use τ=Iα\tau = I\alpha" and "When to use SHM equations."

Week 4: Fluids, Mixed Review, and Full Exam Simulation

Monday-Tuesday: Unit 7 & 8 — Fluids

Topics to master (light coverage — lower-yield):

  • Density: ρ=mV\rho = \frac{m}{V}.
  • Pressure: P=FAP = \frac{F}{A} (and hydrostatic pressure: P=P0+ρghP = P_0 + \rho g h).
  • Buoyancy: Fbuoy=ρfluidVdisplacedgF_{\text{buoy}} = \rho_{\text{fluid}} V_{\text{displaced}} g (Archimedes' principle).
  • Continuity equation: A1v1=A2v2A_1 v_1 = A_2 v_2 (flow rate constant).
  • Bernoulli's equation: P+12ρv2+ρgh=constantP + \frac{1}{2}\rho v^2 + \rho g h = \text{constant}.

Daily routine:

  • Concept summary (30 min).
  • 6 fluid problems (60 min): pressure, buoyancy, continuity.
  • Understand when Bernoulli applies (lower-yield; know the concept, skim the hard calculations).

Check yourself: Can you apply Archimedes' principle? Do you understand how continuity constrains fluid speed when the pipe narrows?


Wednesday-Thursday: Cumulative Review + Problem Bank

  • Wednesday: Skim the last-minute review checklist.

  • Make your personal "musts" list: the 5–10 concepts you find hardest. Drill one per hour.

  • Solve 10 mixed problems (any unit, any style).

  • Thursday: Another 10 mixed problems. Pay special attention to questions you would typically rush or skip.


Friday-Saturday: Full Exam Simulations

Friday (90 min, realistic timed conditions):

  • Take the full AP Physics 1 section 1 (50 MCQs in 90 min, no calculator for the first 30).
  • Grade immediately.

Saturday (90 min, realistic timed conditions):

  • Take full AP Physics 1 section 2 (5 FRQs in 90 min).
  • Grade using the official rubric.
  • Analyze: Which unit hurt your score the most? Spend Sunday on that.

Sunday: Final Review & Confidence Build

  • Rework your two lowest-scoring FRQs from the simulations.
  • Read through the free body diagram checklist and formula sheet one more time.
  • Get 8 hours of sleep.

Daily tips for staying on track

  • Use the formula sheet. During practice, cover the formulas you haven't memorized yet. Get used to finding τ=rFsin⁡θ\tau = rF\sin\theta in the sheet, not in your head.
  • Draw diagrams for every problem. FBDs, energy bar charts, momentum vectors — physicists think in pictures.
  • Timing: If a problem takes more than 10 min, you're either stuck on a concept or doing unnecessary algebra. Know the difference.
  • Review your wrong answers before the next day. Understanding why you were wrong is worth 10 correct problems.

Week 4 cross-links


You're ready

After this month, you've touched every unit multiple times. You've written real FRQs. You've checked your work. Exam day comes down to focus and confidence — both of which you've earned.

Trust your prep. Show up rested. You've got this. 🎯

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