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AP® Physics 1

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AP Physics 1 is an algebra-based course that builds your intuition for motion, forces, energy, momentum, rotation, and oscillations while sharpening graphing, proportional reasoning, and experimental design skills. Expect to interpret 𝑥−𝑡 x−t and 𝑣−𝑡 v−t graphs, construct free-body diagrams, connect multiple representations (words ▸ diagrams ▸ math ▸ graphs), and justify claims with evidence. Your practice set is organized by unit, with each sub-unit offering 30 questions to prepare you for both multiple-choice and free-response tasks—including lab-style reasoning.

Description

Units

Unit 1: Kinematics

  • 1.1 Scalars vs. Vectors; Units & Significant Figures — 30 Qs
  • 1.2 One-Dimensional Motion: x ⁣− ⁣tx\!-\!t, v ⁣− ⁣tv\!-\!t Graphs & Interpretation — 30 Qs
  • 1.3 Constant Acceleration (Kinematic Equations) — 30 Qs
  • 1.4 Two-Dimensional Motion & Projectiles — 30 Qs
  • 1.5 Relative Motion & Reference Frames — 30 Qs
  • 1.6 Experimental Design for Motion (slope, area, uncertainties) — 30 Qs

Unit 2: Force (Dynamics)

  • 2.1 Free-Body Diagrams & Newton’s 1st Law — 30 Qs
  • 2.2 Newton’s 2nd Law: Components, Net Force, Inclines — 30 Qs
  • 2.3 Newton’s 3rd Law & Interaction Pairs — 30 Qs
  • 2.4 Friction (Static/Kinetic), Normal & Tension Forces — 30 Qs
  • 2.5 Springs & Hooke’s Law — 30 Qs
  • 2.6 Uniform Circular Motion as a Force Problem (centripetal) — 30 Qs

Unit 3: Work, Energy, and Power

  • 3.1 Work (Constant & Variable Force; W=∫ ⁣F dxW=\int \!F\,dx conceptually) — 30 Qs
  • 3.2 Kinetic & Potential Energy (near-Earth gg, springs) — 30 Qs
  • 3.3 Conservation of Mechanical Energy — 30 Qs
  • 3.4 Work–Energy Theorem & Nonconservative Forces — 30 Qs
  • 3.5 Power & Efficiency (mechanical & electrical contexts) — 30 Qs

Unit 4: Linear Momentum

  • 4.1 Impulse–Momentum Theorem — 30 Qs
  • 4.2 Conservation of Linear Momentum (systems) — 30 Qs
  • 4.3 Collisions: Elastic, Inelastic, Explosions (1D/2D) — 30 Qs
  • 4.4 Center of Mass & Multi-Object Systems — 30 Qs
  • 4.5 Applications (ballistic pendulum, rockets qualitative) — 30 Qs

Unit 5: Torque & Rotational Dynamics

  • 5.1 Angular Variables & Rotational Kinematics (θ, ω, α\theta,\ \omega,\ \alpha) — 30 Qs
  • 5.2 Torque (τ=rFsin⁡ϕ\tau=rF\sin\phi) & Lever Arm — 30 Qs
  • 5.3 Static Equilibrium (ladders, beams, supports) — 30 Qs
  • 5.4 Moment of Inertia (concepts; composite bodies) — 30 Qs
  • 5.5 Rotational Dynamics (τ=Iα\tau=I\alpha); Rolling Without Slipping (intro) — 30 Qs
  • 5.6 Rotational vs. Translational Analogies — 30 Qs

Unit 6: Energy and Angular Momentum (Rotation)

  • 6.1 Rotational Work & Power; Rotational Kinetic Energy — 30 Qs
  • 6.2 Angular Momentum L=IωL=I\omega & ∑τ=dLdt\sum \tau=\dfrac{dL}{dt} — 30 Qs
  • 6.3 Conservation of Angular Momentum (isolated systems) — 30 Qs
  • 6.4 Rolling Motion: Energy Partition & Ramps — 30 Qs
  • 6.5 Collisions Involving Rotation (putty on disk, turntables) — 30 Qs

Unit 7: Oscillations (Simple Harmonic Motion)

  • 7.1 SHM Fundamentals: x,v,ax,v,a vs. time; ω,T,f\omega, T, f — 30 Qs
  • 7.2 Mass–Spring Systems: Hooke’s Law, Energy & Period — 30 Qs
  • 7.3 Simple Pendulum (small-angle) & Physical Pendulum (concepts) — 30 Qs
  • 7.4 Energy in SHM; Phase & Graphs — 30 Qs
  • 7.5 Damping & Driving/Resonance (qualitative) — 30 Qs