AP Physics 2 Score Calculator

Predict your AP Physics 2: Algebra-Based score in real time using official College Board scoring data. AP Physics 2 uses a 150-point composite: 45 multiple-choice questions (50%) and 4 free-response questions worth 12 points each (50%). The exam covers fluids, thermodynamics, electric force and fields, circuits, magnetism, geometric and physical optics, and modern physics. Enter your scores below for an instant predicted 1–5 score.

What Does Your AP Physics 2 Score Mean?

5
Extremely Well Qualified
4
Well Qualified
3
Qualified
2
Possibly Qualified
1
No Recommendation

AP Physics 2 is designed for students who have completed AP Physics 1 and want to explore electricity, magnetism, optics, and modern physics at an algebra-based level. A score of 3, 4, or 5 typically earns college credit for a second-semester introductory physics course. A score of 4 or 5 is generally required for credit at selective universities, and science or engineering majors may need to verify that algebra-based credit satisfies their calculus-based physics sequence requirements.

AP Physics 2 has a pass rate of approximately 60–65% (score of 3 or higher), slightly higher than AP Physics 1. About 14–18% of students earn a 5. The smaller enrollment (compared to Physics 1) means the cohort tends to be more self-selected — students who choose Physics 2 have usually already survived Physics 1 and are more experienced with AP-style physics reasoning. The conceptual depth on topics like electric fields and circuits is the most common source of difficulty.

About the AP Physics 2 Exam

The AP Physics 2 exam is 3 hours long. Section I (90 minutes) has 45 multiple-choice questions worth 50% of your composite. The MC section includes both single-select and multi-select questions — multi-select questions (where 2 of 4 choices are correct) require both correct answers for any credit. Section II (90 minutes) has 4 free-response questions worth 50%: 3 short-answer questions (12 pts each) and 1 experimental design or argument question (12 pts).

The AP Physics 2 curriculum is organized around seven content areas: Fluids (10–12%), Thermodynamics (12–18%), Electric Force, Field, and Potential (18–22%), Electric Circuits (10–14%), Magnetism and Electromagnetic Induction (10–16%), Geometric and Physical Optics (10–16%), and Quantum, Atomic, and Nuclear Physics (10–18%). Electric and magnetic topics make up roughly 40% of the exam — the most heavily tested area. Students who come from Physics 1 often underestimate the difficulty of electrostatics and circuits, where quantitative and conceptual reasoning must be combined.

AP Physics 2 FRQs prioritize scientific reasoning and argumentation over plug-and-chug calculations. You will often be asked to explain your reasoning in words, predict how a change in one variable affects another, or design an experiment to test a hypothesis. Unlike calculus-based physics, the math stays at the algebra level — but the conceptual demands are high. Drawing and labeling clear diagrams (free-body diagrams, circuit diagrams, field line diagrams) is essential and often directly awarded rubric points.

Frequently Asked Questions

What is the difference between AP Physics 1 and AP Physics 2?

AP Physics 1 covers kinematics, forces, energy, momentum, waves, and simple circuits — the foundational mechanics topics. AP Physics 2 picks up where Physics 1 leaves off: fluids, thermodynamics, electrostatics, electric circuits (more advanced), magnetism, optics, and modern physics. Both are algebra-based (no calculus required). Physics 2 is typically taken after Physics 1, though students with strong math backgrounds can sometimes take them in either order. Neither course requires calculus — that's covered in AP Physics C: Mechanics and AP Physics C: Electricity and Magnetism.

What topics are on AP Physics 2?

AP Physics 2 covers seven content areas: (1) Fluids — pressure, buoyancy, flow rate, Bernoulli's principle; (2) Thermodynamics — laws of thermodynamics, heat engines, entropy; (3) Electric Force, Field, and Potential — Coulomb's law, electric fields and potential, capacitors; (4) Electric Circuits — resistors in series and parallel, Kirchhoff's laws, RC circuits; (5) Magnetism — magnetic forces, induction, Faraday's law; (6) Geometric and Physical Optics — ray diagrams, lenses and mirrors, double-slit and single-slit diffraction; (7) Quantum, Atomic, and Nuclear Physics — the photoelectric effect, atomic models, nuclear decay, and mass-energy equivalence.

Is AP Physics 2 harder than AP Physics 1?

Most students find AP Physics 2 slightly less stressful than AP Physics 1 because the cohort is more experienced and the pass rate is modestly higher. However, the content is not easier — electricity, magnetism, and optics require strong spatial reasoning and conceptual thinking that many students find more abstract than the mechanics in Physics 1. The advantage in Physics 2 is that students usually have more experience writing AP-style physics explanations, which makes the FRQ section more manageable. If you struggled with the conceptual reasoning in Physics 1, Physics 2 will require focused study on the new conceptual domains.

Do I need calculus for AP Physics 2?

No — AP Physics 2 is algebra-based and does not require calculus. All calculations use algebra, geometry, and trigonometry. Students who want calculus-based physics should look at AP Physics C: Mechanics and AP Physics C: Electricity and Magnetism instead. However, many colleges have separate credit policies for algebra-based vs. calculus-based physics. Engineering and physics majors often need calculus-based introductory physics — check your target school's credit policies to confirm whether AP Physics 2 satisfies your major's physics requirement.

How should I prepare for AP Physics 2 FRQs?

AP Physics 2 FRQs reward clear scientific reasoning written in complete sentences, with diagrams where appropriate. Practice these skills: (1) Draw and label diagrams for every problem — circuits, ray diagrams, free-body diagrams, field line diagrams. (2) When asked to "explain," write a cause-and-effect chain: "When voltage increases, current increases (V=IR), so power dissipated in the resistor increases (P=IV)." (3) For experimental design questions, identify the independent and dependent variables and describe how to control other variables. (4) Use past FRQs from the College Board website — released questions from 2015 onward are excellent practice because they share the same reasoning-focused rubric.