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AP ExamUC A-G · Section DUC Honors · +1.0 GPAMay 2026

AP Physics 2
Algebra-Based

Fluids · Electricity · Optics · Quantum

The most comprehensive agentic AP Physics 2 course. From Bernoulli's equation to the photoelectric effect — master every concept, ace every FRQ type, and score a 5 — guided by Dr. Marco Rossi and SofAI.

Start with Dr. Marco
AP Resources
5
Score Target
Quick LinksCollegeBoard AP Physics 2 VRS AP Resources AP Seminar Exemplar ↗
Exam: May 2026
Exam Blueprint

Two Sections · MC + FRQ

🔵

Multiple Choice — Single Select

Section I · Part A
40%90 min (shared)~40 questions
  • › Diagrams, circuit schematics, ray diagrams, and graphs to interpret
  • › Tests all 7 units with emphasis on conceptual reasoning
  • › ~30% recall, ~70% application, analysis, and multi-step reasoning

Score 5 Tip: AP Physics 2 MC is concept-heavy. For each question, identify which physics principle applies BEFORE touching any numbers. Wrong answers are almost always the result of applying the right equation to the wrong concept.

🟣

Multiple Choice — Multi-select

Section I · Part B
10%90 min (shared)~10 questions
  • › Choose exactly 2 correct answers — no partial credit awarded
  • › High value per question — these determine top scores
  • › Often test the same concept from two different angles or scales

Score 5 Tip: Multi-select often has one obvious correct answer and a tricky second. Eliminate the two worst answers first, then decide between the remaining two. If you are only 100% confident in one answer, think carefully — wrong guesses cost you the entire question.

🟠

Experimental / Lab FRQ

Section II · FRQ 1
~18%90 min (shared)1 long FRQ
  • › Design or analyze a controlled experiment using physics apparatus
  • › Identify sources of experimental error and their effect on results
  • › Often requires drawing a diagram of experimental setup

Score 5 Tip: For lab FRQs: always sketch your apparatus with labeled components, state your measurement procedure clearly, and connect your experimental result to the physics principle being tested. Sources of error must explain the DIRECTION of deviation.

🟡

Quantitative/Qualitative & Short FRQs

Section II · FRQs 2–4
~32%90 min (shared)3 FRQs
  • › Quantitative FRQ: combine algebra and conceptual reasoning in one answer
  • › Short FRQs (~4 pts each): explain reasoning, justify predictions using physics
  • › Graders award points for correct physics reasoning — not just correct final answers

Score 5 Tip: For short FRQs, always cite the physics principle by name (e.g., 'Bernoulli's equation states...' or 'By Lenz's law...'). Naked equations with no explanation earn zero points. Write one clear sentence connecting the principle to the scenario.

Score Distribution (2024)

Where Students Land

~150,000 students take AP Physics 2 annually. Conceptual depth makes it one of the most challenging AP science exams — and most rewarding to ace.

5
Extremely Qualified
← Your target14%
4
Well Qualified
21%
3
Qualified
26%
2
Possibly Qualified
24%
1
No Recommendation
15%

Score 5 Roadmap

Your point targets for the May 2026 exam

🔵

Multiple Choice Target: ≥ 72% (~36 of 50 questions correct)

🧪

Lab FRQ Target: earn all apparatus + procedure + error analysis points

📐

Quantitative FRQ Target: show full setup + algebra + written reasoning

💡

Short FRQ Target: cite named physics principle in every single answer

CollegeBoard CED Aligned

Seven AP Physics 2 Units

🌊
UNIT 110–12%

Fluids

Expand ›

Key Topics

  • Fluid statics: pressure at depth (P = P₀ + ρgh)
  • Buoyancy and Archimedes' principle (F_b = ρ_fluid · V_displaced · g)
  • Continuity equation for fluid flow (A₁v₁ = A₂v₂)
  • Bernoulli's equation: P + ½ρv² + ρgh = constant

Key Terms

density
mass per unit volume (ρ = m/V)
pressure
force per unit area (P = F/A)
buoyant force
upward force on submerged object equal to weight of displaced fluid
Archimedes' principle
buoyant force equals weight of fluid displaced
continuity equation
A₁v₁ = A₂v₂; flow rate is conserved in an incompressible fluid
Bernoulli's equation
conservation of energy for flowing fluid: P + ½ρv² + ρgh = const
laminar flow
smooth, orderly fluid flow with no turbulence
gauge pressure
pressure above atmospheric pressure (P_gauge = P_abs - P_atm)
FRQ Practice Prompt

Short FRQ practice: A pipe carries water horizontally. The pipe narrows from a cross-sectional area of 0.04 m² to 0.01 m². If the water speed in the wide section is 2 m/s, find the speed in the narrow section. Then explain using Bernoulli's equation whether the pressure increases or decreases in the narrow section and why.

Practice with Dr. Marco →

Curated Video Lessons

Fluid Statics and Buoyancy — Khan Academy
content

Fluid Statics and Buoyancy — Khan Academy

Khan Academy12 min
Bernoulli's Equation — Flipping Physics
content

Bernoulli's Equation — Flipping Physics

Flipping Physics14 min
AP Physics 2 Fluids Review
review

AP Physics 2 Fluids Review

Khan Academy10 min
🔥
UNIT 212–18%

Thermodynamics

Expand ›

Key Topics

  • Temperature scales (Celsius, Kelvin) and thermal equilibrium
  • Heat transfer: conduction, convection, radiation
  • Ideal gas law: PV = nRT
  • First law of thermodynamics: ΔU = Q - W
  • Second law: entropy increases; heat flows from hot to cold

Key Terms

thermal equilibrium
state where two objects reach the same temperature with no net heat transfer
ideal gas law
PV = nRT; relates pressure, volume, amount, and temperature of a gas
internal energy
total kinetic and potential energy of all particles in a system
first law of thermodynamics
ΔU = Q - W; energy is conserved in thermal processes
second law of thermodynamics
entropy of an isolated system always increases over time
entropy
measure of disorder or number of possible microstates in a system
conduction
heat transfer through direct molecular contact in a solid
specific heat capacity
energy required to raise 1 kg of a substance by 1°C (Q = mcΔT)
FRQ Practice Prompt

FRQ practice: A fixed container holds an ideal gas at 300 K and 1.0 × 10⁵ Pa. The gas is heated until its temperature reaches 450 K. (a) Calculate the new pressure. (b) Is work done by or on the gas? Explain using the first law. (c) Predict how entropy changes and justify using the second law.

Practice with Dr. Marco →

Curated Video Lessons

Ideal Gas Law — Khan Academy
content

Ideal Gas Law — Khan Academy

Khan Academy13 min
First Law of Thermodynamics — Flipping Physics
content

First Law of Thermodynamics — Flipping Physics

Flipping Physics11 min
Thermodynamics — Crash Course Physics
review

Thermodynamics — Crash Course Physics

Crash Course10 min
⚡
UNIT 315–20%

Electric Force, Field, and Potential

Expand ›

Key Topics

  • Coulomb's law: F = kq₁q₂/r²
  • Electric field lines and vector addition of fields
  • Electric potential energy and electric potential (V = kq/r)
  • Equipotential surfaces and relationship between E and V
  • Conductors vs. insulators; charge distribution

Key Terms

Coulomb's law
F = kq₁q₂/r²; electrostatic force between two point charges
electric field
force per unit positive charge at a point in space (E = F/q)
electric potential
electric potential energy per unit charge (V = U/q = kq/r)
equipotential surface
surface where all points have the same electric potential
conductor
material where electrons move freely; electric field inside is zero in equilibrium
insulator
material where electrons are bound; charge stays where placed
superposition principle
total field or force is the vector sum of contributions from each charge
electric dipole
pair of equal and opposite charges separated by a small distance
FRQ Practice Prompt

Short FRQ practice: Two charges +Q and -Q are placed 0.10 m apart. (a) Sketch the electric field lines between and around the charges. (b) At the midpoint between the charges, determine the direction and relative magnitude of the net electric field. (c) Is the electric potential at the midpoint positive, negative, or zero? Justify.

Practice with Dr. Marco →

Curated Video Lessons

Electric Force and Coulomb's Law — Khan Academy
content

Electric Force and Coulomb's Law — Khan Academy

Khan Academy11 min
Electric Field Lines — Flipping Physics
content

Electric Field Lines — Flipping Physics

Flipping Physics13 min
Electric Potential — AP Physics 2
advanced

Electric Potential — AP Physics 2

Khan Academy12 min
🔌
UNIT 415–20%

Electric Circuits

Expand ›

Key Topics

  • Resistance and Ohm's law: V = IR
  • Series and parallel circuit analysis (equivalent resistance)
  • Electric power: P = IV = I²R = V²/R
  • Kirchhoff's laws (junction rule, loop rule)
  • Capacitors in circuits: C = Q/V, energy stored U = ½CV²

Key Terms

resistance
opposition to current flow (R = V/I); unit is Ohm (Ω)
Ohm's law
V = IR; voltage equals current times resistance
series circuit
components connected end-to-end; same current, voltages add
parallel circuit
components with same voltage; currents add, resistance decreases
capacitor
device that stores electric charge; C = Q/V
Kirchhoff's junction rule
total current entering a junction equals total current leaving
Kirchhoff's loop rule
sum of all voltage changes around a closed loop equals zero
electric power
rate of energy transfer in a circuit (P = IV = I²R = V²/R)
FRQ Practice Prompt

FRQ practice: Two resistors R₁ = 6 Ω and R₂ = 3 Ω are connected in parallel across a 12V battery. (a) Calculate the equivalent resistance. (b) Find the current through each resistor. (c) A capacitor with C = 4 μF is connected across R₂. How much energy is stored in the capacitor when fully charged?

Practice with Dr. Marco →

Curated Video Lessons

Ohm's Law and Resistance — Khan Academy
content

Ohm's Law and Resistance — Khan Academy

Khan Academy10 min
Series and Parallel Circuits — Flipping Physics
content

Series and Parallel Circuits — Flipping Physics

Flipping Physics14 min
Capacitors Explained — AP Physics 2
advanced

Capacitors Explained — AP Physics 2

Khan Academy11 min
🧲
UNIT 512–15%

Magnetism and Electromagnetic Induction

Expand ›

Key Topics

  • Magnetic fields: sources and direction (right-hand rule)
  • Force on moving charge in magnetic field: F = qvB sinθ
  • Force on current-carrying wire: F = BIL sinθ
  • Faraday's law of electromagnetic induction: ε = -ΔΦ/Δt
  • Lenz's law: induced current opposes change in flux

Key Terms

magnetic field
region where magnetic force acts on moving charges or magnetic materials
magnetic flux
Φ = BA cosθ; measure of magnetic field passing through an area
Faraday's law
induced EMF equals the rate of change of magnetic flux: ε = -ΔΦ/Δt
Lenz's law
induced current flows in direction to oppose the change in magnetic flux
right-hand rule
thumb points in direction of velocity/current; fingers curl in direction of B field
electromagnetic induction
generation of electric current by a changing magnetic flux
solenoid
coil of wire that creates a uniform magnetic field inside when current flows
cyclotron motion
circular motion of a charged particle in a uniform magnetic field
FRQ Practice Prompt

Short FRQ: A rectangular loop of wire is moved out of a region of uniform magnetic field directed into the page. (a) In which direction does induced current flow in the loop as it exits? Justify using Lenz's law. (b) If the flux decreases from 0.08 Wb to 0.02 Wb in 0.03 s, calculate the induced EMF.

Practice with Dr. Marco →

Curated Video Lessons

Magnetism and Magnetic Force — Khan Academy
content

Magnetism and Magnetic Force — Khan Academy

Khan Academy12 min
Faraday's Law — Flipping Physics
content

Faraday's Law — Flipping Physics

Flipping Physics13 min
Lenz's Law — AP Physics 2
application

Lenz's Law — AP Physics 2

Khan Academy9 min
🔭
UNIT 612–15%

Geometric and Physical Optics

Expand ›

Key Topics

  • Reflection: law of reflection, plane mirrors, curved mirrors
  • Refraction: Snell's law n₁sinθ₁ = n₂sinθ₂, total internal reflection
  • Converging and diverging lenses: ray diagrams, thin lens equation (1/f = 1/d_o + 1/d_i)
  • Wave optics: double-slit interference (dsinθ = mλ), single-slit diffraction
  • Dispersion and the electromagnetic spectrum

Key Terms

Snell's law
n₁sinθ₁ = n₂sinθ₂; describes refraction at interface between two media
index of refraction
n = c/v; ratio of speed of light in vacuum to speed in medium
total internal reflection
all light reflects internally when angle exceeds the critical angle
focal length
distance from lens/mirror to focal point; positive for converging, negative for diverging
thin lens equation
1/f = 1/d_o + 1/d_i; relates focal length to object and image distances
constructive interference
waves combine to make larger amplitude; occurs when path difference = mλ
diffraction
bending of waves around obstacles or through openings
magnification
m = -d_i/d_o = h_i/h_o; ratio of image size to object size
FRQ Practice Prompt

FRQ practice: A ray of light travels from glass (n = 1.5) into air (n = 1.0) at an angle of incidence of 30°. (a) Calculate the angle of refraction. (b) Determine the critical angle for this glass-air interface. (c) If the frequency of light is 5.0 × 10¹⁴ Hz, what is its wavelength in the glass?

Practice with Dr. Marco →

Curated Video Lessons

Refraction and Snell's Law — Khan Academy
content

Refraction and Snell's Law — Khan Academy

Khan Academy11 min
Lenses and Ray Diagrams — Flipping Physics
content

Lenses and Ray Diagrams — Flipping Physics

Flipping Physics15 min
Double-Slit Interference — AP Physics 2
advanced

Double-Slit Interference — AP Physics 2

Khan Academy10 min
☢️
UNIT 710–15%

Quantum, Atomic, and Nuclear Physics

Expand ›

Key Topics

  • Photoelectric effect: photon energy E = hf, work function, threshold frequency
  • Wave-particle duality and de Broglie wavelength: λ = h/p
  • Atomic energy levels: electron transitions, emission and absorption spectra
  • Nuclear structure: protons, neutrons, mass number, atomic number
  • Nuclear reactions: fusion, fission, radioactive decay (alpha, beta, gamma)
  • Mass-energy equivalence: E = mc²

Key Terms

photon
quantum of light energy; E = hf = hc/λ
photoelectric effect
emission of electrons from metal surface when light above threshold frequency strikes it
work function
minimum energy needed to free an electron from a metal surface
energy level
quantized energy state available to electrons in an atom
emission spectrum
specific frequencies of light emitted when electrons drop to lower energy levels
nuclear fission
splitting of heavy nucleus into smaller nuclei, releasing energy
nuclear fusion
combining of light nuclei to form heavier nucleus, releasing energy
radioactive decay
spontaneous transformation of unstable nucleus emitting alpha, beta, or gamma radiation
mass-energy equivalence
E = mc²; mass can be converted to energy and vice versa
de Broglie wavelength
λ = h/p; wave behavior associated with a moving particle
FRQ Practice Prompt

FRQ practice: Light of frequency 8.0 × 10¹⁴ Hz strikes a metal with a work function of 2.0 eV. (a) Calculate the energy of one photon in eV. (b) Find the maximum kinetic energy of the emitted electrons. (c) Explain why increasing the intensity of light (same frequency) does NOT increase the kinetic energy of the emitted electrons.

Practice with Dr. Marco →

Curated Video Lessons

Photoelectric Effect — Khan Academy
content

Photoelectric Effect — Khan Academy

Khan Academy12 min
Atomic Energy Levels — Flipping Physics
content

Atomic Energy Levels — Flipping Physics

Flipping Physics11 min
Nuclear Physics — AP Physics 2
review

Nuclear Physics — AP Physics 2

Khan Academy10 min
50% of Total Score

FRQ Mastery Suite

AP Physics 2's FRQ section rewards written reasoning — every equation must be accompanied by a sentence explaining the physics. That's how the exam is won.

FRQ Coach →
🧪~18%
Section II · FRQ 1

Experimental Design / Lab FRQ

Long FRQ · Experiment · 90 min (shared)

Design a controlled experiment using physics equipment, OR analyze existing experimental data. Requires a labeled apparatus diagram, measurement procedure, identification of variables, and error analysis.

Scoring Criteria
· Apparatus diagram: clearly labeled with all key components
· Procedure: identifies what is measured, how it is measured, and what is varied
· Variables: independent, dependent, and controlled variables explicitly named
· Error analysis: identifies a specific source of error AND explains the direction of its effect
Score 5 Strategy
Always draw and label your apparatus diagram — partial credit is awarded just for the sketch
Name your independent variable (what you change) and dependent variable (what you measure) explicitly
For error analysis, don't just say 'human error' — name the specific error and whether it causes results to be too high or too low
Connect your procedure to the physics principle being tested: state which equation you will use to analyze results
Mention repeated trials and averaging — this shows experimental rigor and earns procedure points
Model Opener

To test [physics principle], I would [vary the independent variable] while measuring [dependent variable] and holding [controlled variables] constant. The apparatus consists of [labeled components]. Data will be analyzed using [equation].

📐~15%
Section II · FRQ 2

Quantitative / Qualitative FRQ

Long FRQ · Mixed Reasoning · 90 min (shared)

Solve a multi-part problem that combines algebraic calculation with conceptual explanation. Graders award points separately for correct physics reasoning AND correct mathematics — you can earn partial credit even with arithmetic errors.

Scoring Criteria
· Physics setup: correct equation or principle identified for each part
· Algebra: correct algebraic manipulation shown (not just final answer)
· Conceptual explanation: reasoning stated in words, not just equations
· Consistency: later parts use results from earlier parts correctly
Score 5 Strategy
Write the physics equation first, then substitute values — graders award setup points before the answer
Show every algebraic step; do NOT skip steps even if they feel obvious
If you get a wrong numerical answer in part (a), clearly carry it forward to part (b) for 'error carried forward' credit
Every numerical answer needs units — a number without units is worth zero points on AP exams
After your calculation, add one sentence explaining what the result means physically
Model Opener

Using [physics principle/equation], and substituting the given values: [equation with substitution]. Solving for [unknown]: [algebraic steps]. This result means [physical interpretation].

💡~8–10%
Section II · FRQs 3–4

Conceptual Short FRQ

Short FRQ · Reasoning · 90 min (shared)

Explain a physical phenomenon, predict what will happen if conditions change, or justify a claim using a physics principle. Answers are typically 1–3 sentences. Graders look for specific keywords and correct causal reasoning.

Scoring Criteria
· Physics principle: correct law or concept identified by name
· Causal chain: clear reasoning from cause to effect
· Direction: prediction is directional (increases/decreases, not just 'changes')
· Vocabulary: uses AP Physics 2 terminology precisely
Score 5 Strategy
Start every explanation by naming the physics principle: 'By Faraday's law...' or 'Because Bernoulli's equation states...'
Give a directional prediction — 'pressure decreases' not 'pressure changes'
Connect your reasoning in a causal chain: 'Because X increases, Y must decrease, therefore Z happens'
Avoid vague language like 'the electrons move faster' — say 'the drift velocity of electrons increases because the electric field strength increases'
Model Opener

By [named physics principle], [variable A] increases/decreases because [causal mechanism]. Therefore, [predicted outcome], which [explains/contradicts] the observed result.

✍️~7–9%
Section II · FRQs 3–4

Paragraph-Length Response FRQ

Short FRQ · Argument · 90 min (shared)

Write a coherent paragraph (4–8 sentences) arguing for or against a physics claim, explaining a scenario, or comparing two physical situations. This FRQ type explicitly rewards organized, logical reasoning written in complete sentences.

Scoring Criteria
· Claim: a clear, defensible physics claim stated upfront
· Evidence: cites a relevant equation, law, or observed phenomenon
· Reasoning: explains the connection between evidence and claim
· Counter or comparison: addresses a contrasting situation or alternative explanation
Score 5 Strategy
Open with a direct claim statement — don't bury your answer in the middle of the paragraph
Cite at least one equation or named law as your evidence — this anchors your argument
Use 'because' and 'therefore' to build explicit causal chains between your sentences
End with a sentence that addresses the specific question asked — don't leave the reader to infer
Avoid restating the question — start directly with your physics reasoning
Model Opener

The [phenomenon/system] behaves [in this way] because [named physics principle]. Specifically, [equation or observation] shows that [causal relationship]. Therefore, [conclusion that directly answers the prompt].

Dr. Marco's Expert Advice

Score 5 Expert Tips

⚡

Master the Equation Sheet — Don't Memorize, Understand

AP Physics 2 provides the equation sheet on exam day. The skill isn't memorizing equations — it's knowing which equation applies to which situation and how to rearrange it. Practice identifying the 2–3 equations relevant to each scenario before solving.

🧪

Draw Every Diagram Before Writing Any Equation

For circuits, optics, and field problems: sketch the setup, label all known quantities, and draw force/field vectors before writing a single equation. Students who draw diagrams first consistently score higher because the diagram reveals what equation to use.

📝

Write Physics Words Before Physics Numbers

The AP Physics 2 FRQ rubric awards points for identifying the correct principle by name. Write 'By Bernoulli's equation, as area decreases, velocity increases, so pressure decreases' — not just P₁ + ½ρv₁² = P₂ + ½ρv₂². The words earn the points.

🔁

Practice Multi-Step Unit 3–4 Problems Relentlessly

Electric force, field, potential, and circuits together make up ~35–40% of the exam. These units build on each other: E-field → potential → circuits. Practice connecting them: a charge's potential energy depends on V, which depends on E, which depends on the source charge configuration.

🔍

Treat the Exam as an Open-Book Reasoning Test

Because the equation sheet is provided, the exam rewards reasoning, not recall. When stuck, start from a fundamental principle (conservation of energy, Newton's laws, charge conservation) and derive your way to the answer. Every AP Physics 2 problem can be solved from first principles.

🎯

Target the Low-Hanging Fruit in Section II First

In the FRQ section, answer the parts you know confidently first, then return to harder parts. Partial credit is generous — a student who earns 3/4 on six parts beats a student who earns 4/4 on three parts. Never leave a part blank; write a physics principle even if you can't solve it fully.

Curated for Score 5

Practice Tests & Resources

🏛
OFFICIALFREE

CollegeBoard AP Physics 2

Official CED, unit guides, sample FRQs with scoring guidelines, and AP Classroom practice.

Open resource
📂
OFFICIALFREE

Past AP Physics 2 FRQs (2015–2024)

Every past FRQ with full scoring guidelines. Essential for understanding exactly how rubrics award points.

Open resource
🎥
HIGHLY RECOMMENDEDFREE

Flipping Physics (Billy)

The #1 AP Physics 2 YouTube channel. Clear, humor-driven explanations for every unit. Covers all 7 units with worked examples.

Open resource
🎯
FREE PRACTICEFREE

Khan Academy AP Physics 2

Comprehensive free practice questions organized by AP Physics 2 unit. Excellent for building concept fluency.

Open resource
📚
COMPREHENSIVEFREE

Fiveable AP Physics 2

Complete course review, unit summaries, FRQ practice with feedback, and live cram sessions before the exam.

Open resource
📋
ESSENTIAL TOOLFREE

AP Physics 2 Equation Sheet

The official College Board equation sheet provided on exam day. Study every equation on this sheet — know what each variable means.

Open resource
📝
PRACTICE MCQ

Albert.io AP Physics 2

High-quality AP-style multiple choice practice. Excellent for the conceptual reasoning required in Section I.

Open resource
AI-Powered Progress

16-Week Score 5 Study Plan

Weeks 1–3

Phase 1: Foundation — Fluids and Thermodynamics

  • Master fluid statics: pressure, buoyancy, Archimedes' principle with worked problems
  • Study Bernoulli's equation with real applications (airplane wings, Venturi tubes)
  • Thermal equilibrium and ideal gas law: drill PV=nRT problems until automatic
  • FRQ practice: one short FRQ on fluids per week (timed: 12 min)
Weeks 4–7

Phase 2: Electricity — Force, Field, Potential, and Circuits

  • Build electric force → E-field → electric potential as a connected concept chain
  • Draw field line diagrams for every charge configuration until intuitive
  • Master circuit analysis: Ohm's law, series/parallel, Kirchhoff's laws, capacitors
  • FRQ practice: one quantitative circuit FRQ per week with full written reasoning
Weeks 8–10

Phase 3: Magnetism, Optics, and Quantum Physics

  • Magnetism: right-hand rule drills, force on charges and wires, Faraday's and Lenz's laws
  • Optics: ray diagrams for all lens and mirror types until mastered without a template
  • Quantum: photoelectric effect worked problems, energy levels, nuclear equations
  • Connect optics wave behavior (diffraction/interference) to quantum particle-wave duality
Weeks 11–16

Phase 4: Full Exam Simulation and FRQ Mastery

  • One full timed practice exam per week (90 min MC + 90 min FRQ)
  • Write every FRQ with complete sentences — grade against official rubrics
  • Review every wrong MC answer with Dr. Marco (SofAI chat)
  • Final review: connect all 7 units through energy and force themes
Official & Curated

AP Resources Hub

🏛
Official Source

CollegeBoard AP Physics 2

Official course description, exam format, sample FRQs with scoring guidelines, and AP Classroom access.

Visit AP Central →
📚
The VR School

VRS AP Resources Center

All VR School AP course resources, study guides, and score submission guidance.

Open AP Resources →
⭐
Student Exemplar

AP Seminar Exemplar by Jiang

See the standard every VRS student aspires to — and the path to getting there.

View Exemplar →
Agentic AI Tutoring

Your Score 5 AI Tutors

Dr. Marco Rossi is your AP Physics 2 expert — every FRQ type, every scoring rubric, every concept from Bernoulli to quantum. SofAIconnects Physics to every other subject you're studying.

🌊 Walk me through how to solve a Bernoulli's equation FRQ step by step⚡ Help me draw electric field lines for a positive and negative charge pair🔌 I always confuse series and parallel circuits — give me a clear explanation☢️ Give me a timed short FRQ on the photoelectric effect and grade my answer
🌟 Next Level

Your Physics Skills Are an Academic Superpower — Use Them in AP Seminar

AP Physics 2 builds exactly the skills AP Seminar demands: evidence-based argumentation, quantitative reasoning, and experimental analysis. See how Jiang combined these disciplines to build an outstanding portfolio recognized at the national level.

View AP Seminar ExemplarExplore AP Seminar →
🎓
⚛️

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