AP Physics C: Electricity and Magnetism
Master Calculus-Based Electromagnetism
AP Physics C: Electricity and Magnetism is a calculus-based, college-level course that follows Physics C: Mechanics. It explores electrostatics, conductors, capacitors, dielectrics, electric circuits, magnetic fields, and electromagnetism using advanced mathematical modeling.
Academic Level
College-Level
Subject Area
Science
Course Rigor
Advanced
Governed By
College Board
Course Overview
What You Will Learn in This Course
Students learn to use differential and integral calculus to analyze electric and magnetic phenomena. The course prepares students for university-level electrical engineering and advanced physics by exploring electrostatics, circuits, and electromagnetism. Participants apply Maxwell’s equations and Gauss’s Law to model complex fields and potential distributions. The curriculum focuses on the mathematical relationships between charge, current, and magnetic flux. Students master the behavior of capacitors, resistors, and inductors in transient and steady-state circuits. By using calculus to derive physical principles, they develop the theoretical depth required for innovative work in technology and research. This specialized course follows Mechanics and is essential for any student aspiring to understand the fundamental forces that power modern electronic systems and communications.
Course Overview
Why Choose This AP Course
This course is the gold standard for aspiring electrical engineers and physicists, providing a deep theoretical understanding of the forces that power modern technology. By mastering the calculus of electricity and magnetism, students learn to navigate the invisible fields that define our digital world. This course goes beyond simple circuit building to explore the fundamental Maxwell’s equations that serve as the bedrock of modern physics. Participants develop the mathematical maturity required to solve problems related to field theory and electromagnetic induction. These skills are highly sought after in industries ranging from telecommunications to renewable energy and aerospace. The course provides a significant head start for university-level coursework, where these concepts are explored in even greater depth. It is an ideal choice for students who are fascinated by the intersection of advanced mathematics and physical reality. It prepares the next generation of innovators for the technical demands of a high-tech career.
Critical Thinking
Technical Skills
Problem Solving
Academic Growth
Colaboration
Career Readiness
Prerequisites
Vector Analysis
Comfort with vector components and cross-products is essential
Required
Physics C: Mechanics
Strong foundation in classical mechanics is necessary for success
Required
Analytical Thinking
Ability to visualize abstract fields and flux in three dimensions
Required
Calculus Proficiency
Completion or concurrent enrollment in AP Calculus BC is highly recommended
Required
Key Learning Outcomes
Build skills in applying Maxwell’s equations
Analyze magnetic fields and Ampere’s Law
Evaluate Faraday’s Law and induction
Prepare for advanced electrical engineering coursework
Develop proficiency in Gauss’s Law and electric flux
Master RC, RL, and LC circuit behavior
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Course Framework
Structure & Assessment
Unit 1–5 covering electrostatics, circuits, and electromagnetism
1
Multiple-choice questions testing theoretical and mathematical applications
2
Free-response questions requiring complex calculus derivations
3
Emphasis on field theory and the mathematical relationships in circuits
4
Duration
Half academic year (90+ hours)
Scoring
Scale of 1–5 (3+ generally considered passing)
Grading Basis
Combination of multiple-choice and free-response mathematical sections
Strategies for Success
Syllabus
You'll explore how electric charge can move through an object and the factors that affect the way charge moves.
Unit 10
Conductors and Capacitors
You'll build on your knowledge of electrical components to investigate the nature of electric circuits and explore current, resistance, and power.
Unit 11
Electric Circuits
You'll begin your exploration of magnetism by learning how magnetic fields are generated, how they behave, and how they relate to electricity.
Unit 12
Magnetic Fields and Electromagnetism
You'll build on what you've learned about charges, currents, and electric and magnetic fields to explore electromagnetic forces and their properties.
Unit 13
Electromagnetic Induction
You'll begin your study of the electric force with an exploration of electric charges.
Unit 8
Electric Charges, Fields, and Gauss’s Law
You'll continue your study by analyzing forms of energy that occur when electric charges interact.
Unit 9
Electric Potential
Strategies for Success
Study & Success Tips
Build skills in applying Maxwell’s equations
Tip 4
Analyze magnetic fields and Ampere’s Law
Tip 3
Master RC, RL, and LC circuit behavior
Tip 2
Develop proficiency in Gauss’s Law and electric flux
Tip 1
Prepare for advanced electrical engineering coursework
Tip 6
Evaluate Faraday’s Law and induction
Tip 5
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