Course Description
This course explores the fundamental principles that govern the natural world. From the motion of planets to the behavior of subatomic particles, you will learn how to analyze the universe using mathematical models. By mastering force, energy, momentum, and field theories, you will develop the critical problem-solving skills needed to explain why objects move and how energy interacts.
Core Topics
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Kinematics and Dynamics: Analyzing motion in one and two dimensions, Newton’s Laws of Motion, and the mechanics of forces like friction, gravity, and tension.
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Work, Energy, and Momentum: The Conservation of Energy, kinetic and potential systems, linear and angular momentum, and collisions.
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Rotational Motion and Oscillations: Torque, rotational inertia, simple harmonic motion (pendulums and springs), and mechanical wave behavior.
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Electrostatics and Electric Circuits: Coulomb’s Law, electric fields, electric potential, capacitance, and analyzing direct-current (DC) circuits using Ohm’s and Kirchhoff’s laws.
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Magnetism and Electromagnetism: Magnetic fields, forces on moving charges, electromagnetic induction, Faraday’s Law, and Lenz’s Law.
FAQ
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How much math is required for this course? A strong foundation in algebra and trigonometry is essential. Depending on whether you take a college-physics or university-physics track, a working knowledge of introductory calculus (derivatives and basic integrals) may also be required.
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What is the most common pitfall for students? Trying to memorize specific formulas rather than understanding the underlying concepts. Physics requires you to analyze a unique scenario and build a mathematical model from core principles, not just “plug and chug” numbers.
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How does this course relate to engineering? This course is the foundation of engineering. Statics, dynamics, civil engineering, mechanical engineering, and electrical design all directly expand upon the mechanics and electromagnetism taught here.
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