PH1106: Electricity & Magnetism

Foundation in electricity, magnetism, and electrical circuits.

Course Description

This course develops a coherent foundation in electricity, magnetism, and electrical circuits, guiding students from fundamental principles to dynamic and oscillatory phenomena. Beginning with electrostatics, students explore Coulomb’s law, electric fields and potential, and Gauss’ law, before connecting these ideas to the microscopic model of electrical conduction, current flow, material conductivity, resistance, and capacitive energy storage.


The course then extends to magnetism, introducing magnetic fields through Biot–Savart’s and Ampere’s laws, the behavior of solenoids, the Lorentz force, the Hall effect, and electromagnetic induction via Faraday’s and Lenz’s laws, leading naturally to inductance and energy in magnetic systems.


Building on these concepts, the electrical circuits component develops practical and analytical understanding of voltage, current, resistance, and power, followed by systematic analysis using Kirchhoff’s laws. Students investigate time-dependent behavior in RC circuits, oscillatory dynamics in LC circuits, and resonance phenomena in RLC circuits, including phase relationships and energy transfer.


Through structured problem solving and conceptual reasoning, students cultivate strong physical intuition, mathematical modeling skills, and the ability to connect theory with real-world electrical and electromagnetic systems encountered in science and engineering.

Course Content

Electric Fields (EF):


Magnetic Fields (MF):


Electrical Circuits (EC):


Reading and References

University Physics with Modern Physics, 15th Edition
Hugh Young and Roger Freedman, Pearson (2021).
ISBN-13: 978-9353949297