Aims and Fit of Module

This module aims to equip students with the ability to relate the electric circuit behavior to the principles of physics, to possess basic circuit analytical skills and approaches in analyzing and solving steady-state and transient DC and AC circuits, and to interpret electric circuits in time-, frequency-, and s-domains.

Learning outcomes

A. Apply fundamental laws and theorems to solve complex multi-loop and multi-node linear circuits.
B. Model and predict the behavior of DC and/or AC circuits under both steady-state and transient conditions.
C. Analyze and design active circuits involving operational amplifiers and switched circuits, in both source-free and/or driven conditions.
D. Transform and solve complex integro-differential equations using Laplace techniques to determine circuit response and system behavior.
E. Synthesize the selection of time-, frequency-, and/or s-domain analytical methods for typical circuit problems.

Method of teaching and learning

This module utilizes a blended learning approach to bridge theoretical foundations with modern engineering practice. Formal lectures establish the core theoretical framework for circuit theorems and analytical techniques across the time-, frequency-, and s-domains. Mix of teacher-centric and flipped tutorial sessions facilitate small-group engagement, encouraging students to participate in peer discussions to critique and justify their selection of analytical tools while fostering deeper conceptual mastery. In alignment with the University’s Education+AI strategy, the laboratory sessions provide hands-on exposure to physical circuits, instrumentation, SPICE simulation software, and AI-assisted circuit tasks, with a strong emphasis on physical verification.  Summative quizzes serve as the mid-semester checkpoints, providing essential feedback to students.