While there is a "third edition" of this second book from 1997, it is by Johnny C. Tan. Additionally, a Circuit Analysis (Second Edition) published in 2021 by a different author and publisher (World Scientific) exists, but it is also not related to Johnny C. Tan.

Electric Circuit Analysis is a dense subject, but the right approach can make it manageable. Instead of just reading the chapters, try this active learning strategy:

| Concept | Formula | Description | | :--- | :--- | :--- | | | V = I * R | The cornerstone of electrical engineering; defines the relationship between voltage, current, and resistance. | | Kirchhoff's Voltage Law | ΣV = 0 | The sum of all voltages in any closed loop of a circuit equals zero. | | Kirchhoff's Current Law | ΣI_in = ΣI_out | The sum of currents entering a node equals the sum of currents leaving it. | | Power | P = V * I = I² * R = V² / R | The rate at which a circuit consumes or delivers energy. | | Capacitance (Current-Voltage Relationship) | i_C = C * (dv_C / dt) | For a capacitor, current is proportional to the rate of change of voltage. | | Inductance (Current-Voltage Relationship) | v_L = L * (di_L / dt) | For an inductor, voltage is proportional to the rate of change of current. |

Simply downloading the Electric Circuit Analysis PDF will not help you pass your exams. You need a strategy. Here is a 4-week plan based on Tan’s structure:

: Introduction to SPICE simulations and Laplace transforms for solving higher-order differential equations in circuits. 4. Practical Availability