
Learn the classifications of sources in circuit analysis, including independent and dependent voltage and current sources, with dc and ac types and their symbols.
Discover how circuit elements are defined by VI characteristics, classify them as active or passive, bilateral or unilateral, lumped or distributed, with examples like resistors, capacitors, inductors, diodes, and sources.
Analyze the VI characteristics to distinguish bilateral and unilateral elements by comparing opposite quadrants, using mirroring across the y- and x-axes to test similarity.
Identify active and passive elements by analyzing VI characteristics and absorbed power, using the sign of P absorbed and the V/I ratio to distinguish active versus passive.
Explore resistor fundamentals, including how resistance limits current, Ohm's law, V = IR, passive sign convention, and power dissipation, with short and open circuits.
Identify branches as circuit elements, and nodes as connection points where multiple elements meet. Distinguish paths from loops and apply ohm's law, kcl, and kvl to solve circuits.
Explore basic circuit analysis using KVL, KCL, and Ohm's law through worked examples that calculate currents and voltages in resistors, including dependent sources and passive sign conventions.
Explore how resistors in series share the same current, form an equivalent resistance equal to the sum, and use voltage division to distribute the source voltage.
Master parallel resistances using the current division rule and the condition that parallel elements share the same voltage. Compute individual currents and the equivalent resistance by summing inverse resistances.
Learn to transform practical voltage and current sources with series or parallel resistances to simplify circuits, noting idle sources are not transformable and dependent sources are also applicable.
Explore advanced source transformations for voltage and current sources, apply KVL and KCL to determine equivalent sources, and learn when in-parallel or in-series simplifications are valid or invalid.
Convert delta to star or star to delta to simplify circuits. Apply pi or T formulas to compute RA, RB, RC (or R1, R2, R3) between X, Y, Z.
Solve a 20-volt circuit using KVL, KCL, and Ohm's law to find I1, I2, I3 and V1, V2, V3 in a network with 8, 6, and 3 ohms.
Learn to simplify resistor networks to a single equivalent resistance using series-parallel reductions and delta-star conversions.
Explore using equivalent resistance and current division to solve circuits, simplify with series-parallel and star-delta conversions, and apply KVL to find currents and power.
Demonstrates solving circuits with kcl, kvl, and ohm's law to find currents i1, i2, i3 and voltages, paving the way for nodal and mesh analyses.
Master LTSpice on Windows in a 45+ minute module as part of the circuit analysis complete course.
1. This Course is for students having background in Electronics and Telecommunication or any relevant stream.
2. This Course is also called as Network Analysis.
3. If you have any experience in any Circuit Design Course prior to this then you can have a look.
4. The Prerequisites required are not required as such.
5. This is a Theoretical and Analytical Course with few simulation in LTSpice included.
6. This Course is exclusively made from beginners point of view.
7. If you want to learn building Circuits design sense and logic.
8. Solutions of each problem will be in dealt in detail.
8. You will be able to learn different topics with this course like first order and second order circuits having RLC components, Graph theory, Two port networks.
9. You will be able to handle basic problems in Circuit theory after finishing this Course.
Circuit theory is one of the most important subject in context of circuit designs and analysis – You can get a Job in Analog VLSI and Digital VLSI domains after learning this basic course.
Q:- Will the course teach me Analog Electronics?
A:- No, This topic is dealt in separate course called Analog Electronics, and this requires separate attention all together.
With over 8+ Years of experience and a 4.0+ Instructor Rating in Udemy, I am coming up with core electronics course of more than 64+ Hours of theory and problem solving along with simulations called Circuit Analysis - Complete Course (64+ Hours).
The curriculum was developed over a period of 1 year.
If sounds good then join me on this wonderful course.