
Learn how electrical current flows from voltage, and how series and parallel circuits use resistors and fuses, with meters measuring current in amps to power lamps.
Learn the standard symbols for basic circuit components, from batteries, switches, and resistors to diodes, transistors, and logic gates, and identify them in diagrams and simple breadboard circuits.
Explore the fundamentals of dc circuits by applying ohm's law to analyze voltage, current, and resistance in basic circuits, enabling practical dc circuit analysis skills.
Explore fixed resistors in circuits, their color codes and symbols, and how they set current with Ohm’s law. Learn series and parallel use, SMD and integrated resistors, and LED examples.
Explore dependent resistors, including light-dependent resistors, negative and positive temperature coefficient thermistors, and voltage dependent resistors, with real circuits showing how light, temperature, and voltage alter resistance and circuit behavior.
Explore an animated NTC circuit to illustrate basic DC circuit analysis concepts with a clear, visual demonstration.
Explore the flip-flop circuit through an engaging animation that illustrates its operation within basic dc circuit analysis.
Apply Kirchhoff's current law to circuits by equating the sum of currents at a node to the sum of outgoing currents, determining the mains current and parallel-resistor behavior.
In this lesson, I explained Thevenin's Theorem, one of the circuit analysis methods. We will learn how to do circuit analysis with this theorem through examples. As you can see here, transforming a circuit into a voltage source and a resistor in series with it is known as Thevenin's Theorem. So let's try to learn how to convert a circuit into VTH thevenin voltage and RTH Thevenin equivalent resistance format.
In this lesson, I explained Norton's Theorem, one of the circuit analysis methods. We will learn how to analyze the circuit with this theorem through examples. As you can see here, transforming a circuit into a current source and a resistor parallel to it is known as Norton's Theorem. So let's try to learn how to convert a circuit into IN Norton current and RN Norton equivalent resistance format.
Learn the structure and use of a breadboard to test circuits without soldering, connect components with jumper cables, and explore series and parallel resistor configurations while avoiding common mistakes.
In order to have a profession and specialize in the field of Electricity and Electronics, first of all you need to learn the basics of this field. Nowadays, in the fields of automotive, machinery, mechatronics and computers, electrical and electronics are indispensable elements. This course is also designed to meet and contribute to this need.
Most importantly, no special hardware or software is required. This is an introductory course about the theory of DC Circuit Analysis, so no previous knowledge is required. To get the best out of the lessons, students should be comfortable with some basic arithmetic as I will often write and solve equations, in particular when analyzing simple circuits. Understanding a bit of physics can help too, but it is not required. Electronic circuits are everywhere, from computers and smartphones, to home appliances and cars. Think of all the everyday objects that are becoming smart in the future, most of the things that we own will contain some electronics. Jobs in electronics are in high demand and well paid in almost every country!
In the Basic DC Circuit Analysis course, you will find a lot of lessons about basic concepts, direct current and alternating current principles, circuit analysis, working logic of passive circuit elements made of passive circuit devices and use of measuring instruments.