Electric Circuits for Electrical Engineering
Electric Circuits for Electrical Engineering
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Description
The Electric Circuits for Electrical Engineering course teaches you everything on the topic thoroughly from scratch so you can achieve a professional certificate for free to showcase your achievement in professional life. This Electric Circuits for Electrical Engineering training is a comprehensive, instructor-guided course, designed to provide a detailed understanding of the nature of the related sector and your key roles within it.
To become successful in your profession, you must have a specific set of skills to succeed in today’s competitive world. In this in-depth training course, you will develop the most in-demand skills to kickstart your career, as well as upgrade your existing knowledge & skills.
Sneak Peek
Who Should Take the Course
Anyone with a knack for learning new skills can take this Electric Circuits for Electrical Engineering
Certification
Once you’ve successfully completed your course, you will immediately be sent a digital certificate.
Accreditation
All of our courses, including this Electric Circuits for Electrical Engineering, are fully accredited.
Course Curriculum
This section provides an in-depth breakdown of the course structure, topics covered, and what students can expect from each module.
- Module 1- What Is an Electric Circuit
- Module 2-System of Units
- Module 3- What Is an Electric Charge
- Module 4- What Is an Electric Current
- Module 5-Example 1
- Module 6- Example 2
- Module 7- Example 3
- Module 8- What Is Voltage
- Module 9- What Is Power
- Module 10- What Is Energy
- Module 11- Example 4
- Module 12- Example 5
- Module 13- Dependent and Independent Sources
- Module 14- Example 6 Part 1
- Module 15- Example 6 Part 2
- Module 16- Application 1 Cathode Ray Tube
- Module 17-Example 7
- Module 18- Application 2 Electricity Bills
- Module 19- Example 8
- Module 1- Introduction to Basic Laws
- Module 2- Definition of Resistance
- Module 3- Ohm’s Law
- Module 4- Types of Resistances
- Module 5- Open and Short Circuit
- Module 6- Definition of Conductance
- Module 7- Example 1
- Module 8- Example 2
- Module 9-Example 3
- Module 10- Branch, Node and Loops
- Module 11- Series and Parallel Connection
- Module 12- KCL
- Module 13- KVL
- Module 14- Example 4
- Module 15- Example 5
- Module 16- Example 6
- Module 17- Series Resistors and Voltage Division
- Module 18-Parallel Resistors and Current Division
- Module 19- Analogy between Resistance and Conductance
- Module 20-Example 7
- Module 21-Example 8
- Module 22- Introduction to Delta-Wye Connection
- Module 23-Delta to Wye Transformation
- Module 24- Wye to Delta Transformation
- Module 25-Example 9
- Module26- Example 10
- Module 27- Application Lighting Bulbs
- Module 28-Example 11
- Module 1- Introduction to Methods of Analysis
- Module 2- Nodal Analysis with No Voltage Source
- Module 3-Example 1
- Module 4-Cramer’s Method
- Module 5-Nodal Analysis with Voltage Source
- Module 6- Example 2
- Module 7- Example 3
- Module 8-Mesh Analysis with No Current Source
- Module 9-Example 4
- Module 10- Example 5
- Module 11-Mesh Analysis with Current Source
- Module 12-Example 6
- Module 13-Nodal Vs Mesh Analysis
- Module 14-Application DC Transistor
- Module 15-Example 7
- Module 1-Introduction to Circuit theorems
- Module 2-Linearity of Circuit
- Module 3- Example 1
- Module 4-Superposition Theorem
- Module 5- Example 2
- Module 6-Example 3
- Module 7-Source Transformation
- Module 8-Example 4
- Module 9-Example 5
- Module 10-Thevenin Theorem
- Module 11-Example 6
- Module 12-Example 7
- Module 13- Norton’s Theorem
- Module 14-Example 8
- Module 15-Example 9
- Module 16-Maximum Power Transfer
- Module 17-Example 10
- Module 18-Resistance Measurement
- Module 19-Example 11
- Module 20-Example 12
- Module 21-Summary
- Module 1-Introduction to Operational Amplifiers
- Module 2-Construction of Operational Amplifiers
- Module 3-Equivalent Circuit of non Ideal Op Amp
- Module 4-Vo Vs Vd Relation Curve
- Module 5-Example 1
- Module 6-Ideal Op Amp
- Module 7- Example 2
- Module 8-Inverting Amplifier
- Module 9-Example 3
- Module 10-Example 4
- Module 11-Non Inverting Amplifier
- Module 12-Example 5
- Module 13-Summing Amplifier
- Module 14-Example 6
- Module 15-Difference amplifier
- Module 16-Example 7
- Module 17-Cascaded Op Amp Circuits
- Module 18-Example 8
- Module 19-Application Digital to Analog Converter
- Module 20-Example 9
- Module 21-Instrumentation Amplifiers
- Module 22-Example 10
- Module 23-Summary
- Module 1-Introduction to Capacitors and Inductors
- Module 2-Capacitor
- Module 3-Capacitance
- Module 4-Voltage-Current Relation in Capacitor
- Module 5-Energy Stored in Capacitor
- Module 6-DC Voltage and Practical Capacitor
- Module 7- Example 1
- Module 8- Example 2
- Module 9- Example 3
- Module 10-Equivalent Capacitance of Parallel Capacitors
- Module 11-Equivalent Capacitance of Series Capacitors
- Module 12-Example 4
- Module 13-Definition of Inductors
- Module 14-Definition of Inductance
- Module 15-Voltage-Current Relation in Inductor
- Module 16-Power and Energy Stored in Inductor
- Module 17-DC Source and Inductor
- Module 18-Example 5
- Module 19-Series Inductors
- Module 20-Parallel Inductors
- Module 21-Example 6
- Module 22-Small Summary to 3 Basic Elements
- Module 23-Example 7
- Module 24-Application Integrator
- Module 25-Example 8
- Module 26-Application Differentiator
- Module 27-Example 9
- Module 28-Summary
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