The 'Electrical Circuits Laws and Methods' course is designed to provide a comprehensive understanding of electric circuits, laws, and analytical methods. It covers fundamental concepts, basic laws, methods of analysis, circuit theorems, operational amplifiers, and capacitors and inductors. Students will learn essential principles to analyze and design electrical circuits effectively.
Learning Outcomes:
Understand the basic concepts of electric circuits, including electric charge, current, voltage, power, and energy.
Apply Ohm's Law and other basic laws to analyze resistive circuits and determine currents and voltages.
Use nodal and mesh analysis methods to analyze and solve complex electrical circuits with various sources.
Apply circuit theorems such as the Superposition Theorem, Thevenin's Theorem, and Norton's Theorem to simplify circuit analysis.
Comprehend the properties and applications of operational amplifiers in various amplifier configurations.
Analyze capacitors and inductors in DC circuits, calculate their stored energy, and understand their equivalent capacitance and inductance in series and parallel configurations.
Why buy this Electrical Circuits Laws and Methods?
Unlimited access to the course for a lifetime.
Opportunity to earn a certificate accredited by the CPD Quality Standards and CIQ after completing this course.
Structured lesson planning in line with industry standards.
Immerse yourself in innovative and captivating course materials and activities.
Assessments designed to evaluate advanced cognitive abilities and skill proficiency.
Flexibility to complete the Course at your own pace, on your own schedule.
Receive full tutor support throughout the week, from Monday to Friday, to enhance your learning experience.
Unlock career resources for CV improvement, interview readiness, and job success.
Certification
After studying the course materials of the Electrical Circuits Laws and Methods there will be a written assignment test which you can take either during or at the end of the course. After successfully passing the test you will be able to claim the pdf certificate for £5.99. Original Hard Copy certificates need to be ordered at an additional cost of £9.60.
Who is this course for?
The Electrical Circuits Laws and Methods course is designed for undergraduate and graduate electrical engineering students as a foundational study of circuit theory.
It is suitable for electronics enthusiasts eager to grasp the functioning and design of electrical circuits for various applications.
Engineering technicians and technologists working in fields like telecommunications and manufacturing can benefit from this course to better understand and troubleshoot electrical circuits in practical settings.
Electrical technicians and electricians can enhance their problem-solving abilities and theoretical knowledge of electrical circuits by taking this course.
Hobbyists and DIY enthusiasts interested in electronics projects will find value in learning circuit design and troubleshooting through this course.
Professionals in engineering and related fields can use this course for continuing education to refresh their knowledge and stay up-to-date with advancements in electrical circuit theory and methods.
Prerequisites
This Electrical Circuits Laws and Methods does not require you to have any prior qualifications or experience. You can just enrol and start learning.This Electrical Circuits Laws and Methods was made by professionals and it is compatible with all PC's, Mac's, tablets and smartphones. You will be able to access the course from anywhere at any time as long as you have a good enough internet connection.
Career path
Electrical Engineer: £28,000 - £70,000 per year
Electronics Engineer: £30,000 - £75,000 per year
Electrician: £24,000 - £45,000 per year
Power Systems Engineer: £32,000 - £80,000 per year
Telecommunications Engineer: £28,000 - £70,000 per year
Automation and Control Systems Engineer: £35,000 - £80,000 per year
Course Curriculum
Unit 1- Basic Concepts
Module 1- What Is an Electric Circuit 00:02:00
Module 2-System of Units 00:07:00
Module 3- What Is an Electric Charge 00:05:00
Module 4- What Is an Electric Current 00:08:00
Module 5-Example 1 00:01:00
Module 6- Example 2 00:02:00
Module 7- Example 3 00:02:00
Module 8- What Is Voltage 00:07:00
Module 9- What Is Power 00:06:00
Module 10- What Is Energy 00:04:00
Module 11- Example 4 00:03:00
Module 12-Example 5 00:03:00
Module 13- Dependent and Independent Sources 00:05:00
Module 14- Example 6 Part 1 00:04:00
Module 15- Example 6 Part 2 00:01:00
Module 16- Application 1 Cathode Ray Tube 00:04:00
Module 17-Example 10 00:03:00
Module 18- Application 2 Electricity Bills 00:02:00
Module 19- Example 8 00:03:00
Unit 2- Basic Laws
Module 1- Introduction to Basic Laws 00:01:00
Module 2- Definition of Resistance 00:06:00
Module 3- Ohm's Law 00:02:00
Module 4- Types of Resistances 00:06:00
Module 5- Open and Short Circuit 00:05:00
Module 6- Definition of Conductance 00:04:00
Module 7-Example 1 00:01:00
Module 8- Example 2 00:03:00
Module 9- Example 3 00:03:00
Module 10- Branch, Node and Loops 00:07:00
Module 11- Series and Parallel Connection 00:04:00
Module 12- KCL 00:04:00
Module 13- KVL 00:03:00
Module 14- Example 4 00:05:00
Module 15- Example 5 00:02:00
Module 16- Example 6 00:06:00
Module 17- Series Resistors and Voltage Division 00:07:00
Module 18-Parallel Resistors and Current Division 00:12:00
Module 19- Analogy between Resistance and Conductance 00:07:00
Module 20-Example 7 00:03:00
Module 21-Example 8 00:04:00
Module 22- Introduction to Delta-Wye Connection 00:06:00
Module 23-Delta to Wye Transformation 00:05:00
Module 24- Wye to Delta Transformation 00:07:00
Module 25-Example 9 00:03:00
Module 26- Example 10 00:15:00
Module 27- Application Lighting Bulbs 00:03:00
Module 28-Example 11 00:05:00
Unit 3- Methods of Analysis
Module 1- Introduction to Methods of Analysis 00:02:00
Module 2- Nodal Analysis with No Voltage Source 00:15:00
Module 3-Example 1 00:04:00
Module 4-Cramer's Method 00:04:00
Module 5-Nodal Analysis with Voltage Source 00:07:00
Module 6- Example 2 00:05:00
Module 7- Example 3 00:13:00
Module 8-Mesh Analysis with No Current Source 00:10:00
Module 9-Example 4 00:04:00
Module 10- Example 5 00:06:00
Module 11-Mesh Analysis with Current Source 00:07:00
Module 12-Example 6 00:08:00
Module 13-Nodal Vs Mesh Analysis 00:04:00
Module 14-Application DC Transistor 00:04:00
Module 15-Example 7 00:04:00
Unit 4- Circuit Theorems
Module 1-Introduction to Circuit theorems 00:02:00
Module 2-Linearity of Circuit 00:07:00
Module 3-Example 1 00:04:00
Module 4-Superposition Theorem 00:07:00
Module 5- Example 2 00:04:00
Module 6-Example 3 00:06:00
Module 7-Source Transformation 00:08:00
Module 8-Example 4 00:05:00
Module 9-Example 5 00:03:00
Module 10-Thevenin Theorem 00:10:00
Module 11-Example 6 00:06:00
Module 12-Example 7 00:05:00
Module 13- Norton's Theorem 00:05:00
Module 14-Example 8 00:03:00
Module 15-Example 9 00:05:00
Module 16-Maximum Power Transfer 00:05:00
Module 17-Example 10 00:03:00
Module 18-Resistance Measurement 00:05:00
Module 19-Example 11 00:01:00
Module 20-Example 12 00:04:00
Module 21-Summary 00:05:00
Unit 5- Operational Amplifiers
Module 1-Introduction to Operational Amplifiers 00:03:00
Module 2-Construction of Operational Amplifiers 00:07:00
Module 3-Equivalent Circuit of non Ideal Op Amp 00:10:00
Module 4-Vo Vs Vd Relation Curve 00:03:00
Module 5-Example 1 00:09:00
Module 6-Ideal Op Amp 00:07:00
Module 7- Example 2 00:04:00
Module 8-Inverting Amplifier 00:05:00
Module 9-Example 3 00:05:00
Module 10-Example 4 00:02:00
Module 11-Non Inverting Amplifier 00:08:00
Module 12-Example 5 00:03:00
Module 13-Summing Amplifier 00:05:00
Module 14-Example 6 00:02:00
Module 15-Difference amplifier 00:06:00
Module 16-Example 7 00:08:00
Module 17-Cascaded Op Amp Circuits 00:06:00
Module 18-Example 8 00:04:00
Module 19-Application Digital to Analog Converter 00:06:00
Module 20-Example 9 00:04:00
Module 21-Instrumentation Amplifiers 00:05:00
Module 22-Example 10 00:01:00
Module 23-Summary 00:04:00
Unit 6- Capacitors and Inductors
Module 1-Introduction to Capacitors and Inductors 00:02:00
Module 2-Capacitor 00:06:00
Module 3-Capacitance 00:02:00
Module 4-Voltage-Current Relation in Capacitor 00:03:00
Module 5-Energy Stored in Capacitor 00:06:00
Module 6-DC Voltage and Practical Capacitor 00:02:00
Module 7-Example 1 00:01:00
Module 8-Example 2 00:01:00
Module 9-Example 3 00:05:00
Module 10-Equivalent Capacitance of Parallel Capacitors 00:02:00
Module 11-Equivalent Capacitance of Series Capacitors 00:03:00
Module 12-Example 4 00:02:00
Module 13-Definition of Inductors 00:06:00
Module 14-Definition of Inductance 00:03:00
Module 15-Voltage-Current Relation in Inductor 00:03:00
Module 16-Power and Energy Stored in Inductor 00:02:00
Module 17-DC Source and Inductor 00:04:00
Module 18-Example 5 00:02:00
Module 19-Series Inductors 00:03:00
Module 20-Parallel Inductors 00:04:00
Module 21-Example 6 00:01:00
Module 22-Small Summary to 3 Basic Elements 00:02:00
Module 23-Example 7 00:05:00
Module 24-Application Integrator 00:05:00
Module 25-Example 8 00:03:00
Module 26-Application Differentiator 00:02:00
Module 27-Example 9 00:06:00
Module 28-Summary 00:05:00
Assignment
Assignment - Electrical Circuits Laws and Methods 00:00:00