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Electromagnetics EE Books, Notes & Tests 2027
217 students learning this week  ·  Last updated on Apr 30, 2026
PARTNER COURSE

Electromagnetics EE Books, Notes & Tests 2027

217 students learning this week  ·  Last updated on Apr 30, 2026
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EduRev's Electromagnetics Course for Engineering Mathematics is a comprehensive course that focuses on the study of electromagnetic fields and their a ... view more pplication in engineering. This course covers topics such as electric and magnetic fields, electromagnetic waves, transmission lines, and antennas. With a strong emphasis on problem-solving, this course is designed to help engineering students develop a deep understanding of electromagnetics and its practical applications. By the end of this course, students will have a solid foundation in electromagnetics and be well-prepared for advanced study in this field.

Electromagnetics EE Books, Notes & Tests Study Material

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Electromagnetics (Video Lectures)
136 Videos  | 8 Topics

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Electromagnetics (Video Lectures) for Electrical Engineering (EE) Exam Pattern 2026-2027

Electromagnetics Exam Pattern for Engineering Mathematics

Electromagnetics is a branch of physics that deals with the study of electromagnetic fields, which include electric fields, magnetic fields, and light. In engineering mathematics, electromagnetics is an important subject that is studied in depth.

If you are preparing for an electromagnetics exam, it is important to understand the exam pattern. Here are the key points that you need to keep in mind:

Exam Format: The exam format for electromagnetics may vary depending on the university or college. However, most exams consist of multiple-choice questions, short answer questions, and problems that require calculations.

Topics Covered: The exam will cover various topics related to electromagnetics, including electrostatics, magnetostatics, electromagnetic waves, transmission lines, and antennas.

Question Difficulty: The difficulty level of the questions may vary from easy to difficult. Some questions may require you to apply your knowledge and understanding of the subject, while others may require you to solve complex problems using mathematical equations.

Time Limit: The time limit for the exam may vary depending on the university or college. However, most exams are typically 3 hours long.

Marking Scheme: The marking scheme for the exam may vary depending on the university or college. However, most exams follow a standard marking scheme, where each question is assigned a certain number of marks. The total marks for the exam may vary depending on the number of questions.

Preparation Tips: To prepare for the electromagnetics exam, you should start by understanding the concepts and theories of the subject. Practice solving problems and equations, and familiarize yourself with the various formulas and equations used in the subject. Additionally, you can refer to textbooks, online resources, and previous years' question papers to get an idea of the exam pattern and question types.

In conclusion, the electromagnetics exam pattern for engineering mathematics is designed to test your knowledge and understanding of the subject. By understanding the exam pattern and preparing accordingly, you can increase your chances of scoring well in the exam.

Electromagnetics (Video Lectures) Syllabus 2026-2027 PDF Download

Engineering Mathematics Syllabus



Basics of Electromagnetics



  • Introduction to vectors: Dot product, cross product, Gradient, Divergence, and Curl.

  • Maxwell's equations in differential and integral forms.

  • Electrostatics: Coulomb's law, Gauss's theorem, Electric potential, Poisson's and Laplace equations, and Boundary value problems.

  • Magnetostatics: Biot-Savart law, Ampere's law, Magnetic vector potential, and Boundary value problems.



Time Varying Fields



  • Faraday's law of electromagnetic induction, Lenz's law, Self and Mutual inductances.

  • Maxwell's equations in time varying fields.

  • Wave equation, Polarization, and Poynting theorem.



EM Waves



  • Plane waves in free space, dielectrics, and conductors.

  • Reflection and Transmission of waves.

  • Wave Propagation in lossy media.



Introduction to Transmission Lines



  • Terminated and open transmission lines, Transmission line equations, Input impedance, and Reflection Coefficient.

  • Standing wave ratio, Smith chart, and Impedance matching techniques.



Wave Guide



  • Rectangular and Circular waveguides, Modes in waveguides, and Cutoff frequency.

  • Waveguide components: Attenuators, Couplers, and Filters.

  • Introduction to Microwave Engineering.



Antenna



  • Introduction to Antennas, Radiation Pattern, Antenna Gain, and Directivity.

  • Types of Antennas: Wire Antennas, Aperture Antennas, and Reflector Antennas.

  • Design of Antennas, Antenna Arrays, and Applications of Antennas.

This course is helpful for the following exams: Electrical Engineering (EE), Electronics and Communication Engineering (ECE)

How to Prepare Electromagnetics (Video Lectures) for Electrical Engineering (EE)?

If you're an engineering student, you know the importance of Electromagnetics in Engineering Mathematics. It is a core subject that deals with the study of electromagnetic fields and their interaction with matter. To excel in this subject, you need to have a deep understanding of the mathematical concepts and principles that underlie the behavior of electromagnetic fields.

Here are some tips on how to prepare for Electromagnetics in Engineering Mathematics:

1. Understand the Basics: Before diving into the complex topics, it is important to have a strong grasp of the basics. This includes understanding vectors, calculus, and differential equations. These concepts form the foundation of Electromagnetics, and you'll need to have a clear understanding of them to progress further.

2. Practice and Solve Problems: One of the best ways to prepare for Electromagnetics is by solving problems. Practice as many problems as possible from textbooks and other study material. This will help you develop problem-solving skills and improve your understanding of the subject.

3. Use Online Resources: There are plenty of online resources available that can help you prepare for Electromagnetics. EduRev offers a comprehensive course on Electromagnetics that covers all the topics in detail. You can also find tutorials, videos, and other study material online that can help you understand the subject better.

4. Attend Lectures: Attending lectures and classes is crucial for understanding the subject. Make sure to attend all the classes and take notes. This will help you keep track of important topics and concepts and revise them later.

5. Revise Regularly: Electromagnetics is a vast subject, and it's easy to get overwhelmed. To avoid this, make sure to revise regularly. Revise the topics as often as you can and practice solving problems. This will help you retain the information better and prepare for exams effectively.

In conclusion, Electromagnetics is an important subject in Engineering Mathematics, and with the right preparation, you can excel in it. Use these tips to prepare for the subject and ace your exams.

Importance of Electromagnetics (Video Lectures) for Electrical Engineering (EE)

Importance of Electromagnetics Course for Engineering Mathematics

Introduction: Electromagnetics is the study of the behavior of electromagnetic waves and their interaction with matter. It is an essential course for students pursuing engineering mathematics as it provides a foundation for understanding the behavior of electrical circuits, transmission lines, and antennas.

Key Pointers:

1. Understanding of Electromagnetic Waves: The Electromagnetics course provides an in-depth understanding of electromagnetic waves and their properties. It helps students comprehend the concepts of electric and magnetic fields, and their interdependence.

2. Application in Electrical Engineering: The knowledge of Electromagnetics is essential for students pursuing electrical engineering. It helps in the design and analysis of electrical circuits, transmission lines, and antennas.

3. Foundation for Communication Engineering: Communication engineering is a vital field that requires a thorough understanding of Electromagnetics. The course provides a foundation for understanding the behavior of electromagnetic waves in communication systems.

4. Preparation for Competitive Exams: Many competitive exams like GATE, IES, and ESE have a significant portion of the syllabus based on Electromagnetics. A thorough understanding of Electromagnetics is essential for students to perform well in these exams.

5. Career Opportunities: Electromagnetics is a fundamental course for students pursuing careers in electrical and communication engineering. It opens up opportunities in fields like telecommunications, power generation, and electronics.

Conclusion: In conclusion, the Electromagnetics course is vital for students pursuing engineering mathematics. It provides an in-depth understanding of electromagnetic waves and their properties, which is essential for design and analysis of electrical circuits, transmission lines, and antennas. It also prepares students for competitive exams and opens up career opportunities in various fields.

Electromagnetics (Video Lectures) for Electrical Engineering (EE) FAQs

1. What is the difference between electric field and magnetic field in electromagnetics?
Ans. An electric field exerts force on charged particles and originates from stationary or moving charges, while a magnetic field exerts force on moving charges only and originates from current flow. Electric field strength is measured in volts per metre; magnetic field strength in tesla. Both are fundamental vector quantities in electromagnetic theory and interact through Maxwell's equations to create electromagnetic waves.
2. How do I solve electromagnetic induction problems for EE exams?
Ans. Apply Faraday's law by calculating magnetic flux change through a surface, then determine induced EMF using the rate of flux change. Use Lenz's law to find current direction. For transformers and coils, relate primary and secondary voltage using turn ratios. Practice problems involving motional EMF, solenoids, and coil rotation systematically with numerical examples from your course materials.
3. What is Gauss's law and how is it used in electromagnetics?
Ans. Gauss's law relates electric flux through a closed surface to enclosed charge: flux equals charge divided by permittivity. It simplifies electric field calculations for symmetrical charge distributions like spheres, cylinders, and planes. This fundamental principle enables students to avoid complex integration, making problem-solving efficient in electrostatics and is essential for understanding Maxwell's equations in electromagnetic theory.
4. How do Maxwell's equations explain electromagnetic wave propagation?
Ans. Maxwell's four equations describe how electric and magnetic fields generate and sustain each other. Changing electric fields create magnetic fields; changing magnetic fields create electric fields. These coupled oscillations produce self-propagating electromagnetic waves travelling at light speed. The equations unify electricity, magnetism, and optics, showing that light itself is an electromagnetic wave in the visible spectrum.
5. What is the relationship between current, magnetic field, and the Biot-Savart law?
Ans. Biot-Savart law calculates magnetic field magnitude produced by a current-carrying conductor element. The field strength is proportional to current and inversely proportional to distance squared. Direction follows the right-hand rule. This law applies to irregular conductor shapes and forms the foundation for deriving Ampère's law, used for calculating fields around long straight wires, coils, and solenoids in practical electromagnetics problems.
6. How do capacitors and inductors behave in AC circuits?
Ans. Capacitors store energy in electric fields and oppose voltage changes; inductors store energy in magnetic fields and oppose current changes. In alternating current circuits, capacitors exhibit capacitive reactance (inversely proportional to frequency), while inductors exhibit inductive reactance (directly proportional to frequency). Together they determine impedance, phase angle, and resonance frequency in AC circuit analysis critical for electrical engineering applications.
7. What causes electromagnetic interference and how is it minimised?
Ans. Electromagnetic interference occurs when electric and magnetic fields from one circuit affect nearby circuits, causing signal distortion. Minimisation techniques include shielding (Faraday cages), grounding, twisted pair cables, ferrite cores, and frequency filtering. Proper PCB layout, component spacing, and isolation transformers reduce coupling. Understanding EMI prevention is essential for designing reliable electronic systems in electromagnetics engineering practice.
8. How do transformers work using electromagnetic induction principles?
Ans. Transformers use mutual inductance between primary and secondary coils. Alternating current in the primary coil creates a changing magnetic field, inducing voltage in the secondary coil. The voltage ratio equals the turn ratio of coils. Power remains approximately constant (ignoring losses). Transformers are essential for voltage conversion in power distribution systems and demonstrate practical electromagnetic induction applications in electrical engineering.
9. What is the difference between diamagnetic, paramagnetic, and ferromagnetic materials?
Ans. Diamagnetic materials weakly repel magnetic fields (all materials have this property). Paramagnetic materials are weakly attracted to magnetic fields due to unpaired electrons. Ferromagnetic materials like iron, cobalt, and nickel are strongly attracted and retain magnetisation after field removal, forming permanent magnets. These material classifications determine electromagnetic device design, transformer cores, and permanent magnet applications in electrical equipment.
10. How do I prepare electromagnetics video lectures for EE exam success?
Ans. Structure study sessions around core topics: electrostatics, magnetostatics, Faraday's law, Maxwell's equations, and electromagnetic waves. Watch lectures actively, take timestamped notes on derivations and concepts, then solve accompanying numerical problems immediately. Review EduRev's detailed notes, flashcards, and MCQ tests covering electromagnetics to reinforce understanding. Practice previous year questions systematically to build exam-level problem-solving confidence.
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Electromagnetics (Video Lectures) | Notes, Videos, MCQs & PPTs for Electrical Engineering (EE) 2026-2027 is part of Electrical Engineering (EE) preparation. The notes and questions for Electromagnetics (Video Lectures) | Notes, Videos, MCQs & PPTs have been prepared according to the Electrical Engineering (EE) exam syllabus. Information about Electromagnetics (Video Lectures) | Notes, Videos, MCQs & PPTs covers all important topics for Electrical Engineering (EE) 2026-2027 Exam. Find important definitions, questions, notes,examples, exercises test series, mock tests and Previous year questions (PYQs) below for Electromagnetics (Video Lectures) | Notes, Videos, MCQs & PPTs.
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Electromagnetics Online course is designed by expert faculty that will simplify concepts and make learning easy for you. This course is available at budget-friendly prices for GATE aspirants and covers all the important topics required for GATE 2022 preparation. Students can attain more knowledge in less time and perform better with our exclusive online courses.
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Electromagnetics Online course is designed by expert faculty that will simplify concepts and make learning easy for you. This course is available at budget-friendly prices for GATE aspirants and covers all the important topics required for GATE 2022 preparation. Students can attain more knowledge in less time and perform better with our exclusive online courses.
Electromagnetics (Video Lectures) | Notes, Videos, MCQs & PPTs course offering 100+ video lectures & more, covering complete syllabus & important topics, created by experts. Joined by 2k+ students.