Electromagnetic Field Theory And Problems: By Murthy Tvs Arun Pdf //free\\
Do not skip Chapter 1 on Vector Analysis. If you cannot comfortably compute a curl, divergence, or cross-product in cylindrical coordinates, you will struggle with subsequent chapters.
Clear, two-dimensional and three-dimensional illustrations accompany geometric problems, helping students visualize charge distributions and field lines.
A reviewer on Amazon.in gave the book a rating, calling it an "Excellent book on EMF theory" and stating, "My all doubts got clear after reading this book. Excellent for GATE, IES and other examinations ". Other reviews note that the explanations are clear, a physical context is always provided, and it helps solidify the entire theoretical framework of electromagnetism. Do not skip Chapter 1 on Vector Analysis
If you're looking for a reliable textbook on electromagnetic field theory, "Electromagnetic Field Theory and Problems" by Murthy T.V.S. and Arun is an excellent choice.
: Vector analysis and foundational formulae. A reviewer on Amazon
| Chapter No. | Topic | Key Concepts Covered | | :---------- | :-------------------------------------------------- | :------------------------------------------------------------------------------------------------------------------------------------------------------- | | | Mathematical Methods | Vector analysis, coordinate systems, differential and integral calculus required for field theory. | | 2 | Static Electric Fields | Coulomb's law, electric field intensity, electric flux, Gauss's law, electric potential, conductors and dielectrics. | | 3 | Electric Fields in Matter | Polarization, dielectric constant, boundary conditions for electrostatic fields, capacitance. | | 4 | Steady Electric Current | Current density, resistance, Ohm's law in microscopic form, continuity equation. | | 5 | Steady Magnetic Fields | Biot-Savart law, Ampere's circuital law, magnetic flux, magnetic vector potential, magnetic materials. | | 6 | Magnetic Force, Torque, Materials and Inductance | Magnetic force, torque on current loops, magnetization, inductance calculations. | | 7 | Time Varying Electric and Magnetic Fields | Faraday's law of induction, Lenz's law, induced electric fields, displacement current, Maxwell's equations. | | 8 | Electromagnetic Waves Propagation | The wave equation, plane waves in free space and in materials, Poynting vector, skin effect. | | 9 | Wave Polarization, Reflections and Refraction | Polarization of waves, normal and oblique incidence, reflection and transmission coefficients, standing waves. | | 10 | Transmission Lines | Transmission line parameters, wave propagation on lines, Smith chart, impedance matching. | | 11 | Waveguides | Rectangular waveguides, TE and TM modes, cutoff frequency, wave impedance. | | 12 | Radiation | Fundamentals of radiation, Hertzian dipole, antenna parameters, radiation patterns. |
: Always sketch the physical layout of a problem (e.g., a line charge along the z-axis) before setting up integration limits. If you're looking for a reliable textbook on
Always check if the problem involves a constant current/charge or a time-dependent wave. Misapplying a static law (like regular Ampere's Law) to a high-frequency alternating current system will yield incorrect results. Accessing the Textbook
Maxwell’s crucial modification to Ampere’s Law to account for time-varying electric fields.

