Mechanics and E&M Books for Self-Study?

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SUMMARY

This discussion focuses on recommended self-study references for mechanics and electromagnetism (E&M) suitable for students with a foundational understanding of physics and calculus. Key texts include "An Introduction to Mechanics" by Kleppner and Kolenkow, "Introduction to Electrodynamics" by David Griffiths, and "Electromagnetic Fields and Waves" by Vladimir Rojansky. Participants emphasize the importance of accessible materials that provide a balance of depth and clarity, with suggestions for complementary resources like Halliday and Resnick's "Physics" and Feynman's lectures. The conversation highlights the necessity of a solid mathematical background, particularly in ordinary differential equations (ODEs) for advanced texts.

PREREQUISITES
  • Understanding of first-year physics concepts
  • Familiarity with calculus and ordinary differential equations (ODEs)
  • Basic knowledge of electromagnetism principles
  • Experience with self-study techniques
NEXT STEPS
  • Research "An Introduction to Mechanics" by Kleppner and Kolenkow for foundational mechanics
  • Explore "Introduction to Electrodynamics" by David Griffiths for E&M concepts
  • Investigate "Electromagnetic Fields and Waves" by Vladimir Rojansky for thorough mathematical treatment
  • Study "Classical Mechanics" by Taylor to bridge mathematical methods with physics
USEFUL FOR

Students preparing for advanced studies in physics, self-learners seeking structured resources in mechanics and electromagnetism, and educators looking for effective teaching materials.

George Jones
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I am making a webpage on self-study references for cosmology, relativity, quantum mechanics, elementary particles and quantum field theory, and string theory.

I need suggestions for background references. Suppose someone who was/is an above average (but not top) student has taken first-year physics and calculus. With the above topics in mind, what books what be good background references in mechanics (Fowles and Cassidy?) and E&M (Purcell, Griffiths?).

I want references that can be used as realistic stepping-stones for the above goals. Not too long, not too short; not too advanced, not too shallow.

I realize that first-year calculus is not sufficient math background for mechanics and E&M references, but, right now, I'm interested only in suggestions for mechanics and e&m, so assume the math background has been ramped up a bit by self-study.
 
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I really like Griffiths E&M book. I thought it was fairly well written with a good number of examples and explanations. In addition, I felt the it was accessible at the undergrad level with the information you provided for background.
 
I agree... some of the problems are probably out of reach in your context, but the book is very well written.
 
Electromagnetic Fields and Waves by Vladimir Rojansky. I'm not in college yet, and the book goes through the maths quite thoroughly, so it is a wonderful resource for me. I also like the fact that most of the problems are proof-type questions (personal preference). Would appreciate if anybody had any mechanics books that are of a similar nature to Rojansky's text.
 
Not sure if it's relevant, but Fermi's "Thermodynamics" is directly in the spirit of things.
 
Norman said:
I really like Griffiths E&M book. I thought it was fairly well written with a good number of examples and explanations. In addition, I felt the it was accessible at the undergrad level with the information you provided for background.

Its good if you have the solutions manual. There is just too much left out... ie, the way he for instance finds fields of an annulus without showing you the calculus. I suggest complementing early sections with Halliday.

But yes, other than that and the fact that there are virtually no solutions in the book, I found Griffiths a positive experience.
 
Mechanics:
"An Introduction to Mechanics" by Kleppner and Kolenkow
"The Feynman Lectures V.I" by Feynman
"Mechanics" Landau and Lifgarbagez (for analytical mechanics)
"Physics" by Halliday and Resnick (earlier editions are better)

Electrodynamics:
"The Feynman Lectures Vol. II" by Feynman
"Physics" by Halliday and Resnick
"Introduction to Electrodynamics" David Griffiths
"Principles of Electrodynamics" by Melvin Schwartz

All of the above books should be accessible anyone who knows enough mathematics to understand Griffith's EM book, and are good for self-study in my opinion.
 
I think Taylor's "Classical Mechanics" is very similar to Griffith's E&M in style. The book also serves as a good introduction to certain mathematical methods. It does require a knowledge of ODE's though.
 
Kleppner and Kolenkow for Mechanics, and the first few chapters of Fetter and Walecka's "Theoretical Mechanics of Particles and Continua".

For EM, I really liked David Dugdale's "Essentials of Electromagnetism". http://books.google.com/books?id=LIwBcIwrwv4C

Also the famous page in Feynman where he states all the laws of classical physics.

I self-studied Kleppner and Kolenkow, and Dugdale after having had Halliday and Resnick in high school.
 
Last edited:
  • #10
The Landau and Lifgarbagez series would be an excellent choice.


Perhaps one needs two or more sections, one for intermediate level books and one for advanced books, and perhaps a set of mathematics books in addition to physics books.
 
  • #11
Somehow I don't think Landau and Lifschitz would go over well with the average college freshmen...
 
  • #12
atyy said:
Kleppner and Kolenkow for Mechanics, and the first few chapters of Fetter and Walecka's "Theoretical Mechanics of Particles and Continua".

For EM, I really liked David Dugdale's "Essentials of Electromagnetism". http://books.google.com/books?id=LIwBcIwrwv4C

Also the famous page in Feynman where he states all the laws of classical physics.

I self-studied Kleppner and Kolenkow, and Dugdale after having had Halliday and Resnick in high school.
KK is indeed a great textbook, unfortunately for me I didn't go through all the exercises.
It's nice and tough to solve these questions without resorting to Lagrange's or Hamilton's methods.
 

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