Textbook for MIT OCW's 8.04: Quantum Physics I

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SUMMARY

The discussion centers on the recommended textbooks for MIT OCW's course 8.04 Quantum Physics I, specifically focusing on the four listed texts: "Quantum Physics of Atoms, Molecules, Solids, Nuclei, and Particles" by Robert M. Eisberg and Robert Resnick, "Introductory Quantum Mechanics" by Richard L. Liboff, "Quantum Physics" by Stephen Gasiorowicz, and "Principles of Quantum Mechanics" by Ramamurti Shankar. The participant has already acquired Shankar's book and seeks advice on which of the remaining three would provide a complementary perspective. Recommendations highlight the strengths of Shankar and Sakurai, with a note on Gasiorowicz's historical insights and its unique approach to classical thermodynamics in quantum mechanics.

PREREQUISITES
  • Familiarity with quantum mechanics concepts
  • Understanding of linear algebra and functional analysis
  • Knowledge of classical thermodynamics and statistical mechanics
  • Experience with advanced mathematics, including PDE and group theory
NEXT STEPS
  • Research the differences between the first and second editions of "Modern Quantum Mechanics" by J. J. Sakurai
  • Explore the historical context of quantum mechanics as presented in "Quantum Physics" by Stephen Gasiorowicz
  • Study classical thermodynamics applications in quantum mechanics
  • Review supplementary materials from MIT OCW courses on quantum mechanics
USEFUL FOR

Students and self-learners pursuing advanced studies in quantum physics, particularly those preparing for MIT OCW courses or seeking to deepen their understanding of quantum mechanics through diverse textbook perspectives.

homer
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In MIT OCW's video course 8.04 Quantum Physics I there are four textbooks listed, and readings suggested for each. In the video of the first lecture the professor recommends studying in groups with people who have done readings from different textbooks. Since I'm not taking the class at MIT that really isn't an option, but I would like to do the recommended readings from 2 of the 4 textbooks. Here are the four recommended textbooks for the course:

1. Quantum Physics of Atoms, Molecules, Solids, Nuclei, and Particles by Robert M. Eisberg and Robert Resnick

2. Introductory Quantum Mechanics by Richard L. Liboff

3. Quantum Physics by Stephen Gasiorowicz

4. Principles of Quantum Mechanics by Ramamurti Shankar.

I have already bought #4 Shankar because I found him to be an extremely effective teacher from the OpenYaleCourses videos he posted for Mechanics and E&M. What would you guys recommend the best option for the second source to be of the remaining three to maybe cover things from a different perspective than Shankar? And why would you recommend your choice for book #2?

My math background is pretty strong since I have a bachelors in pure math (though from 15 years ago) and I have kept up with a lot of topics applicable (e.g., linear algebra, functional analysis, PDE, group theory, probability) through MOOCs and self-study. I mean no surprises in chapter 1 of Shankar when he goes over the math. I have also done the two courses on MIT OCW on Kleppner & Kolenkow (favorite physics book ever) and Purcell, as well as about half a semester of Lagrangian and Hamiltonian mechanics from Goldstein (from the NTNU classical mechanics course on youtube and of course the homework problems too).
 
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I have only 2 books to recommend, at least according to what you wrote about yourself: Shankar and Sakurai, even though the latter goes as 'graduate'. Shankar has the standard material, Sakurai wrote a wonderful book, very modern approach to the topics. You can compare the subjects in both books.
 
I don't think this is enough to recommend Gasiorowicz, but I really like his first chapter about the history of quantum mehcanics. It's one of the few textbooks where one can learn that classical thermodynamics works for quantum mechanics and blackbody radiation, but not classical statistical mechanics. The amazing thing to me is that once one uses quantum statistical mechanics and has Planck's amazing derivation, the classically derived formulas like Wien's displacement law and the Stefan-Boltzmann law survive the quantum revolution. I don't think I understood any of the derivations in Gasiorowicz, but it presented enough motivation to learn the material from more understandable sources. I think Wannier's solid state textbook has a classical derivation of Wien's displacement law.
 
dextercioby said:
I have only 2 books to recommend, at least according to what you wrote about yourself: Shankar and Sakurai, even though the latter goes as 'graduate'. Shankar has the standard material, Sakurai wrote a wonderful book, very modern approach to the topics. You can compare the subjects in both books.

I want to eventually read Sakurai, but I want to save it for when I may be more ready with a solid foundation of undergrad level study in the subject. I'm hoping to do 8.04 on my own and then 8.05 on edx when it's offered in February. Is the first or second edition of Sakurai better?
 
1st edition is about 80% written by the late prof. Sakurai. I can't imagine in what way the 2nd edition can be better. But you can look that up in reviews online (like the ones on amazon), of course.
 

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