I'm looking for a Quantum Mechanics textbook

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SUMMARY

This forum discussion centers on recommendations for Quantum Mechanics textbooks suitable for beginners with a theoretical focus. Key suggestions include "Griffiths" and "Sakurai," with "McIntyre" and "Bowman" recommended for foundational understanding. "Landau and Lifshitz" and "Weinberg" are noted for their philosophical depth but are deemed too advanced for initial exposure. The conversation emphasizes the importance of conceptual clarity over mathematical rigor in introductory texts.

PREREQUISITES
  • Understanding of basic Quantum Mechanics concepts
  • Familiarity with Dirac notation
  • Knowledge of linear algebra
  • Ability to interpret mathematical equations in a physical context
NEXT STEPS
  • Research "J. J. Sakurai's Quantum Mechanics" for its pedagogical approach
  • Explore "Shankar's Principles of Quantum Mechanics" for comprehensive coverage
  • Investigate "Landau and Lifshitz" for philosophical insights in Quantum Mechanics
  • Examine "Gottfried's Quantum Mechanics" for advanced theoretical perspectives
USEFUL FOR

Students and educators in physics, particularly those seeking a solid foundation in Quantum Mechanics, as well as anyone interested in the theoretical aspects of the subject.

  • #31
Vanadium 50 said:
Commutators first.
Some good examples?
 
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  • #32
I don't know of any books that do it this way. I have some decades-only lecture notes. (You asked for approaches, not instances.)

It's not necessarily stupid, although I think it would have worked better had I been solid with Poisson brackets.
 
  • #33
Demystifier said:
Some good examples?

Maybe https://books.google.com.sg/books?id=Bn7MaT3X8fkC&source=gbs_navlinks_s

In a way also https://www.amazon.com/dp/0470026790/?tag=pfamazon01-20 which mentions the uncertainty principle in chapter 1, and then derives the uncertainty principle from commutation relations in chapter 2.

Of course it's a bit unfortunate that Heisenberg's historical argument doesn't have that much to do with the usual uncertainty principle, and many textbooks motivate the latter from the former.
 
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  • #34
I would take out the Heisenberg microscope and the sound wave analogy from any textbook.
 
  • #35
dextercioby said:
I would take out the Heisenberg microscope and the sound wave analogy from any textbook.

Or keep it and add the correct dervation of the Heisenberg microscope from the commutation relations.
 
  • #36
Vanadium 50 said:
Commutators first.
Of course, this means "symmetries first", and that's anyway the right approach to a consistent narrative of all of theoretical physics. If there is one methodological breakthrough of 20th-century physics then it's Emmy Noether's invariant-theoretical approach to physics!
 
  • #37
atyy said:
Maybe https://books.google.com.sg/books?id=Bn7MaT3X8fkC&source=gbs_navlinks_s

In a way also https://www.amazon.com/dp/0470026790/?tag=pfamazon01-20 which mentions the uncertainty principle in chapter 1, and then derives the uncertainty principle from commutation relations in chapter 2.

Of course it's a bit unfortunate that Heisenberg's historical argument doesn't have that much to do with the usual uncertainty principle, and many textbooks motivate the latter from the former.
The irony is that Heisenberg's historical argument is indeed wrong, and it took Bohr several days of hard persuasion to correct it! We've discussed this several times in the forum.
 
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  • #38
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  • #39
Why not Dirac's book for a first book in QM?
 
  • #40
fluidistic said:
Here's a rather harsh critics of the above mentioned Zettili's book - and also Ballentine's - http://www.famaf.unc.edu.ar/~raggio/QM2/bzt.pdf in the way they treat irreducible spherical tensor operators.

Fair point and useful to know. However, the topic of (spherical) tensor operator is glossed over in university courses on QM for its applications are not immediate or standard or deemed mandatory.
 
  • #41
martinbn said:
Why not Dirac's book for a first book in QM?
The only reason I see is a somewhat old-fashioned notation.
 
  • #42
I attended classes in QM at 4 different graduate schools. Two out of the four treated spherical tensor operators above the level of the textbook. The two professors who taught the classes out of their notes emphasized their importance. But it could be because one of the professors who taught the class was a student of Wigner's.
 
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