Mathematics to understand Quantum Scattering Theory

In summary: It goes into more detail than Griffith and is much more readable. Weinberg's lectures on quantum mechanics are a good resource, too.
  • #1
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Homework Statement:: Mathematics to understand Quantum Scattering Theory
Relevant Equations:: Suitable math book to understand Quantum Scattering Theory

I need to study Scattering theory from Introduction to Quantum Mechanics by David Griffith. But I think I need to study mathematics first because I only studied: Basic Mathematics, Algebra and Geometry, Calculus, and Differential Equations. I need to study some math but I do not know what book will be suitable for me and what chapters I must study. please help me with some recommendations. Thanks.
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  • #2
A book on mathematical methods for physicists would probably be the best choice. Two common choices are Arfken and Boas.

I moved the thread since you're asking for book recommendations rather than help on the problem itself.
 
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  • #3
I would recommend Taylor's Scattering theory. He covers the small additional amount of functional analysis needed to describe scattering theory but wouldn't be covered in a typical QM course. It's also very well-written and clear in general.
 
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  • #4
Merzbacher, Quanum Mechanics treats scattering in a similar way to the treatment in Griffith you presented. Merzbacher is mostly a graduate textbook, as are Boas (already mentioned) and Arfken/Weber (already mentioned). Griffith has aimed at undergraduates in the third and fourth year, and slipped in mathematics which may not be taken yet. The courses you mention are generally from the first two years.
The Green's function derivation in the book Merzbacher uses Complex Variables. This is usually put in a 3rd or 4th year undergrad curriculum in physics, and is not one of the courses you mentioned. I used Saff and Snider for Complex Variables (undergrad) and Copson (graduate), but there are many other textbooks.
 
  • #5
Another good treatment of scattering theory is also in Messiah and, of course, Weinberg's Lectures on Quantum Mechanics.

I'm not so sure about Griffith's quatnum textbook. I've the impression that whenever a student is confused about some mathematical aspect of QT in this forums it's due to this book ;-)). SCNR.
 
  • #7
mpresic3 said:
Merzbacher, Quanum Mechanics treats scattering in a similar way to the treatment in Griffith you presented. Merzbacher is mostly a graduate textbook, as are Boas (already mentioned) and Arfken/Weber (already mentioned).
Both Boas and Arfken are intended for, among others, physics majors in their third and fourth years. Boas, in particular, "is intended for students who have had a two-semester or three-semester introductory calculus course" (from the description on Amazon).
 
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  • #9
vela said:
Both Boas and Arfken are intended for, among others, physics majors in their third and fourth years. Boas, in particular, "is intended for students who have had a two-semester or three-semester introductory calculus course" (from the description on Amazon).
When I was at Virginia, I think I remember Weber teaching graduate Mathematical Methods out of Arfken, before his name was associated with the text. I could be wrong though. I have a copy of Boas. I have not read the preface yet to see what the readership was. In any case, maybe Griffith delays writing the chapters in his book for potentially concurrent courses to catch up.
I would be suprised if all off Griffith's undergraduate readership are comfortable with complex variables and Greens functions, generalized functions and Fourier transforms.
 
  • #10
What you need is vector calculus (div grad curl) and basic PDE (in that order). Any of the references mentioned will cover the latter fairly well. Interestingly I learned those things exactly from Griffiths textbook (that was my first time seeing green's function). Anything in there in particular about his explanation you found confusing?

There are quite a few different levels that could be confusing:
- Do you know div/grad/curl?
- Do you know what a Fourier transform is? (If you are reading the scattering chapter I assume you must know position and momentum representation are Fourier transforms of each other? That's covered in earlier chapter of griffiths).

If you know both, the only new concept introduced is that of a green function.
 
  • #11
A very good book for intro scattering theory is Messiah.
 
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FAQ: Mathematics to understand Quantum Scattering Theory

What is quantum scattering theory?

Quantum scattering theory is a branch of mathematics that studies the behavior of particles at the quantum level when they interact with each other or with external forces. It aims to predict the outcome of these interactions by using mathematical models and equations.

How is mathematics used in quantum scattering theory?

Mathematics is used in quantum scattering theory to describe the behavior of particles in terms of wave functions and probabilities. It also involves the use of complex numbers, differential equations, and linear algebra to solve for the scattering amplitudes and cross sections.

What is the significance of quantum scattering theory?

Quantum scattering theory is significant because it helps us understand and predict the behavior of particles at the quantum level. It has applications in various fields such as nuclear physics, particle physics, and quantum chemistry.

What are some key concepts in quantum scattering theory?

Some key concepts in quantum scattering theory include the wave-particle duality, the Heisenberg uncertainty principle, and the Schrödinger equation. Other important concepts include scattering amplitudes, cross sections, and scattering matrices.

How does quantum scattering theory relate to other branches of mathematics?

Quantum scattering theory has connections to various branches of mathematics such as complex analysis, functional analysis, and group theory. It also has applications in other fields of physics, such as quantum field theory and quantum information theory.

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