I'm a graduate student studying quantum mechanics/quantum information and would like to consolidate my understanding of linear algebra. What are some good math books for that purpose?
2026-03-31 17:04:46.1774976686
Linear algebra references for a deeper understanding of quantum mechanics
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Ok, let's be clear on something first: Linear algebra per se is not really important in a serious study of quantum mechanics. This is because most of the spaces one studies in quantum theory-Hilbert spaces, Heisenberg state spaces,etc-and their linear mappings,are actually infinite dimensional function spaces. Linear algebra proper is really the study of finite-dimensional vector spaces. As such, it really functions foundationally in quantum theory, as calculus is a foundation for a study of metric and topological spaces. So what you really are asking for are some good linear algebra sources to strengthen your background, so you can go on and study functional analysis and operator theory, which are the actual-forgive the pun-basis for studying quantum theory.
My favorite general book on linear algebra is Linear Algebra: An Introduction by Charles Curtis. This book is not only eminently readable, it's a book that balances theory and applications better then just about any book out there. It covers not only all the basics-linear spaces, linear independence, span,etc.-it also covers many sophisticated topics that aren't usually covered in basic courses and which are really important for further study, such as multilinear algebra and dual spaces. For a general text, this one can be matched,but not beaten.
However, there's a book I think you really need to look at after that given your area of interest and focus. That's Peter Lax's Linear Algebra And It's Applications . Not only is it beautifully written for a second course on linear spaces and it's written by one of the greatest living mathematicians there is-the book was specifically designed to act as a precursor to a graduate course on functional analysis. As a result, it focuses more on the analytical aspects of linear algebra then the algebraic or geometric aspects. To that end,Lax focuses much more on spectral theory and matrix analysis then other texts do.For example,chapter 10 contains a rapid but very complete introduction to the inequalities of matrix analysis.It's a wonderful read and will prepare you wonderfully for not only functional analysis, but the use of linear algebra and matrices in quantum theory.
Of course, after that, you should go directly to study Lax's beautiful text on functional analysis-which contains a number of applications to quantum theory, such as scattering theory.
That should help you. Take care-and remember, read math books by mathematicians, not physicists!