Question on Landau and Lifshitz volumes

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SUMMARY

The discussion focuses on the mathematical prerequisites for studying "Landau and Lifshitz Volume I: Mechanics." Key requirements include a solid understanding of multivariable calculus, differential equations, and basic linear algebra, particularly eigenvalues. Familiarity with the calculus of variations is also beneficial, although it is not extensively covered in the text. For subsequent volumes, knowledge of partial differential equations (PDEs), Fourier analysis, contour integration, and tensor analysis is necessary. A strong foundation in undergraduate physics is emphasized as crucial for effectively engaging with the material.

PREREQUISITES
  • Multivariable calculus
  • Differential equations
  • Basic linear algebra (eigenvalues)
  • Calculus of variations
NEXT STEPS
  • Study "Mathematical Methods in the Physical Sciences" by Mary Boas
  • Learn about partial differential equations (PDEs) and their applications
  • Explore Fourier analysis techniques
  • Watch MIT lectures on calculus of variations, particularly those by Gilbert Strang
USEFUL FOR

Students and professionals in physics, particularly those preparing to study advanced mechanics and mathematical methods in physical sciences.

Hunus
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What are the mathematical prerequisites of these books? In particular, what are the mathematical prerequisites of volume I?
 
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For volume 1, you should be ok with multivariable calc and differential equations, plus a bit of linear algebra (eigenvalues and stuff). They have pretty high expectations as far as computational calculus skills go, especially to solve the problems. It probably helps to be familiar with the calculus of variations too, as it's not explained very well as far as I remember.
 
Daverz said:
The mathematical requirements aren't that high: comfort with partial differentiation, vector calculus, ODEs, and matrices. But this shouldn't be your first exposure to most of the concepts, e.g. Lagrangian and Hamiltonian dynamics. Try Fowles or Symon.

I was thinking only of the first volume, Mechanics. For the other volumes you will need some knowledge of PDEs (e.g. wave equation), Fourier analysis, contour integration, and some exposure to tensor analysis.

And really, the Physics background needed to study these texts is more important, as you'd pick up most of the needed math in undergrad Physics courses.
 
I agree with all the above opinions. The math prerequisite is not very high, but the physics prereq is pretty much an undergraduate physics degree, in my opinion.
 
The first volume?
Mathematical Methods in the physical sciences by M Boas level
The other books require a little more though
 
For volume 1, you should be ok with multivariable calc and differential equations, plus a bit of linear algebra (eigenvalues and stuff). They have pretty high expectations as far as computational calculus skills go, especially to solve the problems. It probably helps to be familiar with the calculus of variations too, as it's not explained very well as far as I remember.

I agree with this completely. Just wanted to add something: I hadn't seen calculus of variations before, and struggled quite a bit with the first chapter at first. But then I watched this MIT lecture by Strang, and it made a lot of sense after that. I would recommend watching it first. After the first chapter, if I recall correctly, you don't see calculus of variations for the majority of the book (although you use the results you obtained in the first chapter).

The mathematical requirements aren't that high: comfort with partial differentiation, vector calculus, ODEs, and matrices. But this shouldn't be your first exposure to most of the concepts, e.g. Lagrangian and Hamiltonian dynamics. Try Fowles or Symon.

I disagree with the last point. L&L v1 was my first exposure to the material and I really enjoyed it, and believe I understood it well - the style works well for me. It imagine it depends on how each individual learns best. There isn't nearly as many problems as in other texts, but you can augment it by expanding on the problems they assign and just creating your own problems.

Also, a lot of the other books use tensor analysis and assume you know a bit about PDE's.
 

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