Add a new page:
This is an old revision of the document!
Special Relativity | inertial frames of reference, Minkowski metric, Lorentz transformations | |||||||||||||
Group Theory | Lie algebras, representation theory, $SO(3)$, $SU(2)$, Lorentz group, spinors | |||||||||||||
Lagrangian Framework | Variational Calculus, Noether's Theorem | |||||||||||||
Fundamental Equations | Klein-Gordon equation, Dirac equation, Maxwell equations, Proca equations | |||||||||||||
Quantum Mechanics | Schrödinger equation, particle in a box, Dirac notation | |||||||||||||
Quantum Field Theory | Fourier expansion, canonical quantization, scattering theory | |||||||||||||
Electrodynamics | Coulomb potential, Lorentz force law | |||||||||||||
Classical Mechanics | Newton's second law | |||||||||||||
Crucial puzzle pieces that are missing in the above roadmap are mathematical tools. These are best learned when they are actually needed. This means, whenever you are trying to understand some topic like, for example, quantum mechanics, and a mathematical concept that you don't know is used, simply learned it then.
Here is a (incomplete) list of mathematical tools that are crucial for the topics listed above:
There is a book called "Physics from Symmetry", that tries to implement the roadmap outlined above. However, of course, additional books are needed to understand each topic mentioned here fully.