Lecture 1 - Riemann ζ, L-functions and Dedekind ζ
and TCC boards
Lecture 2 - Dirichlet L-functions and cyclotomic fields
and TCC boards
Lecture 3 - Artin representations and their L-functions
and TCC boards
Lecture 4 - Dirichlet and Dedekind are Artin
and TCC boards
Lecture 5 - Characters, induction, Artin formalism
and TCC boards
Lecture 6 - Γ-factors, ε-factors, conductors
and TCC boards
Lecture 7 - Compatible systems of l-adic representations
and TCC boards
Lecture 8 - l-adic representations of elliptic curves
and TCC boards
Full course notes in LaTeX by Emma Bailey
In this course I would like to give an introduction to the theory of Galois representations and L-functions. My current plan, subject to reality, is to cover the following topics:
Galois representations and L-functions are a big subject, with links to modular forms (and Ariel Pacetti's course will touch on this), elliptic curves, étale cohomology, proof of Fermat's Last Theorem, algebraic groups, the Langlands program and what not. They are absolutely central to modern number theory, but this also makes them difficult to absorb - they rely on numerous neighbouring areas and the full theory requires a lot of background.
I will try my best to navigate through the area avoiding technicalities if possible, and concentrate on the main topics and how they link to one another. Nevertheless, just to be able to to talk about them and to present the most important examples, I will need