Anandh Krishna Murichatta

Organised loosely by topic.

Foundations of GR#

  • Wald — General Relativity. The standard graduate reference; rigorous and geometric.
  • Misner, Thorne & Wheeler — Gravitation. Encyclopaedic; best for physical intuition.
  • Hawking & Ellis — The Large Scale Structure of Space-Time. Global methods, causal structure, singularity theorems.
  • O’Neill — Semi-Riemannian Geometry. The cleanest account of the underlying geometry.

The Einstein equations as PDE#

  • Choquet-Bruhat — General Relativity and the Einstein Equations. The reference for the Cauchy problem.
  • Ringström — The Cauchy Problem in General Relativity. Modern and self-contained.
  • Chruściel — Elements of General Relativity. Excellent modern notes.

Causal structure & global methods#

  • Penrose — Techniques of Differential Topology in Relativity.
  • Beem, Ehrlich & Easley — Global Lorentzian Geometry.

Black holes & perturbations#

  • Chandrasekhar — The Mathematical Theory of Black Holes.
  • Dafermos & Rodnianski — Lectures on black holes and linear waves (arXiv:0811.0354).

Spinors & spin coefficients#

  • Penrose & Rindler — Spinors and Space-Time, vols. 1–2.
  • Stewart — Advanced General Relativity. A compact route to NP and GHP.

Numerical relativity#

  • Alcubierre — Introduction to 3+1 Numerical Relativity.
  • Baumgarte & Shapiro — Numerical Relativity.

Lectures online#

Tools#

  • xAct (Mathematica) — tensor computer algebra; what I use most.
  • Cadabra — field-theory-friendly computer algebra.
  • SageManifolds — symbolic differential geometry in Python.
  • Black Hole Perturbation Toolkit — codes and data for perturbation theory.