A personally curated library of lecture notes, textbooks, papers, and references — organized by topic. Selections reflect what I find rigorous, illuminating, or unusually well-written.
The language underneath. Resources on differential geometry, topology, group theory, functional analysis, and mathematical structures that physicists rely on — written with the rigour the subject demands.
From BCS theory and Ginzburg-Landau phenomenology to unconventional pairing, Andreev physics, and topological superconductivity. Resources spanning experiment, theory, and computation.
Chern insulators, topological magnons, Berry phases, symmetry-protected topological phases, and the rich interplay between band geometry and physical observables. My primary research domain.
QFT from canonical quantisation and path integrals through renormalisation group, anomalies, and topological field theories. Both the particle physics and condensed matter perspectives.
Exact diagonalization, tensor networks, Monte Carlo, and machine learning approaches to quantum many-body problems. Resources for both the mathematical foundations and practical implementation.
Study of quantum systems coupled to environments — decoherence, dissipation, Lindblad dynamics, quantum trajectories, and non-equilibrium quantum statistical mechanics. Essential for quantum computing and realistic condensed matter systems.
Books, articles, and talks that convey the wonder of physics to a broad audience — without sacrificing honesty. A selection of what I consider genuinely excellent popular science writing.