Preface
Chapter 1.Introduction
1.1.The random Schr?dinger operator
1.2.The Anderson localization-delocalization transition
1.3.Interference, path expansions, and the Green function
1.4.Eigenfunction correlator and fractional moment bounds
1.5.Persistence of extended states versus resonant delocalization
1.6.The book's organization and topics not covered
Chapter 2.General Relations Between Spectra and Dynamics.
2.1.Infinite systems and their spectral decomposition
2.2.Characterization of spectra through recurrence rates
2.3.Recurrence probabilities and the resolvent
2.4.The RAGE theorem
2.5.A scattering perspective on the ac spectrum
Notes
Exercises
Chapter 3.Ergodic Operators and Their Self-Averaging Properties
3.1.Terminology and basic examples
3.2.Deterministic spectra
3.3.Self-averaging of the empirical density of states
3.4.The limiting density of states for sequences of operators
3.5.Statistic mechanical significance of the DOS
Notes
Exercises
Chapter 4.Density of States Bounds:Wegner Estimate
and Lifshitz Tails
4.1.The Wegner estimate
4.2.DOS bounds for potentials of singular distributions
4.3.Dirichlet-Neumann bracketing
4.4.Lifshitz tails for random operators
4.5.Large deviation estimate
4.6.DOS bounds which imply localization
Notes
Exercises
Chapter 5.The Relation of Green Functions to Eigenfunctions
5.1.The spectral fow under rank-one perturbations
5.2.The general spectral averaging principle
5.3.The Simon-Wolff criterion
5.4.Simplicity of the pure-point spectrum
5.5.Finite-rank perturbation theory
5.6.A zero-one boost for the Simon-Wolff criterion
Notes
Exercises
Chapter 6.Anderson Localization Through Path Expansions
6.1.A random walk expansion
6.2.Feenberg's loop-erased expansion
6.3.A high-disorder localization bound
6.4.Factorization of Green functions
Notes
Exercises