Ab initio materials physics and microscopic electrodynamics of media
arXiv:1606.00445
Abstract
We argue that the amazing progress of first-principles materials physics necessitates a revision of the Standard Approach to electrodynamics of media. We hence subject this Standard Approach to a thorough critique, which shows both its inherent conceptual problems and its practical inapplicability to modern ab initio calculations. We then go on to show that the common practice in ab initio materials physics has overcome these difficulties by taking a different, microscopic approach to electrodynamics of media, only superficially resembling the Standard Approach whose validity is restricted to the macroscopic domain. As this paradigm shift went largely unnoticed outside and partly even within the ab initio community, the present article aims at a systematic development and paradigmatic discussion of this new, microscopic first-principles approach to electrodynamics of media, for which we propose the name "Functional Approach".
minor corrections
References in corpus (16)
- Quantum ESPRESSO: a modular and open-source software project for quantum simulations of materials
- Dissipationless Quantum Spin Current at Room Temperature
- Quantum spin Hall effect in a transition metal oxide Na2IrO3
- The refractive index and electronic gap of water and ice increase with increasing pressure
- Quantum Diagrammatic Theory of the Extrinsic Spin Hall Effect in Graphene
- Instabilities on graphene's honeycomb lattice with electron-phonon interactions
- Structural origin of the anomalous temperature dependence of the local magnetic moments in the CaFeAs family of materials
- Generation and Manipulation of Spin Current in Graphene Nanodisks: Robustness against Randomness and Lattice Defects
- The intrinsic charge and spin conductivities of doped graphene in the Fermi-Liquid regime
- Crossed responses of spin and orbital magnetism in topological insulators
- Polymorphism in -sexithiophene crystals: Relative stability and transition path
- Why history matters: ab initio rederivation of Fresnel equations confirms microscopic theory of refractive index
- Covariant Response Theory and the Boost Transform of the Dielectric Tensor
- Nonlinear spin diffusion and spin rotation in a trapped Fermi gas
- Response Theory of the Electron-Phonon Coupling
- A functional renormalization group approach to electronic structure calculations for systems without translational symmetry