TBTK: A quantum mechanics software development kit
arXiv:1808.02409 · doi:10.1016/j.softx.2019.02.005
Abstract
TBTK is a software development kit for quantum mechanical calculations and is designed to enable the development of applications that investigate problems formulated on second-quantized form. It also enables method developers to create solvers for tight-binding, DFT, DMFT, quantum transport, etc., that can be easily integrated with each other. Both through the development of completely new solvers, as well as front and back ends to already well established packages. TBTK provides data structures tailored for second-quantization that will encourage reusability and enable scalability for quantum mechanical calculations.
arXiv comment6 page introduction to the TBTK v1.0.3 (available at https://github.com/dafer45/TBTK)
References in corpus (2)
Cited by in corpus (12)
- Linear Scaling Quantum Transport Methodologies
- KITE: high-performance accurate modelling of electronic structure and response functions of large molecules, disordered crystals and heterostructures
- Tight-Binding Studio: A Technical Software Package to Find the Parameters of Tight-Binding Hamiltonian
- Majorana bound state localization and energy oscillations for magnetic impurity chains on conventional superconductors
- Identification of topological superconductivity in magnetic impurity systems using bulk spin-polarization
- Efficient Chebyshev polynomial approach to quantum conductance calculations: Application to twisted bilayer graphene
- Efficient numerical method for evaluating normal and anomalous time-domain equilibrium Green's functions in inhomogeneous systems
- SuperConga: an open-source framework for mesoscopic superconductivity
- NanoNET: an extendable Python framework for semi-empirical tight-binding models
- Detrimental effects of disorder in two-dimensional time-reversal invariant topological superconductors
- libcommute/pycommute: A quantum operator algebra domain-specific language and exact diagonalization toolkit
- Temperature dependent energy gap for Yu-Shiba-Rusinov states at the quantum phase transition