EXTREME-SCALE QUANTUM SIMULATIONS
Lecture Notes
- Introduction
- Quantum molecular dynamics (QMD):
slide; notes on
QMD summary,
QMD equation,
adiabatic approximation
- Density functional theory (DFT): slide; note
- Exchange-correlation functional: slide
- Pseudopotentials: slide;
slide on projector-augmented wave method by Azarang;
do-it-yourself PAW by Hiroyuki,
see also T. Sugahara et al.,
Numerical procedures for generating ultrasoft pseudopotentials,
Phys. Rep. Kumamoto Univ. 12, 279 (2006);
notes on
norm-conserving pseudopotential,
nonlocal pseudopotential,
fully-nonlocal pseudopotential,
real-space operation of nonlocal pseudopotential
- Representation & solution: slide on plane waves & real-space grids;
notes on plane-wave basis and
supercell;
note on Pulay charge mixing;
notes on conjugate-gradient (CG) method,
CG electronic-state solver,
CG DFT solver,
2D electron example and
multigrid preconditioned CG
- Linear scaling QMD: slide;
notes on divide-&-conquer (DC) DFT:
origin of DC-DFT,
parallel DC-DFT,
DC-DFT data structures,
DC-DFT algorithm,
DC forces,
lean divide-&-conquer (LDC) DFT;
note on Fermi-operator expansion;
note on local orbital minimization;
notes on density matrix minimization (DMM):
density-matrix idempotency,
orthogonal DMM,
nonorthogonal DMM,
real-space DMM;
note on filter diagonalization;
note on Green's function (GF) approches: Pade via Lanczos,
cf., Bethe lattice;
note on block-diagonal divide-&-conquer matrix diagonalization;
notes on embedded-cluster boundary condition (BC):
embedded-cluster BC,
orbital BC,
multiple scattering,
surface GF;
note on density matrix renormalization group (DMRG)
- Time-dependent density functional theory (TDDFT): summary;
fundamentals;
field theory of exchange-correlation potential
- Nonadiabatic quantum molecular dynamics (NAQMD): slide; notes on
fewest-switch surface hopping,
linear-response time-dependent Kohn-Sham equations;
linear-response time-dependent density functional theory (LR-TDDFT),
many-body wave function,
range-separated exact-exchange functional,
excited-state forces,
excitation-energy balance sheet
- Parallelization: slide;
molecular dynamics machines;
Beowulf clusters;
Pre-Beowulf parallel computing;
parallel quantum dynamics;
shift-collapse (SC) algorithm
- Advanced QMD:
note on real-space DFT (Hasegawa et al., SC11) by Xiangyu;
density materix renormalization group (DMRG) by Yongqian;
neural-network force fields (NNFF) by Prof. Kohei Shimamura (Kobe Univ., Japan);
note on NNFF papers by Yuan, Shichun & Size;
Harris functional by Ben;
mutual information, renormalization group & neural network by Kyle;
quantum chemistry using quantum computing by Guoqing & Yuzi
- Miscellaneous lectures: