This paper presents a review of the research activities developed in recent years in the field
of High Performance Computing (HPC) application to power system problems and a …

The transition towards net-zero emissions is inevitable for humanity's future. Of all the
sectors, electrical energy systems emit the most emissions. This urgently requires the …

Recent advancements in high-performance parallel computing platforms and parallel
algorithms have significantly enhanced the opportunities for real-time power system …

This paper presents a single-instruction-multiple-data (SIMD) based implementation of the
transient stability simulation on the Graphics Processing Unit (GPU). Two programming …

The WR (waveform relaxation) algorithm is extended to a structure-preserving power system
model in which the loads are retained. This results in a system of differential/algebraic …

Time-domain simulation (TDS) is the most accurate and reliable method for solving transient
stability problem. This approach relies on the solution of nonlinear differential-algebraic …

Dynamic simulation for transient stability assessment is one of the most important, but
intensive, computational tasks for power system planning and operation. Several …

Using the very-dishonest Newton method as the base, Gauss, Newton and relaxed-Newton
type parallel algorithms are discussed and compared with solution data obtained using the …

Both the very dishonest Newton (VDHN) and the successive over relaxed (SOR) Newton
algorithms have been implemented on the iPSC/2 and Alliant FX/8 computers for power …

Real-time transient stability simulation is of paramount importance for system security
assessment and to initiate preventive control actions before catastrophic events such as …