Dataset for multiple time-steps EMT simulation of IEEE 39 bus with IBL
Dataset for EMT simulation of IEEE 39-bus + IBL
Marthi, Phani Ratna Vanamali [ORNL] (ORCID:0000000↗
Engineering topics
Mishra, Rahul [ORNL] (ORCID:0000000328205932)
Publications and source records attributed to Mishra, Rahul [ORNL] (ORCID:0000000328205932).
IEEE39_IBL_Dataset
IEEE39 with IBL modified system EMT dataset.
Madurasinghe, Dulip [ORNL] (ORCID:0000000249316597↗
RE-INTEGRATE EMT Simulation Tool: Input Data Processing Layer for Bulk Power System
This paper introduces an advanced input data processing layer for EMT simulations of large-scale bulk power systems. The paper proposes two versions of the RE-INTEGRATE EMT simulation tool, RE-INTEGRATE Gen-0 and RE-INTEGRATE Gen-1, which are developed to enhance simulation generalizability, scalability, and accuracy. The framework leverages a generic class design for components to incorporate linear equations, which are generated by discretizing the Differential-Algebraic Equations (DAEs) that represent the dynamics of the components. In addition, the framework employs a parsing algorithm that parses a power system’s raw and dyr files to generate a connectivity graph which is then traversed to form the overall system’s dynamics. The proposed input data processing layer is used to simulate the IEEE 39-bus test system. The obtained results demonstrate the framework’s capability to achieve simulation scalability and accuracy. Further, the results indicate that EMT simulations performed using the proposed automations can effectively handle complex grid configurations.
Mishra, Rahul [ORNL] (ORCID:0000000328205932)↗
High-Performance Computing Based EMT Simulation: Power Grid with IBRs
Electromagnetic transient (EMT) simulation of power grids with high-fidelity models of inverter-based resources (IBRs) is time-consuming and difficult to scale. The necessity for high-fidelity models of IBRs that incorporate the dynamics of individual inverters within IBRs has been showcased in recent studies. These studies focused on events with partial power reduction in each IBR during a transmission line fault in the power grid. These types of events have been documented in multiple North American Electric Reliability Council (NERC) reports in the past decade. It is imperative then to find solutions to speed-up EMT simulations and scale the size of the region with IBRs studied in EMT simulations. In this paper, a combination of numerical simulation algorithms with high-performance computing techniques are employed in discretization and linear solvers employed in the proposed RE-INTEGRATE EMT simulation platform for power grid with IBRs. For ease of scalability, modular and object-oriented programming is used as these techniques are implemented. Additionally, automation software is developed to convert legacy software codes to the proposed RE-INTEGRATE EMT simulation platform. Thereafter, this platform is evaluated on multi-core central processing units (CPUs). Finally, scale-up tests are performed to showcase the scalability that is possible.
Marthi, Phani Ratna Vanamali [ORNL] (ORCID:0000000↗