The power system test cases on this page are non-confidential and are provided in a variety of different formats, including PowerWorld Simulator and PowerWorld DS (*.pwb, *.pwd, *.tsb, *.aux), Matpower (*.m), PSSE (*.raw, *.dyr), and PSLF (*.epc, *.dyd).
Synthetic Electric Grid Cases
Synthetic electric grid models are fictitious representations that are designed to be statistically and functionally similar to actual electric grids while containing no confidential critical energy infrastructure information (CEII). Some of these cases were developed with the support of the U.S. DOE ARPA-E Grid Data program; their support is gratefully acknowledged. A description of the initial algorithm used to develop these cases is given in:
A. B. Birchfield; T. Xu; K. M. Gegner; K. S. Shetye; T. J. Overbye, “Grid Structural Characteristics as Validation Criteria for Synthetic Networks,” in IEEE Transactions on Power Systems, vol. 32, no. 4, pp. 3258-3265, July 2017.
When using these models please cite this paper. A complete list of papers describing how the synthetic models were created is included here.
ACTIVSg200: 200 bus synthetic grid on footprint of Central Illinois – TS GMD OPF
ACTIVSg500: 500 bus synthetic grid on footprint of South Carolina – TS GMD OPF
ACTIVSg2000: 2000 bus synthetic grid on footprint of Texas – TS GMD OPF MOV
ACTIVSg10k: 10,000 bus synthetic grid on footprint of western United States – TS GMD OPF MOV
ACTIVSg25k: 25,000 bus synthetic grid on footprint of northeastern United States – OPF
UIUC150: 150-bus synthetic grid on footprint of Tennessee – GMD
Illini 42 Tornado – TS GMD PWDS MOV
IlliniGMD 42 HEMP – TS GMD PWDS MOV
Literature-Based Power Flow Test Cases
Cases are provided by University of Illinois at Urbana-Champaign Information Trust Institute.
Small Signal Stability Test Cases
This report – Benchmark Systems for Small-Signal Stability Analysis and Control – documents a set of benchmark models that could be used on small signal stability analysis and evaluation of power system stabilizer (PSS) tuning algorithms.
Three Machines Infinite Bus Benchmark System – TS
Brazilian Seven Bus System – TS
Two-Area (Four-Generator) System – TS
New England IEEE 39-Bus System – TS
Simplified 14-Generator Australian Power System – TS
New England 68-Bus Test System – TS
All cases displayed above include a feasible AC power flow solution. Icons next to each case indicate whether additional parameters/models are included: TS for transient stability, GMD for geomagnetic disturbance analysis, OPF for energy economic study, PWDS for PowerWorld Dynamic Studio scenarios and MOV if case movies are available.
Here are some introductory videos showing how these interactive power system simulation cases improve the situational awareness of current system operating conditions.