Disciplined physics
Full-AC Newton-Raphson with strict Q-limit enforcement. A converged solution that violates Q limits is marked infeasible.
Matthew Musto spent 22 years at NYISO, including as Principal Engineer. He ran the Day-Ahead Market, then moved into IT, and from there into deep development of the tools operators use on shift.
That work was multi-threaded contingency analysis, and the video-wall visualization the desk watches. Performance mattered, because the answer had to be there while the system was still in that state. NERC CIP compliance mattered, because those systems sit inside the control room.
Dynamic Reserves is what turned that work into Raptrix. Reserves needed N-1-1 coverage, and Operations would not accept a design that required them to hand-define every N-1-1 contingency first. They were right. The answer was a deeper contingency analysis: planning studies for thermal limits, voltage, and first-swing transients, run in real time on the system that is actually in service.
Screening augments operator judgment and does not replace the desk. It is the low-maintenance way to run those studies from the current operating point. Raptrix began in 2013 as Kestrel.
Full-AC Newton-Raphson with strict Q-limit enforcement. A converged solution that violates Q limits is marked infeasible.
Screening augments operator judgment and does not replace the desk.
Sentinel for real-time operations, Forge for short-term planning, on the same engine and the same .rpf interchange.
On-prem (RHEL 10 and Windows certified), air-gapped, or cloud. Deterministic builds. Reproducible pipelines. No vendor lock-in.
Planning-grade security studies on the live system, so operators and planners work from the same picture of the grid that is actually in service.

Pick a recent operating point. We run N-1 and N-1-1 from that State Estimator case inside your environment and walk through what your current list does not show.
info@raptrixpower.com · Founder direct: matthew.musto@raptrixpower.com · github.com/RaptrixPowerFlow