INTERACTIVE

Power-Flow, In Your Browser

An illustrative, client-side tool that solves the exact DC power-flow equations on the real IEEE 9-bus network. It demonstrates the physics the validated PINN learns to respect — and it is deliberately honest: an exact linear solve, no invented metrics. The authoritative, reproducible results are in the validation report.

Run a power-flow analysis on your inputs

Enter generation and load values below. The tool solves the exact DC power flow P = B'·θ on the IEEE 9-bus network in your browser, then runs a real N-1 contingency check. This is a live preview of the kind of analysis a pilot performs on your full, real system.

Gen @ Bus 2
Gen @ Bus 3
Load @ Bus 5
Load @ Bus 7
Load @ Bus 9
Net injection (balance)
+0.046 p.u.
Bus voltage angles
BusAngle (deg)
Bus 1 (slack)+0.000
Bus 2+10.658
Bus 3+5.095
Bus 4-2.211
Bus 5-4.923
Bus 6+2.241
Bus 7+1.580
Bus 8+4.821
Bus 9-2.969
Line flows
LineFlow (p.u.)
14+0.6700
45+0.5145
56-0.7355
36+0.8500
67+0.1145
78-0.7855
82 · busiest-1.6300
89+0.8445
94-0.1555
Power-balance residual of this exact solve
4.44e-16
≈ machine precision — the linear solve satisfies the physics exactly.
This is a preview. The pilot runs it on your real system.
Your topology, your data, a reproducible validation report you keep.
Start a pilot

What is validated today

  • • DC power-flow PINN vs. exact analytical solution (0.0124° RMSE)
  • • AC power-flow PINN vs. Newton-Raphson ground truth (0.0035° RMSE)
  • • N-1 single-line-outage contingency sweep on IEEE 9-bus
  • • Controlled PINN-vs-black-box ablation on the physics-violation metric
  • • 25 automated tests; one-command reproducible report (MD / JSON / TXT / PDF)
See the reproducible numbers →

Want it run on your system?

A pilot runs this methodology against your network data and produces a validation report on your case. Scoped individually and invoiced per engagement — you keep the code and can reproduce every result yourself.