Describe and simulate more accurately the physical behavior of the grid and connected equipment under stable operating conditions, identify potential vulnerabilities, and help ensure reliable operation with Steady State Power Flow (formerly PSLF).
Plan for the future expansion of your power systems and help ensure that your existing network operates reliably under normal conditions with the PlanOS* Steady State Power Flow module. Improve your operations by determining the most suitable control and planning actions to help identify issues such as overloaded equipment and voltage instability before they become problematic. With Steady State Power Flow, your team can more easily assess the impact of changes in generation, demand, network topology, and faults in the power system—all from a single module.
Steady state contingency analysis is a vital process in power systems engineering that evaluates the impact of potential failures or unexpected events on the power grid. By simulating various "what-if" scenarios, such as the sudden loss of a transmission line or generation unit, this analysis helps ensure the stability and reliability of the power system under different conditions. Contingency analysis is natively integrated with the Steady State Power Flow module of PlanOS.
Steady state transfer capability analysis is a crucial process in power systems engineering that evaluates the maximum amount of electrical power that can be transferred over the transmission network from one area to another without violating system limits under steady state conditions. By assessing the transfer limits, this analysis ensures the safe and reliable operation of the power grid.
Add-on features
Quickly and visually analyze post-contingency data produced by SSTOOLS.
Simulate GMD events in both snapshot and time-domain mode to satisfy TPL-007-3 standard requirements more easily.
Specify data for simulating subsynchronous resonance (SSR) for thermal generation, and subsynchronous control interaction (SSCI) for wind turbines.
Import and perform dataset simulations in node-breaker formats taken from operational snapshots.
Determine optimal actions of various control devices in the network to minimize an objective function, while simultaneously satisfying system constraints.
An integrated experience
Experience end-to-end grid planning with a unified dataset and a native, simplified infrastructure by leveraging capabilities of the PlanOS modules formerly known as PSLF, MARS, and MAPS.
Education
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