Initial condition sampling is updated
Browse files
README.md
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@@ -112,7 +112,7 @@ The control gains, filter components, and droop coefficients listed above are re
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Scenario diversity is achieved through stochastic parameterization of initial conditions and two disturbance categories, all generated in Python and injected into the simulation models via their respective APIs.
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Initial conditions include the power references set-points, grid impedance scale, and grid voltage sag scales. These initial conditions are sampled from uniform distributions. The voltage sag scale is randomly
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Scenarios start from a steady-state point. A disturbance is applied at t = 0.5 s. Disturbances are sampled as follows:
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Scenario diversity is achieved through stochastic parameterization of initial conditions and two disturbance categories, all generated in Python and injected into the simulation models via their respective APIs.
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Initial conditions include the power references set-points, grid impedance scale, and grid voltage sag scales. These initial conditions are sampled from uniform distributions. Active power in both the GFM and GFL modes is sampled uniformly from [0.5-1.7]. Reactive power in the GFL mode is uniformly sampled from [0.2-0.8]. The voltage sag scale is randomly sampled from a uniform distribution between 0.8 and 0.99. The grid impedance scale is sampled from a uniform distribution between 1 and 7. The two scales are mutually exclusive, i.e., one is scaled and the other scaling factor remains 1 based on a 50-50% selection chance.
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Scenarios start from a steady-state point. A disturbance is applied at t = 0.5 s. Disturbances are sampled as follows:
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