Probabilistic Static Voltage Stability Margin Optimization Realization Method
A technology of static voltage stability and voltage stability margin, applied in the field of obtaining probabilistic static voltage stability margin based on quasi-Monte Carlo simulation and kernel density estimation, to achieve high calculation accuracy
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[0021] Such as figure 1 As shown, this embodiment uses the IEEE 118 standard system as an example for illustration:
[0022] In this embodiment, the system is divided into four partitions A, B, C, and D. Zone A includes nodes 1-33, zone B includes nodes 34-59, zone C includes nodes 60-79, and zone D includes nodes 80-118. Set the active and reactive power of the node load to obey the normal distribution, and the expectation is equal to the active and reactive power of the load under the basic working condition. The coefficient of variation (standard deviation / expectation) is: 7% in area A, 4% in area B, and 9% in area C. D area 5%. Each generator is equivalent to 4 identical units, and the failure probability of each unit is 0.09. Set the sampling scale to 1000, use QMC (quasi-Monte Carlo) to obtain input variable samples, use the direct method to calculate the voltage stability critical point, and obtain the stability margin samples, then use DKDM to obtain the probability ...
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