This invention discloses a source-grid-load-storage coordinated scheduling method based on
divergence regularization and bibliometric optimization, belonging to the field of power
system optimization. Addressing the problems of random output fluctuations, distribution shifts, insufficient robustness of traditional methods, and inefficiency in solving problems under high-proportion wind and solar grid integration, this invention first constructs a continuously differentiable comprehensive
loss function containing multiple uncertainties and soft and hard constraints. Then, it uses a generalized Sinkhorn distance with χ²-
divergence regularization and
Gaussian reference measure to construct a
fuzzy set, equivalently transforming the original Min-Max problem into a nested two-layer continuous
dual model. Finally, it employs a nested
stochastic gradient descent algorithm, with the inner layer estimating the dual multipliers and the outer layer updating the scheduling strategy and projecting it onto the physical feasible region, achieving a rapid solution. This invention overcomes the limitations of historical data support sets, can prevent risks from unknown
extreme weather events, avoids the dimensionality curse, is compatible with first-order AI algorithms, and balances grid
operation safety and economy, making it suitable for robust scheduling of large-scale, high-proportion
renewable energy power systems.