After the integration of new energy into the grid

the fluctuation of grid load has significantly increased

and the traditional rigid load regulation mode is difficult to adapt to the demand for grid load balance. The new load balancing strategy based on multi-period power flow calculation can effectively optimize traditional problems. This study analyzes and evaluates a new load balancing strategy based on energy storage technology and multi-period power flow calculation. The technical architecture of energy storage and multi-period power flow calculation was explored

with a focus on the integration strategy of energy storage and multi-period power flow calculation. In response to the current imbalance between temporal and spatial loads in the power grid

the work content of a refined load balancing and control model relying on the fast bidirectional regulation characteristics of energy storage was analyzed

including its integration of multidimensional safety constraints and loss parameters. The optimal energy storage regulation scheme was solved through iterative optimization. Research has shown that a multi-period power flow calculation system based on energy storage technology can effectively improve the consumption rate of new energy

stabilize the load problem of the power grid

and provide technical support for the fine regulation of the power system.