This invention discloses a collaborative optimization method for electromechanical
control parameters of a dual-switched reluctance
electric drive system, belonging to the field of
electric drive system optimization technology. The method employs a "double-layer nested optimization" architecture: the inner layer targets
motor torque / radial force fluctuation, losses, and efficiency, optimizing
control parameters such as switching angle and phase current reference values using the SA
simulated annealing algorithm; the outer layer targets the total
system mass, total losses, and efficiency under typical operating conditions (such as CLTC), optimizing motor structural parameters (
stator outer
diameter, air gap) and
gear transmission parameters (
transmission ratio, module) using the
particle swarm optimization algorithm. During the optimization process, a finite
element model is established using JMAG, a dynamic model is built using Simulink /
Matlab, and Isight is used for automated iteration. A "constraint judgment-parameter adjustment" loop ensures that dynamic and strength requirements are met. This invention can improve system efficiency, reduce
mass, and decrease torque fluctuations, making it suitable for scenarios such as
new energy vehicles and
wind power generation, and solving the problem of poor collaborative optimization in existing modular systems.