  This study proposes an Ensemble Differential Evolution with Simula-tion-Based
Hybridization and Self-Adaptation (EDESH-SA) approach for inven-tory management
(IM) under uncertainty. In this study, DE with multiple runs is combined with a
simulation-based hybridization method that includes a self-adaptive mechanism
that dynamically alters mutation and crossover rates based on the success or
failure of each iteration. Due to its adaptability, the algorithm is able to
handle the complexity and uncertainty present in IM. Utilizing Monte Carlo
Simulation (MCS), the continuous review (CR) inventory strategy is ex-amined
while accounting for stochasticity and various demand scenarios. This
simulation-based approach enables a realistic assessment of the proposed
algo-rithm's applicability in resolving the challenges faced by IM in practical
settings. The empirical findings demonstrate the potential of the proposed
method to im-prove the financial performance of IM and optimize large search
spaces. The study makes use of performance testing with the Ackley function and
Sensitivity Analysis with Perturbations to investigate how changes in variables
affect the objective value. This analysis provides valuable insights into the
behavior and robustness of the algorithm.
