This study develops an integrated System Dynamics (SD) framework to analyze and resolve Iran's persistent electricity shortage crisis by 2041. Despite substantial fossil fuel reserves and renewable potential, Iran's power system faces chronic supply deficits, reaching up to 18 GW during peak periods, driven by inefficient consumption, subsidy distortions, and aging infrastructure. The proposed model simulates the interactions among demand, supply, fiscal, and environmental variables to evaluate the dynamic effects of five major policy interventions: gradual fuel subsidy removal, consumer equipment efficiency enhancement, carbon taxation, renewable purchase guarantees with financial support, and an integrated mixed policy. Simulation results reveal that isolated measures produce limited outcomes, subsidy reform reduces shortages by only 5.5%, while efficiency improvements and renewable support each eliminate deficits by 2031. The integrated policy, consolidating fiscal revenues through a National Energy Transition Fund (NETF), achieves full shortage elimination by 2027 and creates a 98 TWh surplus by 2041, while cutting CO2 emissions by 43%. Sensitivity tests confirm model robustness under macroeconomic and technological uncertainty. The findings demonstrate that policy coordination amplifies synergies, enabling both energy security and deep decarbonization. The framework provides actionable insights for policymakers in Iran and other fossil-fuel-dependent economies, underscoring the effectiveness of revenue recycling, systemic integration, and early renewable investment in accelerating sustainable energy transitions.
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