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March 10, 2026IET Renewable Power Generation0 citationsOpen Access

Pathways to a Fully Renewable Energy System in Iran: A Scenario‐Based Analysis Across Power, Heat, Transport, Industry and Desalination

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MKM. KhatibiGLGabriel LopezMCMichael Child

Key Points

  • The analysis aims to explore the feasibility of transitioning Iran to a fully renewable energy system by 2050.
  • Utilized the LUT Energy System Transition Model with hourly resolution across nine geographical regions
  • Assessed three policy-driven scenarios: best policy scenario (BPS), delayed policy scenario (DPS), and current policy scenario (CPS)
  • Integrated all major energy-consuming sectors, including power, heat, transport, industry, and desalination
  • A 100% renewable energy system is technically feasible and economically viable under the BPS
  • CO2 emissions projected to decrease from 446 MtCO2 in 2020 to zero by 2050
  • Primary energy demand estimated at around 3450 TWh with solar photovoltaics supplying over 93%
  • Lowest levelised cost of electricity in the BPS is €24.7/MWh by 2050, compared to €49.4/MWh in the CPS

Abstract

ABSTRACT This study examines the feasibility of transitioning to a fully renewable energy system in Iran by 2050, using the LUT Energy System Transition Model with hourly resolution and nine geographical regions. Three policy‐driven scenarios are assessed, named the best policy scenario (BPS), delayed policy scenario (DPS), and current policy scenario (CPS). The model integrates all major energy‐consuming sectors, including power, heat, transport, industry, and desalination, along with sector coupling and power‐to‐X technologies. The results indicate that a 100% renewable energy system is technically feasible and economically viable in the BPS, driven by large‐scale solar deployment. CO 2 emissions decrease from 446 MtCO 2 in 2020 to zero by 2050. Primary energy demand reaches around 3450 TWh in the BPS, with over 93% supplied by solar photovoltaics and installed capacity exceeding 1660 GW. Despite higher initial investments, the BPS achieves the lowest levelised cost of electricity at €24.7/MWh by 2050, compared to €49.4/MWh in the CPS. System flexibility is ensured through electricity and thermal storage plus hydrogen‐based seasonal balancing. Solar‐to‐X strategies play a key role in defossilising industry and transport sectors through e‐hydrogen, e‐fuels, and e‐materials. Achieving this transition requires strong policy support, including fossil fuel subsidy removal, CO 2 pricing, and infrastructure investment.

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Cite This Study

Khatibi et al. (2026) studied this question.

synapsesocial.com/papers/69af95b470916d39fea4d8f0https://doi.org/10.1049/rpg2.70220
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