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May 9, 2026Journal of advanced materials and processing0 citationsOpen Access

Feasibility Assessment of Green Hydrogen Production for Application in Steelmaking Technology

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MZMajid ZarezadehHMHoda Mansouri

Key Points

  • This study aims to assess the practical feasibility of producing green hydrogen for steelmaking processes in Hormozgan Province.
  • Identified a suitable site for seawater pretreatment facilities.
  • Modeled the seawater salinity reduction using WAVE software.
  • Simulated the solar power system layout and configuration using PVSOL software.
  • The system can produce more than 18.5 tons of hydrogen annually, assuming 8 hours of daily operation.
  • Increasing the number of buffer basins and floating photovoltaic sectors enhances production capacity.

Abstract

Steel production is a fundamental industry and one of the earliest links in the value chain of goods and services. However, conventional steelmaking has long been associated with significant environmental pollution. Consequently, the global deployment of green hydrogen as both an energy carrier and a means of decarbonizing the final product has increased substantially in recent years. Hormozgan Province, due to its proximity to the Persian Gulf, offers favorable conditions for utilizing seawater as a feedstock for hydrogen production and for deploying floating photovoltaic (FPV) systems to supply electricity for hydrogen generation via electrolysis. In this study, a suitable site for the installation of seawater pretreatment facilities was first identified. The seawater salinity reduction process was then modeled using the WAVE software. After estimating the energy required for electrolysis and primary hydrogen production, the layout and configuration of the solar power system were simulated using the PVSOL software. Based on the simulation results, employing floating photovoltaic sectors to supply the required energy and assuming 8 hours of daily operation, the system is capable of producing more than 18.5 t of hydrogen annually. By increasing the number of buffer basins and FPV sectors, the production capacity can be scaled to meet the desired demand.

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Cite This Study

Zarezadeh et al. (2026) studied this question.

synapsesocial.com/papers/69fecfe9b9154b0b82876e55https://doi.org/10.71670/jmatpro.2024.1235701
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1The Future of Green Steel Production: A Review of Hydrogen-Based Reduction Technologies2026
  2. 2Sustainable Production of Hydrogen through High-Temperature Molten Salt Electrolysis2024
  3. 3Green Hydrogen Production for Decarbonizing the Steel Industry: Energy and Economic Assessment of Electrolysis and Ammonia Cracking Systems2026 · 1 citations
  4. 4Coupling renewable energy and storage technologies with hydrogen-based steel production: A design and scheduling optimization approach2026 · 1 citations
  5. 5The Most Economical Option for Hydrogen Production with Nearshore Hydrogen Production Platform2024