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April 18, 2026Eng—Advances in Engineering2 citationsOpen Access

Thermal Desalination Technologies and Electromagnetic-Field-Assisted Approaches for Seawater Treatment: A Comprehensive Review

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NANoura AzziHLH. LabrimRBRachid El Bouayadi

Key Points

  • To review seawater desalination technologies, focusing on thermal and electromagnetic methods and their effectiveness.
  • Reviewed thermal desalination techniques: multi-stage flash distillation, multi-effect distillation, thermal vapor compression, mechanical vapor compression.
  • Evaluated the role of electromagnetic fields in enhancing desalination performance.
  • Analyzed the benefits and limitations of each method.
  • Thermal methods are effective but energy-intensive and face issues like limescale and corrosion.
  • Electromagnetic interventions can improve membrane performance, reduce energy consumption, and decrease mineral deposition.
  • Combining thermal and electromagnetic techniques may create a more sustainable desalination approach.

Abstract

Seawater desalination has become a critical approach to mitigating the global scarcity of freshwater resources. This study aims to comprehensively review desalination methods based on thermal and electromagnetic methods, examining their processes, benefits, and limitations. Thermal methods include multi-stage flash distillation, multi-effect distillation, thermal vapor compression, and mechanical vapor compression. These techniques rely on evaporation and distillation to remove salts and are effective in treating highly saline water. However, they consume large amounts of energy and are prone to problems such as limescale and corrosion. In contrast, electromagnetic-based technologies represent a novel, promising approach for enhancing desalination performance. Electromagnetic fields contribute to improved membrane performance and equipment longevity by modulating ionic behavior and mitigating surface fouling. Empirical studies suggest that such interventions can lead to reduced energy usage and lower rates of mineral deposition. The findings reviewed here suggest that integrating thermal and electromagnetic techniques may offer a viable pathway toward more sustainable, efficient, and reduced environmental impacts.

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Cite This Study

Azzi et al. (2026) studied this question.

synapsesocial.com/papers/69e320cc40886becb653fe90https://doi.org/10.3390/eng7040183
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