Session: Corrosion Management: Water Treatment, Desalination, Transmission, and Reuse
Innovative Non-Metallic Materials for Sustainable Corrosion Management in Desalination Systems (C2026-00074)
Monday, March 16, 2026
1:00 PM - 1:30 PM Central
Location: 372 EF
Earn .5 PDH
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Muhammad Mubashir, Fatma Al-Radhi, Mohammad Alhazmi, Asma S Alghamdi , Muhammad Mubashir
Saudi Water Authority (Saline Water Conversion corporation)
The transition from traditional metallic infrastructure to innovative non-metallic materials marks a significant advancement in corrosion management within desalination systems. This study comprehensively evaluates advanced fiber-reinforced polymers (FRP), high-performance thermoplastics, and nanostructured membrane materials, highlighting their contributions to sustainability, mechanical performance, and corrosion resistance. Glass and carbon fiber composites, along with hybrid systems integrating natural fibers, exhibit enhanced strength-to-weight ratios, tailored reinforcement architectures, and superior resistance to seawater-induced degradation. Concurrently, high-performance thermoplastics such as PVDF, PEEK, and fluoropolymers offer unparalleled chemical stability and thermal endurance, addressing limitations of legacy metal components in aggressive marine environments. The integration of self-healing polymers, antimicrobial surfaces, and smart coatings further enhances system longevity and reduces chemical usage. The integration of these advanced non-metallic materials in desalination infrastructure offers a robust and sustainable solution to long-standing corrosion challenges. Findings in this work offer a transformative pathway for corrosion mitigation, environmental sustainability, and operational reliability in next-generation desalination infrastructure. Their adoption not only extends asset life and reduces downtime but also significantly lowers lifecycle environmental impacts. Continued research, pilot-scale validation, and industry collaboration are essential to accelerate commercialization and deployment across water treatment systems globally.
