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Quantum Thermodynamic Innovations In Desalination: An Energy-Information Efficiency Analysis For GCC Region

Dr. Mohammed Saleh Al Ansari, Masrath Sulthana, Afsana Anjum, Sabiha Jabeen Anwar

International Journal of Environmental Sciences, 2025

Abstract

The Gulf Cooperation Council (GCC), responsible for over 45% of global desalination capacity, must transition from fossil-fueled thermal systems to renewable-integrated, entropy-optimized platforms. This study delivers the first quantum thermodynamic assessment of 30+ desalination technologies, introducing information efficiency a metric quantifying entropy minimization and proximity to reversible operation. Evaluation of thermal, membrane, and hybrid systems reveals stark generational disparities. Legacy MSF and MED plants consume 65-90 kWh/m3, achieve <3% information efficiency, and emit 5.2-6.5 kg CO2/m3. In contrast, advanced quantum-informed systems, such as Quantum-Forward Osmosis, deliver up to 50× lower energy use (1.8 kWh/m3), 500× higher information efficiency (50%), and 325× lower carbon intensity (0.02 kg CO2/m3). AI-enhanced platforms with real-time entropy monitoring and photovoltaic integration approach thermodynamic limits via feedback-driven entropy suppression, reflecting quantum heat engine principles. Hybrid configurations, including FO-RO and AI-optimized RO, offer the best balance of readiness (TRL 7–8) and entropy performance, enabling near-term GCC deployment. By reframing desalination performance from energy-only metrics to information–entropy optimization, this framework provides a roadmap for designing climate-aligned, reversible water production infrastructure with high recovery rates and near-zero carbon intensity aligning water security with…

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