Purpose-built operational intelligence for SWRO, MSF, and hybrid desalination facilities. Optimise specific energy consumption, predict membrane fouling, manage brine compliance, and integrate renewable energy — all from a single AI-native platform.

OpSys delivers a unified operational intelligence layer across all three desalination technology platforms, enabling consistent KPI monitoring, AI optimisation, and ESG reporting regardless of the process train.
The dominant technology for new large-scale desalination projects. High-pressure pumps force seawater through semi-permeable membranes, rejecting salts. Energy Recovery Devices (ERDs) recapture up to 98% of the pressure energy from the brine stream, making SWRO the most energy-efficient option for greenfield plants.
The legacy thermal technology widely deployed across the GCC, particularly in UAE, Saudi Arabia, and Kuwait. Seawater is heated and flashed through successive low-pressure stages to produce ultra-pure distillate. MSF plants are co-located with power stations to utilise waste steam, achieving very high water purity but at higher energy intensity than SWRO.
The preferred modernisation strategy for GCC utilities operating legacy MSF fleets alongside new SWRO capacity. MSF produces ultra-pure distillate that blends with higher-TDS SWRO permeate to meet final product quality specifications. The hybrid approach maximises asset utilisation, reduces overall SEC, and provides operational flexibility to shift production between technologies based on energy prices and demand.
OpSys monitors and optimises every stage of the desalination process — from seawater intake through pre-treatment, core desalination, post-treatment, and brine management.
Coupling SWRO with utility-scale solar PV and BESS reduces the carbon intensity of desalinated water by up to 90%. OpSys manages the complex dispatch logic between renewable generation, battery storage, and membrane operating windows.
AI-driven solar forecast informs SWRO production scheduling, maximising renewable utilisation during peak generation hours.
Battery storage buffers the variable solar output, ensuring stable power supply to high-pressure pumps and preventing membrane stress from power fluctuations.
Real-time optimisation of feed pressure, recovery rate, and ERD efficiency minimises energy consumption per cubic metre of product water.
Scope 1, 2, and 3 emissions tracking per m³ of water produced, with automated reporting for regulatory compliance and ESG disclosure.