MS3L develops membrane-enabled separations for sustainable chemical processing, circular resource systems, and energy-related applications.
Conversion chemistry and low-energy separation designed as one process, replacing neutralization-heavy purification steps.
Selective separation routes that cut process heat duty and solvent loss in chemical recycling of mixed polymer streams.
Membrane-first pathways for feed streams where conventional purification is too expensive to justify.
Selectivity that has to survive from material to module, across fuel recovery, salinity-gradient power, and storage.
Membrane-assisted recovery routes for biomass-derived acids, bases, and purified product streams.
Conversion chemistry and low-energy separation designed as one process, replacing neutralization-heavy purification steps.
Circular separation schemes for depolymerization products, solvent recycle, and catalyst recovery.
Selective separation routes that cut process heat duty and solvent loss in chemical recycling of mixed polymer streams.
Intensified recovery routes for dilute, mixed, or contamination-prone liquid streams.
Membrane-first pathways for feed streams where conventional purification is too expensive to justify.
Membrane materials and modules tailored for fuel, osmotic, and electrochemical systems.
Selectivity that has to survive from material to module, across fuel recovery, salinity-gradient power, and storage.