Advanced Organophobic Ceramic Membranes for Non-Polar Organic Rejection
Molecular Filtration, Inc. develops advanced ceramic membrane systems engineered to selectively reject non-polar organic compounds while allowing water and ions to pass. Our technology goes beyond conventional filtration by enabling molecular-level selectivity based on chemistry and polarity.
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Conventional membranes filter by size. Molecular Filtration enables chemistry-driven filtration.
Molecular Filtration, Inc. develops ceramic membrane systems engineered to selectively reject non-polar organic compounds while allowing water and dissolved ions to pass. Unlike conventional membranes that rely primarily on pore size, our performance is driven by surface chemistry and polarity interactions.
Our organophobic membranes selectively reject hydrocarbons, aromatic compounds (BTX), and complex organic mixtures. This enables reliable operation in challenging environments where traditional filtration technologies struggle with emulsions, fouling, or chemical complexity.
Designed for applications where conventional filtration technologies fall short.
OUR MISSION
Molecular Filtration, Inc. advances ceramic membrane science and oxide-surface engineering to transform some of the world's most challenging water resources—including produced water, industrial wastewater, and seawater—into valuable supplies for industry, agriculture, and communities.
Our technologies focus on modifying and enhancing ceramic oxide materials at the nano- and molecular scale to improve membrane performance, selectivity, durability, and treatment capability.
Our long-term vision is to develop advanced membrane technologies that help expand access to clean and potable water for future generations.
Innovating Oxide Surfaces. Advancing Water Technology. Improving Life.
Molecular Filtration, Inc. has developed a patented organophobic ceramic membrane platform engineered for molecular-level selectivity. Our technology is designed, engineered, and manufactured to deliver consistent, high-performance operation in demanding industrial environments.
Unlike conventional filtration systems, our platform leverages surface chemistry and polarity interactions to selectively reject non-polar organic compounds while allowing water and dissolved ions to permeate. This enables reliable separation in applications where traditional technologies fall short.