- Available Technology
There is a growing need for polymers in various applications such as drug delivery, product coatings, adhesives, and even semiconductors. The overall market for controlled radical polymerization products has been estimated to be worth roughly $20 billion. However, this expanding market needs solutions for long-standing issues including polymer processing times, material costs, and other manufacturing parameters. Clemson University researchers have developed a novel method of polymer synthesis to address these challenges. This approach has been shown to reduce processing times by creating a single step procedure, and can eliminate the use of surfactants in emulsion polymerization. Additionally, this technology produces ultra-high molecular weight block polymers that are unachievable by traditional methods. Such advancements allow for easier and more cost efficient production of block polymers from a manufacturing perspective.
Latex paints, Coatings, Fluorocopolymers, Injection molding
This copolymer synthesis method allows for single-step synthesis of amphiphilic block copolymers without the need of surfactants. The polymerization initially involves the formation of water-soluble homopolymer blocks, followed by copolymerization of a hydrophobic monomer. This results in ultra-high molecular weight polymers controlled by heterogeneous reaction conditions and a continuous supply of initiator. These heterogeneous reaction conditions allow for phase separation of hydrophilic and hydrophobic monomers to facilitate more efficient polymerization under the initiator-starvation conditions. Through phase-separated synthesis, Clemson researchers have been able to create various colloidal nanoparticles that comprise ultra-high molecular weight polymers.
Dr. Marek W. Urban
Technology Commercialization Officer email@example.com
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