We thank the following sources for funding our research:

Logo of the Louisiana Board of Regents
Logo of the National Science Foundation
Logo of the Louisiana Materials Design Alliance


We specialize in the study of frontal polymerization, which was originally discovered in Russia in the 70s before rediscovery by Dr. Pojman in 1991. In this process, monomer is converted to polymer in the wake of a propagating reaction zone through coupling of thermal diffusion and Arrhenius rate kinetics. Using frontal polymerization allows for one-pot formulations and cure on-demand materials with long pot lives, with applications in repair, coatings and adhesives.

Current work on frontal polymerization in the Pojman lab is focused on radical-induced cationic frontal polymerization, development of new initiators and monomers, additive manufacturing and composites manufacturing, and tuning formulations for real-world applications.

Some of our recent work in frontal polymerization: 

Front Velocity Dependence on Vinyl Ether and Initiator Concentration in Radical-Induced Cationic Frontal Polymerization of Epoxies

Thermal transport and chemical effects of fillers on free-radical frontal polymerization

Rapid frontal polymerization achieved with thermally conductive metal strips

Cure on-demand materials have the unique advantage of starting polymerization or curing once an external energy source has been applied. This allows for material to be moved or shifted before beginning to cure, unlike commercially available two-part systems or those with short pot lives which will cure quickly upon mixing. We are exploring the use of frontal polymerization for these formulations, which includes adhesives and coatings. 

Time-lapse polymerizations have a programmable time between mixing and onset of polymerization. We have explored the use of urea-urease clock reactions, which generate base and can induce polymerization after a set period of time based on pH. The Pojman lab studies the urea-urease clock reaction for polymerization of pH-sensitive reactions, generating hydrogels and adhesives. 

Please see our most recent publication of thiol-acrylate hydrogels developed through use of urease derived from watermelon seeds: Reaction-diffusion hydrogels from urease enzyme particles for patterned coatings