Develops novel solid lubricant chemistries to replace PTFE-based mold release agents in plastic molding. The goal is comparable or improved release performance while reducing environmental and sustainability concerns, minimizing material transfer to mold surfaces, and maintaining finished product surface quality. Emphasis is on stiction prevention at elevated temperatures and performance evaluation across processing conditions and molding materials.
This research develops new solid lubricant chemistries as environmentally friendly alternatives to PTFE (polytetrafluoroethylene) for use as mold release agents in plastic molding operations. PTFE has long been valued for its exceptional release properties, but growing environmental and sustainability concerns are driving the search for replacements. The project focuses on identifying, synthesizing, and implementing novel mold release agents that minimize material transfer to mold surfaces while maintaining or improving the surface quality of finished molded products.
The work targets a critical need in plastic molding: maintaining production efficiency and product quality while transitioning away from chemistries that pose environmental challenges. By targeting stiction prevention at elevated temperatures, the proposed solutions aim to match or exceed PTFE performance benchmarks under real-world molding conditions.
Key features:
The technology is currently at the bench-scale research and development stage. Initial work involves formulation, synthesis, and laboratory testing of candidate alternative lubricant chemistries. Future validation plans include field testing of optimized products against current PTFE-based baselines to bridge laboratory results with real-world manufacturing performance.
Texas A&M University–San Antonio is a public university in the Texas A&M University System serving a fast‑growing metropolitan region. The institution connects companies to faculty expertise and student talent through internship pipelines, applied research engagements, capstone collaborations, and tailored professional education. Its location near San Antonio’s defense and cybersecurity corridor, and close ties with regional employers and civic partners, enable problem‑driven collaboration and workforce development. Research activity is supported by competitive federal and state funding and corporate sponsorships. Commercialization benefits from established contracting pathways, compliance support, and the Texas A&M University System’s technology transfer infrastructure.