Transform lactose into functional monomers for elastomers and plastics, leveraging its crystalline nature for enhanced mechanical strength and sustainability. This research focuses on copolymerization with bio-based acrylates and integrating whey proteins for improved composites.
This innovative research explores the conversion of lactose into functional monomers to create high-performance engineering plastics and composites. By utilizing lactose's crystalline structure and strong hydrogen bonding, the project aims to enhance the mechanical strength of elastomers, which are widely used in automotive and consumer products. The approach involves copolymerizing lactose-derived monomers with bio-based acrylates to develop materials that are both tough and flexible. Additionally, by incorporating whey protein into composites, the research seeks to fully utilize dairy co-products, contributing to sustainable materials manufacturing.
The research is currently at Technology Readiness Level 2, indicating that the concept is in the early stages of experimental proof of concept. The project includes defining the range of material properties, developing synthetic routes for polymerizable lactose monomers, and establishing design rules for tailored material properties.
Carnegie Mellon University is a private, global research university in Pittsburgh with a strong applied-research culture and an emphasis on translational impact. Industry collaborates through co-located labs, specialized testbeds, and a federally funded software engineering center that de-risks complex systems. Proximity to a regional robotics and advanced manufacturing cluster enables rapid prototyping, field trials, and access to a skilled talent pipeline, with flexible sponsored-research and affiliate models. Research is supported by competitive federal funding from agencies such as NSF, DoD, DOE, NIH, and NASA. A dedicated tech transfer office and entrepreneurship programs provide IP strategy, licensing, and startup acceleration.