Inefficient current recycling processes and by-products with little value from newly designed degradable materials are problematic. Designing systems with a closed-loop lifecycle will dramatically improve the recycling process. Sugar chemistry has been well explored over the last 50 years, making it an excellent toolbox in designing sustainable monomers. We propose rationally designed sugar-based for a series of broad applications, including bulk materials (thermoplastics and thermosets) and delivery of small molecules and macromolecules towards agricultural and biomedical applications.
Emulating higher-order function that is displayed in Nature has been the driving force for many synthetic efforts. Leveraging the multitude of interactions undergone by the catechol, compounds will be designed polymerization then their self-assemblies will aid in the exploration of complex biomedical applications.
Transforming bespoke natural product-based monomers and polymers into well-studied, accessible platforms will expedite their use in everyday objects and expand the fundamental understanding of these materials. PolyBOT, a high throughput tool with machine learning integrations, will be designed for the exploration of libraries of sustainable polymers