Research

We are at the forefront of developing next-generation bioplastics by leveraging innovative polymer architectures derived from renewable resources. Our mission is to synthesize polyesters and composites that deliver exceptional mechanical strength, thermal resistance, and transparency while ensuring complete biodegradability and recyclability. By harnessing the principles of green chemistry and leveraging biomass-based monomers, we are decisively bridging the gap between high performance and sustainability.

Our research rigorously investigates the degradation behavior of bioplastics in both natural and controlled environments through advanced composting and biodegradation assays. We utilize cutting-edge real-time monitoring tools to comprehensively analyze weight loss, molecular weight reduction, CO₂ evolution, and microbial interactions. These critical insights enable us to develop materials optimized for both industrial and home composting conditions.

Committed to integrating life-cycle thinking with environmental science to gain a comprehensive understanding of the impact of plastic waste on ecosystems. Our assessments delve into degradation byproducts, persistence in soil and marine systems, and the potential for circular material flows. By combining material science with environmental analytics, we are positioned to lead the charge in guiding policy, industry, and innovation towards genuinely sustainable plastic alternatives. 

The macroscopic properties of polymeric materials are inherently governed by their molecular architecture. To utilize advanced characterization techniques, detailed investigations are necessary to correlate and understand the relationships between structural variables and functional performance. The relationship between polymer molecular structure and macroscopic material performance is thoroughly explored. Structural factors, such as monomer composition, crystallinity, and crosslinking density, are correlated with key properties, including stiffness, toughness, thermal stability, and barrier effectiveness. These correlations provide a predictive framework to guide molecular design for application-specific needs, including high-barrier food packaging, bio-based electronic substrates, and compostable agricultural films.