Our lab is actively engaged in the comprehensive valorization of microalgae through an integrated biorefinery approach. We explore sustainable strategies to convert algal biomass into a diverse portfolio of high-value products, including nutraceuticals, pharmaceuticals, pigments, proteins, and biopolymers. By optimizing cultivation, harvesting, and downstream processing techniques, we aim to enhance the economic feasibility and environmental sustainability of algae-based bioprocesses. A core focus of our work is to maximize resource utilization and develop scalable pathways that support circular bioeconomy models.

In parallel, we investigate the use of macroalgae as a renewable feedstock for the development of biodegradable and edible films with potential applications in food packaging. These seaweed-derived materials offer a promising alternative to petroleum-based plastics, aligning with our broader goals of reducing plastic pollution and advancing sustainable biomaterials. Our research combines material science, biopolymer engineering, and green chemistry to tailor the functional and mechanical properties of these films, opening new avenues for innovation in food and environmental sustainability.

Our lab develops and optimizes cutting-edge thermochemical and biological conversion technologies to transform lignocellulosic biomass into fuels, chemicals, and functional materials. We focus on hydrothermal liquefaction (HTL) to produce bio-oil from woody and agricultural residues, which can be upgraded to aviation fuel, renewable diesel, and platform chemicals. In addition, we utilize hydrothermal carbonization (HTC) to generate engineered biochar with tailored properties for applications in wastewater remediation, soil amendment, and nutrient retention.

We also explore integrated biorefinery strategies that combine thermochemical and biological pathways for enhanced value recovery. This includes leveraging lignocellulosic feedstocks for the microbial production of fungal pigments and other high-value bioproducts. By bridging thermal, chemical, and biological conversion platforms, our research aims to create flexible and sustainable systems for biomass utilization, aligned with the principles of circular economy and carbon neutrality.

Our lab harnesses the power of artificial intelligence (AI) and machine learning (ML) to accelerate innovation across all our research areas. We develop and apply predictive models to optimize process parameters, analyze complex datasets, and uncover hidden patterns in biomass conversion, algal bioprocessing, and materials development. These tools enhance our ability to design efficient, data-driven experiments and improve the scalability and performance of our technologies. From modeling thermochemical reactions to predicting biopolymer properties and microbial product yields, AI/ML plays a central role in guiding decision-making and advancing our mission of sustainable biomanufacturing.