- Hybrid modeling and chemical-engineering-informed machine learning
- Data-driven and simulation-based global optimization
- Carbon capture and sustainable energy systems
- Circular Economies: Modeling and optimization for plastics and fertilizer recycling
- Bioprocess modeling and optimization
Dr. Boukouvala is the PI of the Data-Driven Process Systems Engineering (DDPSE) Lab, founded in 2016. The lab develops hybrid mathematical models and optimization tools to understand, design, and operate complex process systems that face constraints and competing objectives. The group combines machine learning and operations research with chemical engineering fundamentals. Its work spans scales from particle- and molecular-level phenomena to single processes, integrated systems, and enterprise-wide operations.
On the methods side, the DDPSE lab members are working on developing hybrid approaches that merge mechanistic knowledge with machine learning, as well as methods that use AI to speed up the discovery of phenomenological models. The DDPSE lab also develops data-driven optimization algorithms for expensive simulation-based problems. These methods are applied to pressing problems in energy and sustainable manufacturing, often with experimental and industrial collaborators. Examples include designing carbon capture processes for flue gas and direct air capture; modeling mechanochemical plastics recycling from ball-mill particle dynamics through techno-economic, life cycle, and supply chain analysis; hybrid modeling of electrochemical systems for fertilizer recycling; and hybrid modeling for bioprocess monitoring and control. Emerging directions include self-improving physics-informed digital twin models.
Professor Boukouvala’s teaching interests encompass core chemical engineering courses at both undergraduate and graduate levels, with particular emphasis on process design, optimization, and modeling. Her instruction integrates computational and data-driven approaches, focusing on equipping students with analytical skills relevant to engineering systems. Professor Boukouvala is committed to fostering student engagement and collaborative learning through problem-solving and applied project work.
S Ravutla, A Bai, MJ Realff, F Boukouvala, Effects of Surrogate Hybridization and Adaptive Sampling for Simulation-Based Optimization, Industrial & Engineering Chemistry Research, 2025
PM Stathatou, E Anglou, Y Chang, J Sweet, A Ganesan, ..., Enabling Informed Decisions on Pyrolysis: A Key to Turn the Tide on Plastics Recycling, ACS Sustainable Chemistry & Engineering, 2025
S Laxminarayan, L Cheung, F Boukouvala, Integrated hybrid modelling of lignin bioconversion, Systems and Control Transactions, 2411-2416, 2025
E Anglou, F Boukouvala, PM Stathatou, A cradle-to-gate life cycle assessment of mechanochemical recycling of poly (ethylene terephthalate) waste, Chemical Engineering Journal, 168719, 2025
Y Takakura, S Ravutla, J Kim, K Ikeda, H Kajiro, T Yajima, J Fujiki, ..., Surrogate model optimization of vacuum pressure swing adsorption using a flexible metal organic framework with hysteretic sigmoidal isotherms, International Journal of Greenhouse Gas Control 138, 104260, 2024