Designing energy-efficient thermal and separation processes for sustainable production

We focus on the development and optimization of thermal and separation technologies that form the backbone of many chemical and biochemical production systems. Our research spans reactive flow modeling, thermal‐intensive unit operations such as rectification, absorption, membrane‐based separations, and high‐temperature process environments. Using advanced computational fluid dynamics (CFD), process simulation and multi-parameter experimental studies, we examine flow and transport phenomena, reaction behaviour, and heat‐integration strategies. By applying life-cycle thinking and energy‐pinch techniques, we aim to design processes that minimise energy consumption and environmental footprint.

We leverage our expertise in both modelling and experimentation to bridge the gap between conceptual design and industrial implementation. Through collaborations with industry and research partners, we validate new process layouts and separation technologies—such as gas purification, biorefinery integration and intensified heat‐exchange systems—under realistic conditions. Our aim is to develop scalable solutions that reduce cost, increase sustainability, and support the transition to low-carbon production systems.