SmartProSys

Smart Process Systems for a Green Carbon-based Chemical Production in a Sustainable Society

Welcome to the website of the Research Cluster SmartProSys! Here you can find current information about our research on smart & sustainable chemistry and circular economy.

The SmartProSys research initiative aims to replace fossil raw materials in chemical production with renewable carbon sources, thus contributing to a carbon-neutral society. It follows a system-oriented strategy and investigates resource-efficient degradation and synthesis strategies at process level, intelligent catalytic conversions at molecular level, and economic and societal impacts at a higher system level. The complexity of the system requires the development of powerful computational and machine learning methods for the design, simulation, optimization and control of the system. SmartProSys involves researchers from the fields of systems-oriented process engineering, chemistry, mathematics, logistics, political science, and psychology.

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Abbildung Ablauf SmartProSys

SmartProSys pursues a system-oriented strategy based on a cross-scale research approach to develop a new generation of chemical production processes. Here, you can find more information about the four different Research Areas.

Explore our principal investigators from diverse disciplines in the SmartProSys initiative.

Find an overview of external collaborators across the four SmartProSys research areas here.

Additional input comes from Associated Researchers (ARs) funded by participating institutions, listed here.

15.10.2024

Worldwide, 119 million tons of used vegetable oil are generated annually, mostly from commercial kitchens. Although some is converted to biodiesel, researchers at the Leibniz Institute for Catalysis (LIKAT) have now developed a catalyst to convert this waste into primary amines, essential compounds in pharmaceuticals and daily-use products. Doctoral student Fairoosa Poovan, under Prof. Matthias Beller, uses a cobalt-based catalyst to create these valuable chemicals with greater efficiency than conventional methods.

The catalyst enables a one-step process that minimizes resources and works at lower temperatures, making it a more sustainable alternative to traditional synthesis routes. This approach not only retains the carbon in a usable form but also supports circular carbon economy goals, as the team collaborates with the Otto-von-Guericke University Magdeburg to find additional applications for bio-based wastes.

15.10.2024

Plastics, although with many advantages, also cause problems like environmental pollution and ongoing extraction of fossil resources. Great reductions in environmental impact can be made by recycling polyamides (PAs) used in fishing nets, automobile parts, textiles, carpets, foils etc. since they are especially resource intensive in their production compared to other polymers.
In a joint cooperation of Process Systems Engineering at Max Planck Institute for Dynamics of Complex Technical Systems and Soft Matter Physics at Otto-von-Guericke-Universität Magdeburg we are investigating a solvent-based recycling method for PAs. We could observe cavitation bubbles caused by ultrasonic treatment to significantly enhance the dissolution rate of the polymer. Additionally, we are investigating process parameters relevant for industrial scale up making recycling even more sustainable without compromising on the quality of recovered PA.

Discover highlights from past events on sustainable chemical production and smart process systems, with more to come.

Last Modification: 17.10.2024 - Contact Person: