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

Dynamical systems often exhibit a variety of temporal scales. In a recent study we examined the slow degradation of H₂ #electrolyzers under highly oscillatory load.

#Modelling and #simulation is not feasible for long-term predictions spanning months if the fastest chemical scales are also taken into account. Through our #mathematical #analysis, we have been able to separate the scales and achieve accelerations of over 1:1000. This not only reduces the time required for simulations, it also allows to solve optimization and control problems.

 

Our approach extends beyond the specific challenge of green H₂ production, offering a general tool with broad applicability. As part of the SmartProSys Cluster of #Excellence initiative we are tackling related dynamical problems describing complex chemical conversion processes having the transformation to green carbon-based processes in mind.

 

Original publications:

➡ [1] https://doi.org/10.48550/arXiv.2410.06863

➡ [2] https://doi.org/10.1137/19M1258396

15.10.2024

Effective research data management (RDM) is increasingly becoming a central element of all research collaborations due to the rapidly increasing amounts of available and generated data. RDM varies across disciplines, each with unique needs and tools.

Here is a snapshot of how we approach #RDM across our four research areas at the SmartProSys research initiative:

➡ Process Labs (PL): LabFolder ELN (Labforward) for streamlined data capture and sharing in experimental workflows

➡ Molecular Labs (ML): eLabFTW for precise documentation and collaboration in chemistry-focused research].

➡ System Level studies & questionnaires (SL): Leibniz-Institut für Psychologie (ZPID)’s Research Data Center supports psychological data management.

➡ Computational and Mathematical Programming (CMA): GitLab for secure, versioned code and model development.

 

By tailoring RDM to each field, we ensure data that is Findable, Accessible, Interoperable, and Reusable (FAIR) over the entire research range.

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

Last Modification: 17.10.2024 - Contact Person: