Chemical Engineering has a long history at TU Graz and dates back to 1948, while CEET was established in 2011.
Here at CEET, our research is dedicated to the intensification of existing chemical processes to make them more efficient and environmentally friendly, as well as to the development of alternative process routes to combat climate change and pollution.
As an engineering science primarily concerned with the transformation of molecules into usable products, valuable materials or energy, chemical engineering enables the harnessing of research advances in energy, food, medicine, water, and manufacturing for the benefit of society. Chemical engineering has enabled the industrialization and prosperity of our society through cost-effective production of materials and chemicals and large-scale energy conversion. However, this development has also had unintended massive impacts on our environment through the longevity of products, such as plastics, or waste gases from energy conversion.
Research activities range from knowledge-oriented basic research to industry-oriented application-oriented research. Experimental investigations in the laboratory and pilot plant are complemented by modelling and process simulation.
In this way CEET contributes to the decarbonisation of value chains through the development of innovative technologies and equipment, the intelligent selection of process steps and the optimisation of process unit operations. It is active in three main research areas:
- Chemical Engineering
- Electrochemical Engineering
- Thermal Process Engineering
Our institute offers a comprehensive education in Chemical and Process Engineering, preparing students for careers in industry and research. As a student at our institute you will gain an understanding of key chemical engineering principles, including mechanical, thermal, and chemical processes and how to design and optimize them for industrial applications.
Our research covers a wide spectrum from biorefinery and reaction engineering to fuel cell development and characterization, digitalized process optimization, and sustainable material development. We explore innovative ways to replace fossil-based processes with bio-based alternatives, optimize energy systems through advanced modeling, and enhance extraction and separation techniques using high-pressure and catalytic technologies. By integrating digital tools, novel reactor concepts, and interdisciplinary approaches, we drive sustainable solutions for industries ranging from pharmaceuticals and food production to renewable energy and waste valorization.