Surface and microstructure engineering

At the Surface and Microstructure Engineering Group, we specialize in the processing and design of tailored materials specifically intended for products with cutting-edge and novel applications. Our research is driven by the need for comprehensive material characterization, utilizing advanced techniques such as sophisticated microscopy and spectroscopy alongside a broad range of complementary methods. These include in-situ and in-operando characterization techniques, which together provide a holistic understanding of material properties. This multi-technique approach enables us to precisely describe and assess the properties of materials, providing critical insights into their behavior under real-world conditions.

The materials we explore in our research include:

• Nanomaterials: We investigate a wide range of nanomaterials, including graphene and other 2D materials, nanocomposites, and nanocrystalline substances. Our research also covers the development of sensor materials in different fields of application.
• Battery Materials and Technologies: We focus on advancing battery manufacturing technologies while optimizing the performance, efficiency, and durability of materials for a variety of advanced energy storage applications. Our research spans the entire battery value chain, from the atomic scale of the electrode materials up to the development of full battery systems.
• Functional Materials: Our work extends to the development of high-performance magnetic materials, as well as the enhancement of functional materials such as corrosion- and wear-resistant coatings. These materials play a vital role in improving the longevity and performance of products in harsh environments.
• Structural Materials: We conduct in-depth studies on high-performance structural materials, including superalloys, high-performance steels, and high-entropy alloys. These materials are essential in industries that require exceptional strength, stability, and resistance to extreme conditions. Additionally, we focus on developing materials for circularity, aiming to enhance sustainability and resource efficiency.

Through these diverse research areas, we aim to advance the understanding of materials at the nanoscale, enhance their practical applications, and contribute to the development of the next generation of technological innovations.