Chemistry of Materials
We develop materials where key properties are encoded at the molecular level, including:
- Responsiveness
- Degradability
- Transport
- Conductivity
This enables reliable performance in complex and dynamic environments.
Complex Molecular Systems
We study multicomponent and non-equilibrium systems where function emerges from interaction and dynamics.
Our work explores:
- Feedback and adaptivity
- Collective behavior
- Biomimetic and learning systems
A focus on interfaces
Across all research, interfaces are central. At interfaces, molecular interactions, mobility, and restructuring determine how systems perform. We use this insight to design materials that actively regulate transport, interaction, and reactivity in real time.
Our 2030 vision
We aim to establish functional interfacial systems as a core platform for adaptive materials. These systems are: active and responsive, programmable, and capable of real-time regulation. Our approach combines experiment, theory, and data: high-throughput synthesis and screening, in operando characterization of interfaces, and machine learning and AI-driven analysis. Together, these form closed-loop workflows where design, measurement, and prediction continuously inform each other.
From molecular insight to real-world systems
Our research extends beyond fundamental discovery. We translate molecular design into functional technologies, bridging the gap between chemistry and application. A distinctive strength of the department is its ability to move from molecular understanding to scalable systems, enabling real-world implementation across materials, interfaces, and complex systems.
Technologies we develop
- Bio-inspired antifouling interfaces
- Degradable and sustainable polymer platforms
- Nanostructured delivery systems
- Information-processing interfaces (neuromorphic systems)
- Responsive materials for healthcare and industry
How we create impact
- Translation of fundamental research into applications
- Strong culture of entrepreneurship
- Close collaboration with industry
- Integration into regional and national innovation ecosystems
Our approach has led to a growing portfolio of spin-off companies operating at the interface of chemistry, materials, and technology.
Examples include: Sulis · LipoCoat · Phos4Nova · QL Polymers · LigniLabs · SonoCoat · MedTexCoat · IntriS · Brainonix
Our translational efforts are rooted in fundamental research: the same molecular-level understanding that drives scientific discovery also enables scalable technologies. This creates a continuous cycle where science and application strengthen each other, contributing to a sustainable and knowledge-driven economy.
The department of Molecules & Materials consist of 5 research groups: