Experimentation & Manufacturing

We study how materials and structures behave under different conditions, with a focus on the role of their internal structure and how they respond to combined physical effects. To do this, we use advanced experiments that test materials at both large and microscopic scales, reproducing real-life stresses. We work with metals, polymers, rocks, composites, and biological materials. Our research also focuses on optimizing manufacturing processes, such as additive manufacturing, to design microstructures tailored for specific mechanical performances.

The laboratory is equipped to test materials across a wide range of speeds, temperatures, and environments—from extremely slow creep in salt mines to very high strain rates and temperatures up to 1500 °C. These setups can handle everything from soft tissues and foams to hard metals and ceramics. We develop custom-built machines for unique tests, such as combining mechanical stress with electrical or chemical measurements in batteries and solar materials. 

In addition to testing, we develop new ways to make and improve materials. Techniques such as severe plastic deformation, powder sintering, and friction stir welding are used to create fine microstructures or synthetic rocks with controlled properties. We also work on smart composites, like magneto-responsive elastomers, and advanced 3D printing. Our additive manufacturing facilities include laser-based metal printers and two-photon polymerization for nanoscale structures, with applications in energy, aerospace, medicine, and microrobotics. Some of these developments have even led to patents, showing the lab’s role in pushing forward both science and technology.