What We Do
We explore mechanism theories and structural instabilities using a blend of theoretical, numerical, and experimental modeling to unlock new functionalities that enable materials to operate like machines. Our work combines insights from mechanics, robotics, and material science to design smart, adaptable systems.
Our Vision
Modern robotics has transformed many industries, yet most systems still rely on complex assemblies of separate components and energy conversions. Our goal is to create a new class of "machine matter"—flexible architected materials that integrate multiple functions into a single, efficient system. By designing materials capable of processing mechanical signals, storing and adjusting energy, and adapting their shapes, we aim to simplify machine architectures, reduce energy losses, and pave the way for more scalable, cost-effective, and autonomous machines.
Besides developing fundamental understanding, we demonstrate applications of flexible mechanisms and metamaterials in Microelectromechanical systems (MEMS), Robotics, Medical Devices, Mechatronic Systems, and Precision Systems.
Our lab is part of Precision and Microsystems Engineering Department at the Delft University of Technology.
