The Multiscale Lab facilitates research on the micro-mechanical deformation and failure behavior of a broad class of (innovative) materials and material systems.
Revealing deformation and failure
A computer chip that delaminates at high temperatures, paper that warps during printing, or a cast iron engine that fractures when operated at high power: all these problems originate from properties of the materials involved. It is often not obvious when and why materials deform or fail, especially where new composite materials are concerned. The Multiscale Lab contains a range of advanced facilities to investigate such failures at the core, i.e. at the level of the material’s microstructure.
From industry to innovation
The Multiscale Lab facilitates research on the microstructures that underpin the failure behavior and deformation of materials. This research is often prompted by practical questions posed by industry, ranging from the failure behavior of innovative, flexible materials for solar cells to the robustness of lighter types of steel for the automotive industry. The fundamental understanding gained in studies like these is applied in the development of innovative materials that in turn find their way back into industry.
The Multi-Scale Laboratory of the Mechanics of Materials group of Prof. Marc Geers takes a rather unique position as it bridges the gap between traditional materials science and mechanical characterization labs, by integrating (micro-)mechanical testing with (real-time and in-situ) microscopic observation. With a focus on developing novel (miniature) testing devices and strategies, the lab allows for quantitative in-situ microscopic measurements during deformation and mechanical characterization of a broad class of materials, structures, MEMS (Micro-Electromechanical Systems), etc., on a wide range of length scales from nanometers to centimeters.
Mechanical testing in an electron microscope
Working in this way, the lab's experts developed an instrument to bend flexible electronics, such as solar cells, while simultaneously imaging the deformation and failure behavior using an electron microscope. To test and simultaneously study the failure behavior of sheet steel at the level of microstructural deformation mechanisms they also developed an in-situ SEM testing device. Both instruments resulted in journal publications.
The Multiscale Lab collaborates with numerous partners in high-tech systems, the automotive industry, the aerospace industry, energy and manufacturing & printing. They include ASML, DAF, DIFFER, DSM, Fokker, Océ, Philips, NRG, NXP, Tata and TNO. The laboratory is open to address problems of external parties, provided that the research triggers scientific interest. For more information, those interested should contact Johan Hoefnagels.
More information about our unique equipment
the Nano Tensile Stage
The Nano Tensile Stage is a compact test system which enables in situ tensile tests of micronscale and MEMS-like specimens under light and electron microscopy. Precision force measurement over a range of 0.07 µN to 250 mN, realized with a duplicate drift-compensated elastically-hinged load cell, is combined with a displacement reproducibility of <6 nm.
the Miniature Mixed Mode Bending stage
The Miniature Mixed Mode Bending stage enables in-situ characterization of interface delamination in miniature multi-layer structures. This device has been designed with sufficiently small dimensions to fit in the chamber of a scanning electron microscope (SEM) or under an optical microscope for detailed real-time fracture analysis during delamination.
the Free Bending Stage
The Free Bending Stage is an autonomous, miniaturized, pure bending test apparatus that has been developed to investigate material systems at the microscopic level. It enables in-situ optical and scanning electron microscopic studies of failure mechanisms under constant field-of-view.
Visit our other state-of-the-art labs and facilities
Center for Multiscale Electron Microscopy
CMEM offers state-of-the-art facilities for the study of innovative molecules, materials, and processes.
CWTe lab facilities
The CWTe facilitates research on wireless systems and antennas, raising the Internet of Things to a higher level.
The Darcy Lab offers unique MRI facilities specially equipped for researching the properties of technological porous materials.
Equipment & Prototype Center
The Equipment & Prototype Center (EPC) makes custom experimental setups and prototypes for various fields of research.
Future Fuels Lab
In the Future Fuels Lab scientists are researching green fuels and cleaner combustion methods for engines.
High Capacity Optical Transmission Lab
The High Capacity Optical Transmission Lab facilitates research on innovative optical fibers and signal processing techniques to enable…
Institute for Complex Molecular Systems Laboratory
ICMS/Lab facilitates the development and characterization of innovative materials from a molecular perspective.
Laboratory for Cell & Tissue Engineering
The Laboratory for Cell & Tissue Engineering facilitates culturing of autologous tissues across the full spectrum of the research field.
The Microfab/Lab facilitates the development of new micromanufacturing technologies for use in life sciences applications.
NanoAccess makes it possible to produce, process and analyze innovative materials with nanometer accuracy, without releasing the necessary…
The NanoLabTUe offers a unique combination of equipment for developing optical chips and other applications based on compound semiconductor…