News & updates

Latest developments from our institute

Stay informed about new research results, awards, events, and collaborations across our scientific community.

Research highlights

One-way traffic for motion in new material

Scientists have developed a material that breaks one of the fundamental principles governing many physical systems. Ordinary materials transmit external forces equally, no matter where the pressure comes from. The newly developed material breaks this rule and could potentially be of interest in soft-robotics or shock absorption related applications.  The research team from AMOLF, Leiden University and the University of Texas at Austin published their findings on 13 February in Nature.

Read news item
Research highlights

Folding reconfigurable materials : Toolkit to design metamaterials with programmable shape and function

During his PhD research at Harvard University, AMOLF group leader Bas Overvelde developed a smart method for designing and investigating new metamaterials. For such materials the microstructure determines the function, rather than the molecular composition. The ideal metamaterial changes shape autonomously to achieve the desired functionality. Overvelde and his American colleagues developed a toolkit to design such metamaterials that can assume different shapes in a manner reminiscent of origami. They published their research on 19 January 2017 in Nature.

Read news item
People and recognition

Cum laude defense Carien Groot

On January 13th Carien Groot successfully defended her PhD thesis Dynamics of water interacting with biomolecules at the University of Amsterdam. She obtained the cum laude degree for her doctorate research in the Ultrafast Spectroscopy group of Huib Bakker. This degree  is reserved for the top 5% of students.

Read news item
Research highlights

Solar cell wonder material surprises researchers : Unexpected experimental results lead to a better understanding of promising perovskite

Physicists at AMOLF have unraveled the mysterious working mechanism of a promising new class of materials for solar cells. Their pressure experiments with perovskite semiconductors had very counter-intuitive results, which could not be explained by the theory for conventional semiconductors. However, the results matched surprisingly well with a novel theory developed at Imperial College in London, predicting a peculiar band structure in perovskite materials. “Theory and experiments came together perfectly and helped us solve an important part of the perovskite puzzle”, says AMOLF group leader Bruno Ehrler, who published the results in Energy & Environmental Science on 23 December 2016.

Read news item
Stay informed

Get the latest research highlights, events, and news from our institute delivered to your inbox