HZB hosts Humboldt Research Award Winner Alexei Gruverman
An award by Humboldt-foundation enables Professor Alexei Gruverman to visit the HZB institute "Functional oxides for energy efficient information technology". © privat
Professor Alexei Gruverman was granted a Humboldt Research Award in October 2020. Due to the COVID pandemic, he could not travel until this year. For a few months he is now hosted by Helmholtz-Zentrum Berlin at the Institute “Functional oxides for energy efficient information technology”.
The renowned award is endowed with 60 000 Euros and is presented annually by the Alexander von Humboldt Foundation to outstanding scientists from abroad to support collaborative projects with researchers in Germany.
“We are very much honored and happy to welcome Alexei Gruverman at the HZB. He is a worldwide leading scientist in the field of nanoscale ferroelectrics. We will further develop our cooperation with him on several topics”, says Prof. Catherine Dubourdieu, head of the institute “Functional oxides for energy efficient information technology” at HZB.
Professor Alexei Gruverman is a Charles Bessey Professor at the Department of Physics and Astronomy, University of Nebraska-Lincoln, USA. His research includes diverse scientific subjects from nanoscale static and dynamic properties of ferroic materials, to electronic properties of polar surfaces, and electromechanical properties of biomaterials.
The Humboldt Research Award recognizes his outstanding research achievements in the field of fundamental studies of nanoscale physical phenomena in a wide range of materials using a variety of scanning probe microscopy (SPM) methods. Gruverman has pioneered the development of piezoresponse force microscopy (PFM), which since its inception has become a method of choice in both academic and industrial groups for the investigation of the nanoscale properties of ferroelectric materials and structures. Other major scientific accomplishments include the manipulation of ferroelectric domains at the nanoscale, the development of an approach for fast switching dynamics in ferroelectric capacitors, the demonstration of the tunneling electroresistance effect in ferroelectrics and nanoscale studies of electromechanical behavior of biological systems.
His current research topics include the emergence of the ferroelectric ordering in 2D electronic materials and the exploration of the physical mechanism of their polarization-coupled transport properties.
Gruverman plans to spend this first stay associated with the Humboldt Research Award in Germany at the HZB in Berlin and NamLab in Dresden.
- Joint power instead of duplicate structures:Berlin’s research community is further advancing its research excellence by establishing a high-performance, cross-institutional infrastructure for data and AI. With a joint agreement signed on 18 September 2026, the Berlin University Alliance (BUA), the Helmholtz-Zentrum Berlin (HZB) and the Zuse Institute Berlin (ZIB) are paving the way for a joint data science and AI centre in Berlin-Dahlem and Adlershof.
- New technique could make MRI more preciseA team of researchers at the University of Stuttgart and HZB has developed a new method that could make MRI even more precise by eliminating “dead time,” a key limiting factor in the measurement process, thereby enabling the detection of signals that are lost using conventional methods. This method opens up new possibilities for medical diagnostics and non-destructive materials testing. The research team presents the new approach in Science Advances.
- New method shows how molecular switches are influenced by their neighborsResearchers at Friedrich Schiller University Jena and the Helmholtz Centre Berlin (HZB) have, for the first time, been able to directly observe how the environment surrounding a molecular switch influences its electronic structure. Molecular switches are molecules that can be switched between two states by external influences such as changes in temperature—similar to a switch with the positions »On« and »Off«. Such molecules are being investigated as potential building blocks for future data storage devices or sensor materials. Using magnetic-field-dependent terahertz spectroscopy, the researchers have now, for the first time, been able to distinguish whether neighbouring molecules in a material are in the same or different states. The results have been published in the journal »Angewandte Chemie International Edition«.