Armin Gölzhäuser

Prof. Dr. Armin Gölzhäuser is a faculty member in the Faculty of Physics at the University of Bielefeld, where he leads the research group on Physics of Supramolecular Systems and Surfaces. His work spans experimental nanoscience, materials physics, and surface chemistry, with a strong emphasis on carbon nanomembranes, two-dimensional polymers, and electron-driven nanofabrication techniques. He is actively involved in teaching and holds administrative roles in university governance and student support.

His research interests include carbon nanomembranes, two-dimensional covalent organic frameworks, electron-induced chemistry, nanofluidics, and molecular separation technologies. These themes are reflected in his extensive publication record and leadership in major EU- and nationally funded projects such as ITS-THIN, ELENA, and Graphene Core I. His work aims at developing scalable, functional nanomaterials for applications in water purification, gas separation, and next-generation electronics.

The recent articles highlight a strong trend toward functional 2D membranes, scalable nanofabrication, and advanced characterization using helium ion microscopy. His group focuses on tuning mechanical, electronic, and permeation properties of ultrathin materials through molecular design and electron-beam processing. Collaborative efforts span multiple European institutions, emphasizing interdisciplinary innovation.

He has received third-party funding from the German Research Foundation, European Union, and German Federal Government, supporting projects in nanomaterials and nano-fabrication. While no specific awards are listed, his leadership in high-impact initiatives underscores recognition in the field.

Prof. Gölzhäuser advises students in physics and nanotechnology, supervising research in materials synthesis and characterization. His lab, part of the Faculty of Physics, operates advanced instrumentation including helium ion microscopes and electron beam lithography systems, enabling cutting-edge work in nanopore engineering, membrane functionalization, and single-molecule studies. Future directions include scalable production of 2D polymers and integration into industrial separation processes.