Christian Klinke

Dr. Christian Klinke is an Honorary Professor in the Chemistry Department at Swansea University's Faculty of Science and Engineering, and a Full Professor at the University of Rostock in Germany since 2019. Previously, he served as an associate professor at Swansea University starting in 2017 and as an assistant professor at the University of Hamburg from 2007. His academic journey began with physics studies at the University of Würzburg and Karlsruhe in Germany, followed by research positions at EPFL in Switzerland and IBM TJ Watson Research Center in the USA.

Dr. Klinke's research focuses on the colloidal synthesis of nanomaterials and their optoelectronic characterization, with particular expertise in two-dimensional nanostructures, perovskites, and carbon-based nanomaterials. His work bridges physics, chemistry, and materials science, developing novel approaches for synthesizing and characterizing nanomaterials with applications in optoelectronics and energy conversion. His research group investigates phenomena emerging in solid-state materials with nanometer dimensions, generated through colloidal synthesis, chemical vapor deposition, and electron-beam lithography.

The analysis of his recent publications reveals a strong focus on two-dimensional nanomaterials, particularly perovskite-based structures. His work spans from fundamental synthesis and characterization to device applications, with consistent exploration of charge carrier dynamics, structural properties, and optoelectronic behavior. A notable trend is the progression from basic nanomaterial synthesis to increasingly sophisticated device integration and performance optimization.

• German Nanotech Prize (Nanowissenschaftspreis, AGeNT-D/BMBF)
• ERC Starting Grant
• Heisenberg fellowship of the German Funding Agency DFG

Dr. Klinke actively supervises postgraduate research, with current projects focusing on in-situ electrochemical spectroscopy and hyperspectral imaging of electrochemically controlled photoluminescence. His research program encompasses multiple approaches to nanomaterial synthesis and characterization, with particular emphasis on developing new device structures based on Coulomb blockade and field enhancement principles. His laboratory employs a comprehensive physico-chemical approach to investigate electrical transport mechanisms in modern nanoparticle superstructures, with applications ranging from inexpensive photovoltaics to advanced electronic devices.