Publications of Jan-Christoph Deinert
All genres
Journal Article (6)
2020
Journal Article
Vempati, Sesha Pavan Kumar, Lea Bogner, Clemens Richter, Jan-Christoph Deinert, Laura Foglia, Lukas Gierster and Julia Stähler: Photoexcited organic molecules en route to highly efficient autoionization.
2019
Journal Article
Vempati, Sesha Pavan Kumar, Jan-Christoph Deinert, Lukas Gierster, Lea Bogner, Clemens Richter, , , , , , , and Julia Stähler: Uncovering the (un-)occupied electronic structure of a buried hybrid interface.
2015
Journal Article
Deinert, Jan-Christoph, Oliver T. Hofmann, Michael Meyer, Patrick Rinke and Julia Stähler: Local aspects of hydrogen-induced metallization of the ZnO(101¯0) surface.
Journal Article
Stähler, Julia, Jan-Christoph Deinert, Daniel Wegkamp, Sebastian Hagen and Martin Wolf: Real-Time Measurement of the Vertical Binding Energy during the Birth of a Solvated Electron.
2014
Journal Article
Deinert, Jan-Christoph, Daniel Wegkamp, Michael Meyer, Clemens Richter, Martin Wolf and Julia Stähler: Ultrafast Exciton Formation at the ZnO(101¯0) Surface.
2013
Journal Article
Hofmann, Oliver T., Jan-Christoph Deinert, Yong Xu, Patrick Rinke, Julia Stähler, Martin Wolf and Matthias Scheffler: Large work function reduction by adsorption of a molecule with a negative electron affinity: Pyridine on ZnO(10¯10).
Talk (2)
2013
Talk
Deinert, Jan-Christoph: Electronic structure and dynamics at the ZnO (10-10) surface.
(Seminar, (AG Dähne), Technische Universität, Berlin, Germany, May 2013).
Talk
Stähler, Julia, Jan-Christoph Deinert, Michael Meyer, Daniel Wegkamp and Martin Wolf: Ultrafast Surface Dynamics of ZnO(10-10): Photons, Electrons, and Excitons.
(8th International Symposium on Ultrafast Surface Dynamics, Colorado, USA, May 2013).
Thesis - PhD (1)
2016
Thesis - PhD
Deinert, Jan-Christoph: Zinc Oxide Surfaces and Interfaces: Electronic Structure and Dynamics of Excited States.
Thesis - Diploma (1)
2011
Thesis - Diploma
Deinert, Jan-Christoph: Zeit- und winkelaufgelöste Zweiphotonen-Photoemissionsspektroskopie: Aufbau und Charakterisierung des Experiments anhand der Cu(111)- und D2O/Cu(111)-Oberfläche.