Simon Werner
University of Marburg
16 Papers
19 Citations
Simon Werner is an academic researcher from University of Marburg. The author has contributed to research in topics: HOMO/LUMO & Chemistry. The author has an hindex of 3, co-authored 13 publications.
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Papers
Kekulene: On-Surface Synthesis, Orbital Structure, and Aromatic Stabilization.
Anja Haags,Anja Haags,Alexander Reichmann,Qitang Fan,Larissa Egger,Hans Kirschner,Tim Naumann,Simon Werner,Tobias Vollgraff,Jörg Sundermeyer,Lukas Eschmann,Xiaosheng Yang,Xiaosheng Yang,Dominik Brandstetter,François C. Bocquet,Georg Koller,Alexander Gottwald,Mathias Richter,Michael G. Ramsey,Michael Rohlfing,Peter Puschnig,Michael Gottfried,Serguei Soubatch,F. Stefan Tautz,F. Stefan Tautz +24 more
TL;DR: It is concluded that the π-conjugation of kekulene is better described by the Clar model rather than a superaromatic model, and its electronic structure as determined by angle-resolved photoemission spectroscopy is determined.
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Access to Functionalized Pyrenes, Peropyrenes, Terropyrenes, and Quarterropyrenes via Reductive Aromatization.
TL;DR: In this article, a modular stepwise approach towards the rylene scaffold via Suzuki-Miyaura cross coupling, oxidative cyclodehydrogenation in the presence of caesium hydroxide under air, and finally zinc-mediated reductive silylation was reported.
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Disentangling the electronic structure of an adsorbed graphene nanoring by scanning tunneling microscopy
Jose Martinez-Castro,Rustem Bolat,Qitang Fan,Simon Werner,Hadi H. Arefi,Taner Esat,Jörg Sundermeyer,Christian Wagner,J. Michael Gottfried,Ruslan Temirov,Markus Ternes,F. Stefan Tautz +11 more
TL;DR: In this article , the authors combine low-temperature scanning tunneling imaging and spectroscopy with CO functionalized tips and algorithmic data analysis to investigate the electronic structure of the molecular cycloarene C108 (graphene nanoring) adsorbed on a Au(111) surface.
Controlled growth of periodically aligned copper‐silicide nanocrystal arrays on silicon directed by laser-induced periodic surface structures (LIPSS)
TL;DR: In this paper, a method for the controlled growth and alignment of copper-silicide nanocrystals is proposed, which takes advantage of a unique self-organization phenomenon denoted as laser-induced periodic surface structures (LIPSS).
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