Physics of Surfaces and Interfaces
Research at E20 aims at the fundamental understanding of interface phenomena and their control for the design of functional nanoarchitectures in reduced dimensions. We investigate and manipulate individual nano-objects and highly organized supramolecular systems.
Utilizing scanning probe microscopy tools we examine the interior of complex molecules and develop self-assembly protocols for nanotextured surfaces. With advanced spectroscopy techniques we study charge transfer and electronic reconfiguration processes at ultimate temporal resolution. These activities promote the development of novel bottom-up fabrication methodologies and the molecular-level engineering of materials with tailored properties.
85748 Garching b. München
+49 89 289 12608
Fax: +49 89 289 12338
Members of the Research Group
|Prof. Dr.||Johannes||Barth||PH II: 211||+49 89 289-12609|
|Viktoria||Blaschek||PH II: 213||+49 89 289-12608|
|Karl-Wolfgang||Eberle||PH II: 203||+49 89 289-12549|
|PD Dr.||Florian||Klappenberger||PH II: 202||–|
|Reinhold||Schneider||PH II: 233||+49 89 289-12817|
Course with Participations of Group Members
|Titel und Modulzuordnung|
Übung zu Grundlegende Konzepte der Experimentalphysik
Zuordnung zu Modulen:
Leitung/Koordination: Kienberger, R.
Übung zu Physik für Life-Science-Ingenieure 2
Zuordnung zu Modulen:
Leitung/Koordination: Iglev, H.
Offers for Theses in the Group
- Foldamers on solid surfaces: tethering, folding and assembly
Nanoscience can arrange minute molecular entities into nanometric patterns in an orderly manner using self-assembly protocols. For practical applications, it is desirable to support such self-assembled structures on surfaces. With this project we wish to expand the capabilities of self-assembled molecular layers by mimicking the ability of biomolecules, such as proteins, to fold into well-defined conformations.
Therefore, we will investigate the on-surface self-assembly of a series of foldamers: synthetic molecular strands that fold into helices. For controlling the surface deposition in the solid/vacuum interface, we will employ a home-developed electrospray controlled ion beam deposition (ES-CIBD). Scanning tunnelling microscopy (STM) under ultra-high vacuum conditions will be used as a convenient tool to provide real-space information about the molecular adsorption, conformation and self-assembly. The conformation and assembly will be controlled by thermal processing and choice of solid support.
- suitable as
- Master’s Thesis Condensed Matter Physics
- Master’s Thesis Applied and Engineering Physics
- Supervisor: Johannes Barth