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    • Sameran Banerjee
    • Patrick Härtl
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    • Daryoush Nosraty Alamdary
    • Manuel Seitz
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  • Studierende forschen und experimentieren am Freitag (02.06.17) an der Fakultät für Physik am Campus Süd der Julius-Maximilians-Universität in Würzburg.

Experimentelle Physik II

Experimentelle Physik II

Lehrstuhlinhaber

Prof. Dr. Matthias Bode

Zimmer: F-161
Tel.:       +49 931 31-83218
E-Mail:  matthias.bode@uni-wuerzburg.de
Researcher ID:  S-3249-2016
Sprechzeiten: kurzfristig nach Vereinbarung
(bitte E-Mail-Anfrage senden)

Sekretariat

Frau Eaton / Frau Riegel
Zimmer: F-162
Tel.:      +49 931 31-85756
Fax:     +49 931 31-85158
E-Mail: ep2-sekretariat@uni-wuerzburg.de


Themen für Masterarbeiten

Auf dem Gebiet der Raster­­tunnel­­mikro­skopie sind am Lehrstuhl EP2 mehrere Master­ar­bei­ten zu ver­ge­ben.  Eine hoch­wertige und mo­der­ne Aus­­stat­tung ist vor­han­den!  Bei der Durch­führung der Projekte werden Sie mit einem klei­nen Team zusammenarbeiten.  Hier eine kurze Themenliste:

  • Switching spin spirals by stoichiometry
  • Charge transport across magnetic nanostructures on the atomic scale
  • Investigation of localized states in magnetic adatoms on Nb(110)
  • Growth and characterization of topological insulator thin films on Nb(110)
  • Influence of magnetic and non-magnetic adatoms on the 1D edge states of Pb1-xSnxSe

Mehr informationen zu den einzelnen Themen gibt es hier. Bei Inter­es­se melden Sie sich bitte bei Prof. Matthias Bode (Stand 24.01.2024).


Bachelor-Expo 2024

Science news

"Crossing a topological wall"

Chiral symmetry is one of the fundamental symmetries in nature, besides time reversal and the inversion of space. Compared to the other two symmetries, chiral symmetry is the most intricate and the hardest to measure.  It appears not only in the standard model of particle physics but also—as an effective symmetry—in the excitation structure of certain crystalline materials. In a joint study with collaborators from the Polish Academy of Sciences and the University of Zurich we were able to show how subtle violations of chiral symmetry can be detected.  To do so, we studied odd-atomic steps in the topological crystalline insulator (Pb,Sn)Se.  By utilizing scanning probe microscopy and a detailed control over other broken symmetries via magnetic fields we show that chiral symmetry breaking leads to a shift in the guiding center coordinates of Landau orbits near step edges, resulting in a chiral flow of spectral weight. The results has been published in Newton 1, 100009 (2025)

On Jan. 24, Markus Leisegang, Manuel Seitz, and Patrick Härtl presented our group's activities at the Bachelor-Expo 2024.  This was another occasion where our "macro-STM" attracted a lot of attention.  Thanks to all who contributed!!

Upcoming Colloquia & Seminars

Keine Nachrichten verfügbar.

PhD defense of Paula Weber

On July 12, Paula Weber successfully defended her PhD thesis on "Spin structures in manganese surfaces on bcc and fcc single-crystals of 5d elements studied by spin-polarised scanning tunneling microscopy: Mn-W(001) and MnOx-Ir(001)".  Her work unraveled some of the most complex configurations of magnetic moments.  We would like to congratulate Dr. Weber for her achievements and wish her all the best for her future life and career!


Funding

SFB logo

The third funding period of our SFB 1170 “Topological and Correlated Electronics at Surfaces and Interfaces” (ToCoTronics) has been approved! Our research group is contributing by two projects to this collaborative research effort:

In project A02 we will investigate spin-resolved transport properties of topological materials. We will utilize the spin-polarized molecular nanoprobe (SP-MONA), a novel technique which allows for investigations at single-nm length scales and with single-impurity sensitivity. 

Project C02 is aimed towards ultra-high resolution surface studies of topological superconductors. We will engineer and scrutinize the properties of (i) two-dimensional thin film hybrid systems, (ii) one-dimensional adatom chains, and (iii) lattices of impurities, all viable platforms which potentially host Majorana modes.

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Lehrstuhl für Experimentelle Physik II
Am Hubland
97074 Würzburg

Tel.: +49 931 31-85756
Fax: +49 931 31-85158
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