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Friedrich-Alexander-Universität Maier Group
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  • Department of Physics
  • Chair of Experimental Physics
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  1. Friedrich-Alexander-Universität
  2. Naturwissenschaftliche Fakultät
  3. Department Physik
Friedrich-Alexander-Universität Maier Group
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  • Team
    • Sabine Maier
    • Maier Group
    • Chair of Experimental Physics
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  • Research
    • High-resolution scanning probe microscopy
    • On-surface synthesis of atomically-precise molecular nanomaterials
    • 2D materials: Transition metal halides and graphene
    • Molecular structures on non-metallic substrates
    • Water wetting on surfaces (past)
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  3. 2D materials: Transition metal halides and graphene

2D materials: Transition metal halides and graphene

In page navigation: Research
  • High-resolution scanning probe microscopy
  • On-surface synthesis of atomically-precise molecular nanomaterials
  • Molecular structures on non-metallic substrates
  • 2D materials: Transition metal halides and graphene
  • Water wetting on surfaces (past)

2D materials: Transition metal halides and graphene

In addition to molecular materials, our research activities also address the growth, structure, functionalization, patterning, and electronic properties of transition metal halides (TMH) and graphene using low-temperature scanning probe microscopy (STM / ncAFM) and spectroscopy techniques (tunneling / force spectroscopy) in ultra-high vacuum.

Recently, our research focused on the growth and patterning of transition metal halides on Au(111). Additionally, we investigated the structural and electronic properties of graphene functionalized both non-covalently and covalently using high-resolution scanning probe microscopy. This research includes studies on epitaxial graphene grown on metals and SiC(0001). By controlling the functionalization, we can modify the physical and chemical properties of graphene, and explore the interactions between molecules, metal clusters, and graphene. These research activities are part of the SFB 953 program.

 

AFM measurement in ambient condition of a free-standing graphene membrane on SiC(0001)
[ACS NANO 2013]

Selected publications:

  • Intrinsically Patterned Two-Dimensional Transition Metal Halides
    F. Xiang, N. Bisht, B. Da, M.S.G. Mohammed, Ch. Neiss, A. Görling, S. Maier
    ACS Nano, 18, 29, 18870–18879 (2024)
  • Gateless patterning of epitaxial graphene by local intercalation
    C. Sorger, S. Hertel, J. Jobst, C. Steiner, K. Meil, K. Ullmann, A. Albert, Y. Wang, M. Krieger, J. Ristein,
    S. Maier, H. Weber
    Nanotechnology 26, 025302 (2015)
  • Graphene-Templated Growth of Pd Nanoclusters
    K. Gotterbarm. C. Steiner, C. Bronnbauer, U. Bauer, H.-P. Steinrück, S. Maier*, Ch. Papp*
    J. Phys. Chem. C, 118, 29, 15934–15939 (2014)
  • Robust Graphene Membranes in a Silicon Carbide Frame
    D. Waldmann, B. Butz, S. Bauer, J.M. Englert, J. Jobst, K. Ullmann, F. Fromm, M. Ammon, M. Enzelberger, A. Hirsch, S. Maier, P. Schmuki, Th. Seyller, E. Spiecker, and H.B. Weber
    ACS Nano, 7 (5), 4441–4448 (2013)

Addition information

FAU Erlangen-Nürnberg
Department of Physics

Erwin-Rommel-Str. 1
91058 Erlangen
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