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Institut I - Theoretische Physik
Universität Regensburg

Universitätsstraße 31
93053 Regensburg

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+49 (0)941 943 2043

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+49 (0)941 943 2038

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andrea.donarini(at)physik.uni-regensburg.de (opens your email program)

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PHY 3.1.21
Andrea Donarini

CV

Academic Education
2014Habilitation (Theoretical Physics): "Transport through complex interacting nanojunctions", University of Regensburg
2001 - 2004PhD in Physics: "Dynamics of Shuttle Devices", Technical University of Denmark (supervisor: A-P. Jauho)
1996 - 2001 Study of Physics: "Fisica delle nanostrutture a doppio strato" (Laurea), Università di Milano (supervisor: R. Ferrari)
  
Research and Professional Experience
since 2020Chair in Theoretical Physics (C4), Universität Regensburg
Mar 2016 - Jul 2020Assistant Professor (staff member) at the University of Regensburg
Oct 2014 - Feb 2016Assistant Professor at the University of Regensburg
Apr 2013 - Sep 2014Substitute Professor at the University of Regensburg
2010 - 2014Habilitand at the University of Regensburg
2006 - 2013 Research Assistant in the group of Prof. Milena Grifoni at the University of Regensburg
2004 - 2006 Post-doc in the group of Prof. Milena Grifoni at the University of Regensburg
  

Research

The common denominator of my research interests is the electronic transport through complex, interacting nano-junctions. I have explored several different aspects of this problem.
Together with my colleagues, I intensively studied interference effects in a benzene single electron transistor, triple dots and STM single molecule junctions. The interplay between interaction and interference has been also the focus of our work on dark state formation in suspended carbon nanotubes [1]. Along similar lines, we also studied, recently, the emergence of synthetic spin-orbit coupling due to pseudo exchange fields in a double quantum dot coupled to ferromagnetic leads [2].   
In a second research path I combine STM on a thin insulating film with THz optical pumping. The theoretical description of such lightwave driven STM allowed us recently to visualize the SOI induced electronic dynamics a copper-phthalocyanine, directly in its intrinsic time and length scales [3].
My third research line concerns nanoelectromechanical systems. We studied quantum shuttles, the dynamical symmetry breaking in the non-linear transport through a molecular junction with equivalent mechanical configurations and the role of vibrons in the current and noise of suspended carbon nanotubes [4]. Presently, I am investigating the Jahn-Teller effect in a Phthalocyanine STM single molecule junction.

 


[1]A. Donarini, et al., Coherent population trapping by dark state formation in a carbon nanotube quantum dot, Nature Communication 10, 381 (2019).
[2]C. Rohrmeier and A. Donarini,
Pseudospin resonances reveal synthetic spin-orbit interaction, Phys. Rev. B 103, 205420 (2021).
[3]M. Frankerl and A. Donarini,
Spin-orbit interaction induces charge beatings in a lightwave-STM single molecule junction
Phys. Rev. B 103, 085420 (2021).
[4]Andrea Donarini, Michael Niklas, and Milena Grifoni,
Interference and shot noise in a degenerate Anderson-Holstein model
Phys. Rev. B 102, 125422 (2020) .
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