Anton Vladyka received his B.Sc. degree in Applied Physics from Taras Shevchenko National University of Kyiv, Ukraine, in 2010 and M.Sc. degree in 2012 (thesis work “Transport and noise characteristics of individual biomolecules in mechanically controllable break-junctions” performed in the Forschungszentrum Jülich, Germany).
Joined the group in November 2012 under the project “SyMoNe”.

Office: 0.23
Phone: +41(0)61 26 73780
E-mail: anton.vladyka(at)

molecular junctions; nanoparticles arrays; hybrid graphene-NP devices

micro- and nanofabrication; soft lithography; Matlab, R, Python, Julia programming; POV-ray

List of publications

  1. In-situ formation of one-dimensional coordination polymers in molecular junctions
    Anton Vladyka, Mickael L. Perrin, Jan Overbeck, Rubén R. Ferradás, Víctor García-Suárez, Markus Gantenbein, Jan Brunner, Marcel Mayor, Jaime Ferrer, and Michel Calame.
    Nature Communications, 10(1), 262, 2019 [DOI]
  2. Ordered nanoparticles arrays interconnected by molecular wires: electronic and optoelectronic properties
    J. Liao, S. Blok, S. J. van der Molen, S. Diefenbach, A. Holleitner, C. Schönenberger, A. Vladyka, and M. Calame.
    Chem. Soc. Rev., 44 (4), 999-1014, 2015 [DOI] [Abstract]

    Arrays of metal nanoparticles in an organic matrix have attracted a lot of interest due to their diverse electronic and optoelectronic properties. Recent work demonstrates that nanoparticle arrays can be utilized as a template structure to incorporate single molecules. In this arrangement{,} the nanoparticles act as electronic contacts to the molecules. By varying parameters such as the nanoparticle material{,} the matrix material{,} the nanoparticle size{,} and the interparticle distance{,} the electronic behavior of the nanoparticle arrays can be substantially tuned and controlled. Furthermore{,} via the excitation of surface plasmon polaritons{,} the nanoparticles can be optically excited and electronically read-out. The versatility and possible applications of well-ordered nanoparticle arrays has been demonstrated by the realization of switching devices triggered optically or chemically and by the demonstration of chemical and mechanical sensing. Interestingly{,} hexagonal nanoparticle arrays may also become a useful platform to study the physics of collective plasmon resonances that can be described as Dirac-like bosonic excitations.

  3. Interplay Between Mechanical and Electronic Degrees of Freedom in pi-Stacked Molecular Junctions: From Single Molecules to Mesoscopic Nanoparticle Networks
    Tahereh Ghane, Daijiro Nozaki, Arezoo Dianat, Anton Vladyka, Rafael Gutierrez, Jugun Prakash Chinta, Shlomo Yitzchaik, Michel Calame, and Gianaurelio Cuniberti.
    J. Phys. Chem. C, 119 (11), 6344-6355, 2015 [DOI] [Abstract]

    Functionalized nanoparticle networks offer a model system for the study of charge transport in low-dimensional systems as well as a potential platform to implement and test electronic functionalities. The electrical response of a nanoparticle network is expected to sensitively depend on the molecular inter-connects, i.e. on the linker chemistry. If these linkers have complex charge transport properties, then phenomenological models addressing the large scale properties of the network need to be complemented with microscopic calculations of the network building blocks. In this study we focus on the interplay between conformational fluctuations and electronic $\pi$-stacking in single molecule junctions and use the obtained microscopic information on their electrical transport properties to parametrize transition rates describing charge diffusion in mesoscopic nanoparticle networks. Our results point out at the strong influence of mechanical degrees of freedom on the electronic transport signatures of the studied molecules. This is then reflected in the varying charge diffusion at the network level. The modeling studies are complemented with first charge transport measurements at the single-molecule level of $\pi$-stacked molecular dimers using state of the art mechanically controllable break junction techniques in a liquid environment.

  4. Noise and transport characterization of single molecular break junctions with individual molecule
    V. A. Sydoruk, D. Xiang, S. A. Vitusevich, M. V. Petrychuk, Anton Vladyka, Yi Zhang, A. Offenhäusser, V. A. Kochelap, A. E. Belyaev, and D. Mayer.
    J. Appl. Phys., 112(1), 14908, 2012 [DOI]

List of talks

  1. Controlled formation of organometallic molecular junctions in liquid environment.
    Anton Vladyka, J. Brunner, M.Gantenbein, M.Mayor, R. R. Ferradás, J.Ferrer, and Michel Calame. In 8th International Conference on Molecular Electronics “Elecmol-2016”, Paris, France, Aug 2016.
  2. Self-assembled nanoparticle arrays with graphene contacts.
    Anton Vladyka, Y. Viero, D. Vuillaume, and Michel Calame. In 2016 European Material Research Society Spring Meeting, Lille, France, May 2016.
  3. Transport properties characterization of individual molecule device using noise spectroscopy: A new approach.
    Anton Vladyka, Viktor Sydoruk, Svetlana Vitusevich, Mykhailo Petrychuk, Dong Xiang, Andreas Offenhäusser, Vyacheslav Kochelap, Alexander Belyaev, and Dirk Mayer. In ICPS 2012 Zürich, volume 401, pages 401-402, 2013. [DOI] [Abstract]

    We studied the noise properties of break junction devices with and without a single 1,4-benzeneditiol molecule. Two noise components were registered in all noise spectra: thermal noise and flicker noise. In addition, a Lorentzian-shape (1/f 2) noise component was revealed for the molecular junctions only. The characteristic frequency of the Lorentzian-shape noise depends linearly on current through the molecular junction. These results are in good agreement with the proposed phenomenological model.

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