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Hoernke CV

Dr. Maria Hoernke studied chemistry at the Martin-Luther-Universität    in Halle (Germany) and at Universidad de Burgos (Spain). Maria  performed her PhD project at the MPI in Potsdam and specialized in bio-physical chemistry and biophysics and obtained her habilitation in pharmaceutics at Freiburg University.

Her  Diploma thesis focused on the interactions of peptides with lipid model  membranes and was carried out in 2007/2008 in Halle (S.). For her PhD  project, Maria moved to the interfaces department of Max-Planck-Institute  of Colloids and Interfaces in Potsdam (Germany) to study the impact of  interfaces on amyloid formation of peptides. After receiving her PhD in  2012, she joined the Theory & Bio-Systems department of the  same MPI to complement the project with molecular dynamics simulations  as a Postdoc. In 2013, Maria joined Göteborgs Universitet (Sweden). She  won a Marie Curie IEF fellowship in order to use time resolved X-ray  solution scattering to study conformational changes in photoreceptor  proteins. She also investigated structural changes in membrane  associated proteins by infrared spectroscopy. 2015 Maria moved to  Freiburg to help establishing the Heerklotz group. The Daimler and Benz  foundation contributed funding and since 2019 Maria raises funding for  her own team from the DFG, and more recently also by the European Union  together with the state of Saxony-Anhalt. In 2023, the team got  split to Freiburg and Halle University and is now fully located at Halle  University. Maria achieved venia legendi in 2024.

Maria was speaker of the section 'Membrane Biophysics' of Deutsche Gesellschaft für Biophysik e.V.
https://www.dgfb.org/de/ueber-dgfb/sektion-ii-membran-biophysik   

Research topics

  • Biophysics of lipid membranes
  • Conformational changes and orientation of membrane‑bound, surface‑bound and soluble proteins or peptides
  • Interactions of polymers or peptides with membranes
  • Permeabilization of lipid membranes, selectivity
  • Drug delivery across membranes
  • Archaeal membranes
  • Self‑assembly of designer proteins
  • Surface‑sensitive biophysical methods

Methods

  • Fluorescence spectroscopy (TCSPC, FRET, etc.)
  • Infrared spectroscopy (including infrared reflection‑absorption spectroscopy)
  • Microcalorimetry (differential scanning calorimetry, isothermal titration calorimetry)
  • Monolayer methods
  • X‑ray scattering (SAXS/WAXS, time‑resolved X‑ray scattering, grazing incidence X-ray diffraction, reflectometry, total reflection X-ray fluorescence)
  • UV/Vis spectroscopy
  • Circular dichroism
  • Dynamic light scattering

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