ausgewählte Veröffentlichungen

• Abschnitt eines Buches

  • Fundamental principles of battery design 2018
  • Computational methods for battery material identification and analysis
  • Electrodes: definitions and systematisation - a crystallographers view

• Artikel

  • Combined Theoretical Approach for Identifying Battery Materials: Al3+ Mobility in Oxides.  Chemistry of materials, Vol.31(3), pp. 737-747.  2019
  • The Aluminum-Ion Battery: A Sustainable and Seminal Concept?.  Frontiers in chemistry, Vol.7, 268.  2019
  • NMR studies of Li mobility in NASICON-type glass-ceramic ionic conductors with optimized microstructure.  Journal of materials chemistry. A, Materials for energy and sustainability, Vol.7(23), pp. 13968-13977.  2019
  • Electrodes: definitions and systematisation – a crystallographers view.  Physical sciences reviews, Vol.3(10), 20180043.  2018
  • Fundamental principles of battery design.  Physical sciences reviews, Vol.3(11).  2018
  • Computational analysis and identification of battery materials.  Physical sciences reviews, Vol.4(1), 20180044.  2018
  • Identification of solid oxygen-containing Na-electrolytes: An assessment based on crystallographic and economic parameters.  Crystal research and technology , Vol.52(1), 1600223.  2017
  • Strontium titanate: From symmetry changes to functionality.  Crystal research and technology , Vol.52(1), 1600222 .  2017
  • Harmonic Principles of Elemental Crystals-From Atomic Interaction to Fundamental Symmetry.  Symmetry (Basel), Vol.10(6), 228. 
  • On the Way to New Possible Na-Ion Conductors: The Voronoi-Dirichlet Approach, Data Mining and Symmetry Considerations in Ternary Na Oxides.  Chemistry : a European journal, Vol.21(46), pp. 16601-16608. 
  • Sulfur‐ and Selenium‐Containing Compounds Potentially Exhibiting Al Ion Conductivity.  Chemistry : a European journal, Vol.25(36), pp. 8623-8629.