[22] F. Thelen, R. Zehl, R. Zerdoumi, J. L. Bürgel, L. Banko, W. Schuhmann, A. Ludwig, Accelerating Combinatorial Electrocatalyst Discovery with Bayesian Optimization: a Case Study in the Quaternary System Ni-Pd-Pt-Ru for the Oxygen Evolution Reaction. Adv. Sci. 2025, e07302.
[21] J. L. Bürgel, R. Zehl, F. Thelen, R. Zerdoumi, O. A. Krysiak, B. Kohnen, E. Suhr, W. Schuhmann and A. Ludwig (2025) Exploration of nanostructured high-entropy alloys for key electrochemical reactions: a comparative study for the solid solution systems Cu-Pd-Pt-Ru, Ir-Pd-Pt-Ru and Ni-Pd-Pt-Ru, Faraday Discuss., Accepted Manuscript
[20] L. Zhang, L. Banko, W. Schuhmann, A. Ludwig, & M. Stricker. (2025). Composition-property extrapolation for compositionally complex solid solutions based on word embeddings. Digital Discovery, Advance Article.
[19] C.M. Schott, J. Holl, R. Zazpe, M. Kopp, O. Man, S.M. Thalluri, J. Rodriguez-Pereira, P.M. Schneider, K-T. Song, E. Keles, P. Peljo, J. Jasielec, E.L. Gubanova, J.M. Macak, A.S. Bandarenka (2025) Revealing catalytic properties of palladium gold systems toward hydrogen evolution, oxidation, and absorption with scanning electrochemical microscopy, ACS Catalysis 15, 9035-9046
[18] V. Dudarev, L. Banko, & A. Ludwig (2025) An extensible open-source solution for research digitalisation in materials science, Npj Computational Materials, 11(1)
[17] F. Thelen, R. Zehl, J. L. Bürgel, D. Depla, and A. Ludwig (2025) A python-based approach to sputter deposition simulations in combinatorial materials science, Surface and Coatings Technology, 503, 131998
[16] A. A. Papaderakis, E. Paschalidou, L. Z. Medina, E. Hatipoglu, A. Saksena, B. Gault, B. Sefer, D. Malmström, P. Hosseini, O. Trost, A. Lozinko, M. Ramkaran, A. Juel, K. Tschulik, R. A. Dryfe (2025) Hydrogen-induced superhydrophilicity in an amorphous CrFeNi-based multi-principal element alloy thin film, Acta Materialia, 286, 120756.
[15] C. Schott, L. Hofbauer, E. Gubanova, P. Schneider, A. Bandarenka (2025) Scanning impedance microscopy under oxygen reduction reaction conditions. Proof of the concept, Electrochimica Acta, 513, 145533.
[14] D. Nettler, J. Clausmeyer, A. Savan, P. Cignoni, C. Rurainsky, R. Drautz, A. Ludwig, K. Tschulik (2025) Does Pb underpotential deposition rearrange surface-near atoms in AgAu films and nanoparticles? Electrochimica Acta, 518, 145776.
[13] K.-T. Song, P. M. Schneider, I. Grabovac, B. Garlyyev, S. A. Watzele, A. S. Bandarenka (2025) Influence of the electrolyte pH on the double layer capacitance of polycrystalline Pt and Au electrodes in acidic solutions, ChemElectroChem, 12(4), 202400587.
[12] A. Ngoipala, C. Schott, V. Briega‐Martos, M. Qamar, M. Mrovec, S. J. Nikkhah, T. O. Schmidt, L. Deville, A. Capogrosso, L. Moumaneix, T. Kallio, A. Viola, F. Maillard, R. Drautz, A. S. Bandarenka, S. Cherevko, M. Vandichel, E. L. Gubanova (2024) Hydride‐Induced reconstruction of Pd electrode surfaces: A combined computational and experimental study, Advanced Materials, 37(4), 2207951.
[11] Y. Li, A. Kostka, A. Savan, A. Ludwig (2024) Investigation of Solid-State Interface Reactions Between the Compositionally Complex Solid Solution Noble Metal Alloy Ag-Au-Pd-Pt and Si, Advanced Materials Interfaces, 2400772.
[10] C. M. Schott, P. M. Schneider, K. Song, H. Yu, R. Götz, F. Haimerl, E. Gubanova, J. Zhou, T. O. Schmidt, Q. Zhang, V. Alexandrov, A. S. Bandarenka (2024) How to assess and predict electrical double layer properties. Implications for electrocatalysis, Chemical Reviews, 124(22), 12391–12462.
[9] L. Zhang, L. Banko, W. Schuhmann, A. Ludwig, M. Stricker (2024) Composition-property extrapolation for compositionally complex solid solutions based on word embeddings, arXiv:2411.05466
[8] M. F. Nygaard, M. L. S. Nielsen, J. Rossmeisl (2024) Adsorbate resonance induces Water‐Metal bonds in electrochemical interfaces, Angewandte Chemie International Edition, 64, 7, e202417308.
[7] L. Han, S. Zhu, Z. Rao, C. Scheu, D. Ponge, A. Ludwig, H. Zhang, O. Gutfleisch, H. Hahn, Z. Li, D. Raabe (2024) Multifunctional high-entropy materials, Nature Reviews Materials, 9, 846–865.
[6] G. A. De Oliveira, M. Kim, C. S. Santos, N. Limani, T. D. Chung, E. B. Tetteh, W. Schuhmann (2024) Controlling surface wetting in High-Alkaline Electrolytes for single facet PT Oxygen Evolution Electrocatalytic Activity mapping by scanning electrochemical cell microscopy, Chemical Science, 15, 16331–16337.
[5] R. Zerdoumi, A. Ludwig, W. Schuhmann (2024) High entropy intermetallic compounds: A discovery platform for structure-property correlations and materials design principles in electrocatalysis, Current Opinion in Electrochemistry, 48, 101590.
[4] C. Luan, D. Escalera-López, U. Hagemann, A. Kostka, G. Laplanche, D. Wu, S. Cherevko, T. Li (2024) Revealing Dynamic Surface and Subsurface Reconstruction of High-Entropy Alloy Electrocatalysts during the Oxygen Evolution Reaction at the Atomic Scale, ACS Catalysis, 14 (17), 12704–12716.
[3] J. Ke, Z. Zacouris, M. Acosta (2024) Efficient Validation of SHACL Shapes with Reasoning, Proceedings of the VLDB Endowment, 17, 11, 3589–3601.
[2] R. Zerdoumi, T. Quast, E. B. Tetteh, M. Kim, L. Li, S. Dieckhöfer, W. Schuhmann (2024) Integration of Scanning Electrochemical Microscopy and Scanning Electrochemical Cell Microscopy in a Bifunctional Nanopipette toward Simultaneous Mapping of Activity and Selectivity in Electrocatalysis, Analytical Chemistry 96, 27, 10886–10892.
[1] F. C. Østergaard, F. Abild-Pedersen, J. Rossmeisl (2024) Coverage, repulsion, & reactivity of hydrogen on High-Entropy alloys, Journal of Catalysis, 435, 115570.
