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Home » Institute » Departments & Research Groups » Artificial Intelligence for Integrated Material Science » AIMS Publications

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  • 2026
  • 2025
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  • 2022
  • 2021
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  • 2026

  • T. Cavignac, J. Schmidt, P. De Breuck et al. AI-driven expansion and application of the Alexandria database. Journal of Physics: Materials, 9, 025014, (2026)
  • P. Pires, T. Bispo Da Silva, K. Gao et al. Machine learning driven exploration of hydride superconductors at ambient pressure. Computational Materials Today, 10, 100052, (2026)
  • K. H. Hiorth, M. Gutierrez-Amigo, T. Cavignac et al. Ab-initio superfluid weight and superconducting penetration depth. Physical Review B, 1, 12, (2026)
  • T. Bispo Da Silva, H. Wang, T. F. T. Cerqueira et al. High-throughput study of electrical conductivity in ordered metals. arXiv:2605.22167, 1, xx, (2026)
  • M. Keller, H. Wang, F. Bechstedt et al. Optical selection rules in hexagonal Ge polytypes and their lifting by symmetry perturbation. arXiv:2605.10709, 1, xx, (2026)
  • H. Li, L. Lin, X. Guo et al. Electronic structure engineering in MXene SACs: unveiling the role of mixed termination for ORR/OER bifunctionality. Small, 22, e14330, (2026)
  • H. Lv, F. Guo, J. Li et al. Reverse reaction pathways for efficient CO2–to–formic acid conversion at Cu2O–Bi2O3 interfaces in ionic liquids. ACS Catalysis, 16, 7633–7645, (2026)
  • N. Bhatia, O. Krejci, S. Botti et al. MACE4IRmol: An uncertainty-aware foundation model for molecular infrared spectroscopy. arXiv:2508.19118v2, 1, 36, (2026)
  • V. Dovale-Farelo, P. Tavadze, M. Marques et al. System-conditioned reparameterization of the SCAN functional for accurate bandgaps: from analytical constraints to machine learning. npj Computational Materials, 12, 162, (2026)
  • A. Loew, J. Schmidt, S. Botti et al. Universal machine learning potentials under pressure. Journal of Physics: Materials, 9, 015010, (2026)
  • R. A. Mustaf, K. P. Sajilesh, S. Mishra et al. Machine learning-guided discovery of Kagome superconductors YRu3B2 and LuRu3B2. arXiv: 2512. 16945, 1, 15, (2026)
  • F. Tran, S. Lehtola, S. Pittalis et al. Semi-local exchange-correlation approximations in density functional theory. arXiv: 2602.1733, 1, 194, (2026)
  • P. De Breuck, H. Piracha, G. Rignanese et al. A generative material transformer using Wyckoff representation. npj Computational Materials, 12, 60, (2026)
  • T. Cerqueira, H. Wang, S. Botti et al. A non-orthogonal representation for materials based on chemical similarity. npj Computational Materials, 12, 48, (2026)
  • A. Peng, C. Cai, M. Guo et al. LAMBench: a benchmark for large atomistic models. npj Computational Materials, 12, 62, (2026)
  • 2025

  • D. Dangić , Y. Fang, T. Cerqueira et al. Ambient pressure high temperature superconductivity in RbPH3 facilitated by ionic anharmonicity. Computational Materials Today, 8, 100043, (2025)
  • J. Hu, W. Ruan, Q. Bai et al. Axial coordination of iron single-atom catalysts on defective graphene for electrocatalytic conversion of Nitric Oxide to Hydroxylamine: a theoretical investigation. Langmuir, 41, 33829–33837, (2025)
  • P. De Breuck, H. Wang, G. Rignanese et al. Generative AI for crystal structures: a review. npj Computational Materials, 11, 370, (2025)
  • G. Benedini, A. Loew, M. Hellström et al. Universal machine learning potentials for systems with reduced dimensionality. AI for Science, 1, 025005, (2025)
  • K. Sharma, A. Loew, H. Wang et al. Accelerating point defect photo-emission calculations with machine learning interatomic potentials. npj Computational Materials, 11, 334, (2025)
  • X. Fu, X. Guo, P. Shi et al. Control of CO2 electrocatalysis via modularly customizable graphdiyne. Journal of the American Chemical Society, 147, 42394–42405, (2025)
  • X. Li, W. Xu, Z. Zhou et al. High-Tc superconductivity above 130 K in cubic MH4 compounds at ambient pressure. arXiv: 2511.04222, 1, 9, (2025)
  • K. Gao, W. Cui, T. Cerqueira et al. Enhanced superconductivity in X4H15 compounds via hole-doping at ambient pressure. Advanced Science, 12, e08419, (2025)
  • J. Jacobs, C. Ritter, Ke. Xu et al. Structural and electronic tunability of Ruddlesden–Popper oxyfluorides through nickel–copper substitution in La2Ni1−xCuxO2.5F3 (0 ≤ x ≤ 1). Journal of Materials Chemistry A, 13, 32539–32550, (2025)
  • T. da Silva, T. Cerqueira, H. Wang et al. High-throughput study of kagome compounds in the AV3Sb5 family. Digital Discovery, 4, 2431–2438, (2025)
  • K. Xie, Ye. Shen, L. Lin et al. Machine learning-enhanced design of 2D TM3(HXBHYB)@MOF-based single-atom catalysts for efficient oxygen electrocatalysis. The Journal of Physical Chemistry Letters, 16, 9682, (2025)
  • Q. Wang, X. Guo, Mo. Lin et al. Protonation and deprotonation of edges in graphene oxide and MXenes as a driving force for actuation in responsive 2D membranes. Nature Communications, 16, 8683, (2025)
  • K. Gao, T. Cerqueira, A. Sanna et al. The maximum Tc of conventional superconductors at ambient pressure. Nature Communications, 16, 8253, (2025)
  • W. Wang, X. Guo, Y. Wang et al. Transformation of CO2 to C2+ alcohols by tailoring the oxygen bonding via Fe-based tandem catalyst. Nature Communications, 16, 7265, (2025)
  • A. Loew, D. Sun, H. Wang et al. Universal machine learning interatomic potentials are ready for phonons. npj Computational Materials, 11, 178, (2025)
  • J. Deng, Y. Jiang, T. F. T. Cerqueira et al. Theory of Superconductivity in LaRu3Si2 and Predictions of New Kagome Flat Band Superconductors. arXiv:2503.20867, 1, 71, (2025)
  • T. da Silva, T. Cavignac, T. Cerqueira et al. Machine-learning accelerated prediction of two-dimensional conventional superconductors. Materials Horizons, -, -, (2025)
  • 2024

  • A. Aouina, P. Borlido, M. Marques et al. Assessing exchange-correlation functionals for accurate densities of solids. Journal of Chemical Theory and Computation, 20, 10852–10860, (2024)
  • A. Loew, H. Wang, T. Cerqueira et al. Training machine learning interatomic potentials for accurate phonon properties. Machine Learning: Science and Technology, 5, 045019, (2024)
  • J. Schmidt, T. Cerqueira, A. Romero et al. Improving machine-learning models in materials science through large datasets. Materials Today Physics, 48, 101560, (2024)
  • T. Cerqueira, Y. Fang, I. Errea et al. Searching materials space for hydride superconductors at ambient pressure. Advanced Functional Materials, 34, 2404043, (2024)
  • M. Evans, J. Bergsma, A. Merkys et al. Developments and applications of the OPTIMADE API for materials discovery, design, and data exchange. Digital Discovery, 3, 1509–1533, (2024)
  • H. Wang, T. Rauch, A. Tellez-Mora et al. Exploring flat-band properties in two-dimensional M3QX7 compounds. Physical Chemistry Chemical Physics, 26, 21558–21567, (2024)
  • J. Jacobs, H. Wang, M. Marques et al. Ruddlesden–Popper oxyfluorides La2Ni1–xCuxO3F2 (0 ≤ x ≤ 1): Impact of the Ni/Cu ratio on the thermal stability and magnetic properties. Inorganic Chemistry, 63, 11317-11324, (2024)
  • M. Seifert, T. Rauch, M. Marques et al. Structure prediction and characterization of CuI-based ternary -type transparent conductors. Journal of Materials Chemistry C, 23, 8320-8333, (2024)
  • M. Seifert, T. Rauch, M. Marques et al. Computational prediction and characterization of CuI-based ternary p-type transparent conductors. Journal of Materials Chemistry C, 12, 8320–8333, (2024)
  • J. Jacobs, H. Wang, M. Marques et al. Ruddlesden–Popper oxyfluorides La2Ni1–xCuxO3F2 (0 ≤ x ≤ 1): Impact of the Ni/Cu ratio on the structure. Inorganic Chemistry, 63, 6075–6081, (2024)
  • A. Sanna, T. Cerqueira, Y. Fang et al. Prediction of ambient pressure conventional superconductivity above 80 K in hydride compounds. npj Computational Materials, 10, 44, (2024)
  • A. Sanna, T. Cerqueira, Y. Fang et al. Prediction of ambient pressure conventional superconductivity above 80 K in hydride compounds. npj Computational Materials, 10, 44, (2024)
  • K. Gao, W. Cui, J. Shi et al. Prediction of high-Tc superconductivity in ternary actinium beryllium hydrides at low pressure. Physical Review B, 109, 014501, (2024)
  • T. Cerqueira, A. Sanna, M. Marques. Sampling the materials space for conventional superconducting compounds. Advanced Materials, 36, 2307085, (2024)
  • T. F. T. Cerqueira, A. Sanna, M. Marques. Sampling the materials space for conventional superconducting compounds. Advanced Materials, 36, 2307085, (2024)
  • 2023

  • H. Wang, A. Huran, M. Marques et al. Two-dimensional noble metal chalcogenides in the frustrated snub-square lattice. The Journal of Physical Chemistry Letters, 14, 9969-9977, (2023)
  • S. Lehtola, M. Marques. Reproducibility of density functional approximations: How new functionals should be reported. The Journal of Chemical Physics, 159, 114116, (2023)
  • L. Duc Pham, P. Sattler, M. Marques et al. Homogeneous electron liquid in arbitrary dimensions beyond the random phase approximation. New Journal of Physics, 25, 083040, (2023)
  • N. Hoffmann, T. Cerqueira, P. Borlido et al. Searching for ductile superconducting Heusler X2YZ compounds. npj Computational Materials, 9, 138, (2023)
  • J. Schmidt, N. Hoffmann, H. Wang et al. Machine-learning-assisted determination of the global zero-temperature phase diagram of materials. Advanced Materials, 35, 2210788, (2023)
  • J. Schmidt, H. Wang, G. Schmidt et al. Machine learning guided high-throughput search of non-oxide garnets. npj Computational Materials, 9, 63, (2023)
  • 2022

  • H. Kulik, T. Hammerschmidt, J. Schmidt et al. Roadmap on machine learning in electronic structure. Electronic Structure, 4, 023004, (2022)
  • 2021

  • H. Wang, S. Botti, M. Marques. Predicting stable crystalline compounds using chemical similarity. npj Computational Materials, 7, 12, (2021)
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