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Meeting MS&T25: Materials Science & Technology
Symposium Materials Processing and Fundamental Understanding Based on Machine Learning and Data Informatics
Presentation Title ML-Informed ReaxFF Development for Complex Metal Carbide, Oxide and Nitride Materials
Author(s) Adrianus C. Van Duin, Asma Ul Hosna, Mozhdeh Mirakhory, Zihan Wang, Wei Chen, Yun Kyung Shin
On-Site Speaker (Planned) Yun Kyung Shin
Abstract Scope The ReaxFF method [1] provides highly transferable simulation methods for atomistic scale simulations on chemical reactions at the nanosecond and nanometer scale. This method combines concepts of bond-order based potentials with a polarizable charge distribution. At this moment, over 1000 ReaxFF publications have appeared in open literature and the ReaxFF code has been distributed around the world. Here we describe development and applications of the ReaxFF methods to complex, multi-element metal carbide/nitride/oxide materials, with applications to hypersonic environments. For this, we utilize Machine Learning (ML) methods to compare configurations encountered during high-temperature ReaxFF molecular dynamics simulations with the data from the ReaxFF training set, enabling us to identify the ReaxFF accuracy and allowing us to design an automatic, self-evaluating and self-improving framework for the design of reactive force fields for complex materials and their interfaces. [1] van Duin et al. (2001) Journal of Physical Chemistry A 105, 9396-9409.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

B-3: Machine Learning of the Creep Life of Heat-Resistant Steel and Thermodynamical Analysis Using Generative AI
Designing Materials and Processes for Power Generation Using Advanced AI Tools Such as Graph Neural Networks
Imbalance Learning, Inverse Design and Transfer Learning of High Entropy Alloys
Is AI/ML All We Need for Autonomous Experiments
Machine Learning Disordered Materials Properties
ML-Informed ReaxFF Development for Complex Metal Carbide, Oxide and Nitride Materials
Preprocessing of Inconsistent Creep Data Collected from a Literature Survey to Provide Reliable and Consistent Creep Life Prediction
The Applications of Generative Adversarial Networks (GANs) on the Prediction of the Material’s Microstructure
The Emergence of Machine Learning and Deep Learning Based Image Segmentation for Powder and Particle Characterization in Materials
Thermodynamic Investigation of LCO/LSM-Based Perovskites via CALPHAD/DFT/ML
Unraveling Doping Effects in LaCoO3 via Machine Learning-Accelerated First-Principles Simulations

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