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Meeting MS&T26: Materials Science & Technology
Symposium Molecular Approaches to Ceramics; Synthesis, Processing, Modeling, and Derived Ceramics
Presentation Title Development and Application of ReaxFF Reactive Force Fields to Ceramics Synthesis and High-Temperature Ceramics Response
Author(s) Adrianus C. Van Duin, Asma Ul Hosna, Mozhdeh Mirakhory, Zihan Wang, Wei Chen
On-Site Speaker (Planned) Adrianus C. Van Duin
Abstract Scope The ReaxFF method[1] provides highly transferable simulation methods for atomistic scale simulations on chemical reactions. This method combines concepts of bond-order based potentials with a polarizable charge distribution. At this moment, over 1000 ReaxFF publications have appeared in literature. Here we describe development and applications of the ReaxFF methods to complex, multi-element metal boride/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 framework for the design of reactive force fields for complex materials. Using these ReaxFF parameters, we can study the curing, pyrolysis and carbonization of polymer precursors and the hypersonic response of the resulting ceramics. [1] van Duin et al. (2001) Journal of Physical Chemistry A 105, 9396-9409.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A ReaxFF Force Field for Atomistic Simulation of Tantalum Carbide Formation via Reactive Sputtering and Polymer Pyrolysis
A Systematic Approach to Enhancing the Oxidation Resistance of C/C Composites Using Multi-Layer SiC–ZrB₂-Based Coatings
Additive Manufacturing of Variable-Composition and Difficult-to-Print Ceramics Based on Preceramic Polymers
Advances in Materials for Extreme Environment Applications
Advances in the Processing of Ceramic Matrix Composites (CMCs) by Polymer Infiltration and Pyrolysis (PIP)
Building a PDC Genome: AI-Assisted Extraction and Gap Analysis of Preceramic Polymer Descriptors
Characterization of Processing-Induced Stress and Crack Formation in Polymer-Derived Ceramics During Pyrolysis
Chemical and Structural Evolution of MXene-SiOC Under Ground- and Micro-Gravity and Controlled Atmospheres
Deep Learning-Based Framework for ReaxFF Development in Reactive Material Systems
Design and Manufacturing of New Functional Ceramic Composites
Development and Application of ReaxFF Reactive Force Fields to Ceramics Synthesis and High-Temperature Ceramics Response
Development of a ReaxFF Reactive Force Field for the Investigation of Thermochemical, Thermophysical and Oxidation Behavior of Titanium Diboride
Development of MS-154 as a Lower-Cost Preceramic Polymer Route for SiC-Containing Ceramics
Development of the ReaxFF Reactive Force Field for Zirconium Carbide Ceramic Formation During Sputtering
Engineering with Carbosilane
From Single-Source Precursors to Compositionally Complex (Hf-Ti-Nb-W-V)CN Carbonitrides
Improved Electrochemical Stability of Lithium–Sulfur Batteries Using SiBCN Sulfur Hosts
Kinetics of Pyrolysis Measured During In-Situ Creep Experiments
Lignin-Silicon Hybrid Ceramic Structures: Chemically Active versus Passive Colloids in Preceramic Sol-Gel Systems
Molecularly Engineered Refractory-Metal Preceramic Inks for Printable Ultrahigh-Temperature Ceramic Coatings
Nanoscale Structural Evolution in Polycarbosilane-Derived Ceramics
Phase Evolution Study of Polymer Derived SiC and TiC-SiC Composites Under Ultrafast Heating
Photo-Rheology of Ceramic-Filled Preceramic Polymers for Material Extrusion Additive Manufacturing
Polymer-Derived SiTiOC Ceramics for Enhanced Polysulfide Confinement in Lithium–Sulfur Cells
Processing and Pyrolysis Effects in Polymer Derived Ultra-High Temperature Ceramics
Tailoring Polymer Grafted Nanoparticle Properties Via Modification of Polymer Structure and Nanoparticle Composition
The Influence of Residual Copper Catalyst on the Polymer-to-Ceramic Conversion of a Click-Derived Polycarbosilane
Understanding Pyrolysis of Polymer-Derived Carbonitrides Through Ab Initio-Based Machine Learning Interatomic Potential
Use of Embedded Oxidation Marker Particles to Track Oxidant Ingress in Heterogeneous Microstructures Produced from Polymer Derived Ceramics
Visualizing Polymer to Ceramic Transformations in SiOC Polymer Derived Ceramics with In Situ Transmission Electron Microscopy

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