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Meeting MS&T24: Materials Science & Technology
Symposium Understanding High Entropy Materials via Data Science and Computational Approaches
Presentation Title Predictive Screening of Phase Stability in High-Entropy Borides
Author(s) Muhammad Waqas Qureshi, Shuguang Wei, Jun Young Kim, Dane Morgan, Izabela Szlufarska
On-Site Speaker (Planned) Muhammad Waqas Qureshi
Abstract Scope High-entropy materials offer unprecedented opportunities for tailoring mechanical, chemical, and thermal properties for enhanced performance across a multitude of energy storage, catalysis, nuclear and high-temperature applications. However, the major challenge in advancing their discovery lies in accurately predicting their single-phase stability and formation ability. In this study, we predicted stability of several new single-phase high-entropy borides (HEBs) by using a combination of CALPHAD and screening of descriptors through first-principal calculations. All the compositions undergo screening using available descriptors including entropy forming ability and lattice distortion and empirical descriptors. All existing descriptors have a misclassification regime, which limits their accuracy for predicting HEBs. Here, we propose a new cost-effective descriptor, called structure penalty, which predicts the stability of HEBs consistently with all the currently available experimental data and calculated phase diagrams. Our combinational approach holds the promise of expediting the design of HEBs by effectively integrating theoretical predictions with experimental investigations.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A First Principles High Throughput Screening Method for Corrosion Resistant High Entropy Materials
Analyzing, Understanding, and Guided Design of Solid Disordering by the Density of Atomistic States (DOAS)
Characterization of Thermal Sprayed Ultrahard Coatings for Stamping Die Surfaces from Refractory High Entropy Alloys Designed Using DFT Calculations
Contributions to Diffusion in Complex Materials Quantified with Machine Learning
Design Metastability in High-Entropy Alloys by Tailoring Unstable Fault Energies
Electronic-Structure-Guided Tailoring of Refractory High-Entropy Alloys for Extreme Environment
Electronic Descriptors for Dislocation Deformation Behavior and Intrinsic Ductility in bcc High-Entropy Alloys
Entropy for Energy: High-Entropy Materials for Energy Applications
Factors Affecting Calculated Properties of RHEAs Using Density Functional Theory
Grain Boundary Segregation-Driven Elemental Patterning Amplifies Chemical Short-Range Order in NiCoCr
Lattice Correspondence Analyses of Phase Transformations in a High Entropy Alloy
Machine Learning Design of Additively Manufacturable Tungsten-Based Refractory Multi Principle Element Alloys with Enhanced Strength at Extreme Temperatures
Modeling Distribution of Unstable Stacking Fault Energy in bcc Refractory High-Entropy Alloys and its Implication to Ductility Assessment
Predicting Intrinsic Ductility of Refractory High Entropy Alloys
Predictive Screening of Phase Stability in High-Entropy Borides
Screening High-Entropy Oxide Compositions Using Machine Learned Interatomic Potential
Spinel-Structured Precipitate Morphology in High-Entropy Mg0.2Ni0.2Co0.2Cu0.2Zn0.2O Epitaxial Films: Thermodynamic and Phase-Field Investigations
ULTERA: A Data Ecosystem for High Entropy Materials (HEMs)
Using Materials Informatics to Quantify Complex Correlations Linking Structure, Properties and Processing in High-Entropy Alloys
Utilizing Atomistic Calculations for Processing High-Value Magnetic Material Derived from FeNiMoW

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