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About this Symposium

Meeting MS&T25: Materials Science & Technology
Symposium Materials Under Extreme Environment
Sponsorship ACerS Engineering Ceramics Division
TMS: Mechanical Behavior of Materials Committee
TMS: Computational Materials Science and Engineering Committee
Organizer(s) Robert Slapikas, DEVCOM Army Research Laboratory
Anindya Ghoshal, DEVCOM Army Research Laboratory
Douglas E. Wolfe, Pennsylvania State University
Scope Materials that are able to survive severe aerodynamic and aerothermal conditions, such as strong thermomechanical stresses and deformation at temperatures above 2000 C, are necessary for hypervelocity regimes ranging from Mach 1 to Mach 40. These materials need to be phase stable, have high strength, and be resistant to oxidation, creep, fatigue, and thermal and cyclic shock. Materials including composites, ceramics, ceramic matrix composites, refractory high entropy alloys and oxides offer promise in fulfilling these requirements, despite their narrow application field. When in-situ observations are not feasible, simulations can fill in the gaps left by experiments and assist in the analysis of experimental data. Combining simulations and experimental testing at various length scales, temperatures, and strain rates is essential for progressing existing materials and creating new composites and functional materials for these extreme kinetic environments. The purpose of this conference symposium is to promote presentations and discussions of ablative materials for space technology, applications of aerothermal mechanical materials, and creative methods for creating next-generation materials that go beyond current hypervelocity applications. We invite abstract submissions on the following topics related to kinetic environments encompassing high temperatures aero thermomechanical fatigue applications:

-Simulations for accelerated alloy and composites (CALPHAD, crystal plasticity, phase-field, atomistic…)
-Simulations and experiments to understand microstructures and mechanical properties (uni- or multi-axial loading, damage, fatigue…)
-Degradation (corrosion, oxidation, ablation, wear…)
-Advanced in-situ characterization techniques (electron microscopy, high energy X-ray diffraction and tomography…)
-3D characterization (electron back scattered diffraction, high energy X-ray diffraction and microscopy…)
-Advanced processing for metastable materials and near-net shape components
-Coatings and shape memory alloys and internal cooling and control systems
-Control Systems
-Advanced testing of ceramic matric composites
-Understanding of IR and RF frequencies in extreme environments

Abstracts Due 05/15/2025

PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE


A high-throughput test methodology for determining the Hugoniot Elastic Limit
Coupled Extremes in Nanoindentation: Temperature and Strain Rate Effects in Structural Materials
Design of Oxidation Resistant HfC-TaC Ultra-High Temperature Ceramics Based on Thermodynamic and Kinetic Modeling of the Hf-Ta-C-O System
Developing advanced in-situ microscopy techniques for testing materials under coupled extremes
Development of improved titanium coatings based on thermodynamic modeling and microstructure studies
Development of Superhard High-Entropy Carbide and Carbonitrides for Extreme Environments via FAST Sintering
High Temperature Ablation of Pressureless Sintered HfC-SiC-TaC Ceramics
Impact of Microstructure on the Oxidation Resistance of Silicon Carbide Manufactured by Two Step Sintering.
Microstructural Evolution and Strength of 3D-printed Oxide-Dispersion and Precipitate Strengthened Superalloys
Molecular dynamics simulations of shock in the Ni-Al system
Novel Energy Absorbing Ceramic Materials for Rotating Detonation Engines
On the role of grain boundaries in metal oxidation
Tailoring Microstructure and Phase Constitution of Ytterbium Disilicate Environmental Barrier Coatings Manufactured by Atmospheric Plasma Spraying
The effects of dynamic shock compression of REE-doped Cryptomelane (K-OMS-2)
UHTCMC green bodies formed by electrophoretic co-deposition of ZrC and SiC on carbon fiber
Understanding the effects of microstructure through crystal plasticity models


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