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Meeting 2026 TMS Annual Meeting & Exhibition
Symposium Additive Manufacturing: Materials Design and Alloy Development VII – Design With Multi-Modal and Field Data by Integrating Uncertainty
Presentation Title Sensitivity of crystallographic texture strength to enthalpy of fusion and freezing range during powder bed fusion additive manufacturing
Author(s) Brodan Richter, Joshua Pribe, George Weber, Evan Adcock
On-Site Speaker (Planned) Brodan Richter
Abstract Scope Components manufactured by powder bed fusion (PBF) frequently have a strong crystallographic texture that can cause anisotropic material properties. However, studying the role of phase-change characteristics, like the enthalpy of fusion and freezing range, on crystallographic texture development is difficult using experimental approaches. Process-structure (PS) simulations provide one avenue for studying these phenomena and a pathway to influence and control the resulting crystallographic texture. However, the trade-offs between temperature field accuracy and the computational cost of including robust phase-change characteristics in PS simulations are poorly quantified. This work uses the “Materialite” software package to simulate PBF temperature and microstructure evolution at varying values for the enthalpy of fusion and freezing range in nickel-based aerospace alloys. This study will quantify the sensitivity of the temperature field, melt pool geometry, crystallographic texture, and computational cost to phase-change characteristics during PBF simulations and inform the relative importance of simulation parameters.
Proceedings Inclusion? Planned:
Keywords Additive Manufacturing, Computational Materials Science & Engineering, ICME

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Additively manufactured aluminum alloys with exceptional strength, ductility, and high temperature stability
Alloy- and Microstructure-Design for Additive Manufacturing
Alloy Design and Scale-up: An Industrial Perspective
AM-PROGRESS – A Multi-Field Data Generator: Process–Response–Optimized Generation of Representative Structures and Samples for PBF Additive Manufacturing
Bimetal Printing M300-C18150: Single Track Topology and Interfacial Characterization
Co-sintering optimization and mechanical properties of SS316L/IN718 metal layered composite fabricated by material extrusion additive manufacturing
Development of soft magnetic material, FeSi3.5, by direct energy deposition with enhanced magnetic properties
Enabling Multi-Directional Functionally Graded Materials via Directed Energy Deposition (DED) for Future, High-Performance Components
Exploring Chemistry and Additive Manufacturing Design Spaces: a Perspective on Computationally-guided Design of Printable Alloys
Gradient Alloy Design through Multi-Material TIG-based Wire Arc Additive Manufacturing: Microstructural Control and Performance Optimization
High-throughput characterization of functionally graded metals for extreme propulsion environments
High-Throughput Time-Temperature-Hardness/Transformation Dataset Generation for Laser Powder Bed Fusion Alloy 718
Impact of Oxygen Homogeneity on the Processability and Properties of Ti-6Al-4V Parts: Addition Out of Spec Powders
Manufacturing a New Paradigm – Overcoming Modern Challenges
Microstructure and mechanical properties engineering of super duplex stainless steel produced by single-and dual-laser powder bed fusion
Multi-Terminal Compositionally Graded Alloy Design for High-Throughput Materials Exploration
Novel Alloy Design Approach for Printable and Sustainable High Temperature Steels
Performance bottlenecks in materials systems for NASA JPL robotics applications
Quantification of microstructural features of additive-enabled ODS superalloys
Sensitivity of crystallographic texture strength to enthalpy of fusion and freezing range during powder bed fusion additive manufacturing
The science, engineering, and manufacture of materials for fusion energy.
Ti-6Al-4V/316L Amalgamation: Leveraging Non-Equilibrium Solidification in Additive Manufacturing for Microstructural Control
Towards a Multiscale Model for Fatigue in Additively Manufactured Polycrystalline Materials

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