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About this Symposium

Meeting 2027 TMS Annual Meeting & Exhibition
Symposium Advances in Magnetism and Magnetic Materials
Sponsorship TMS Functional Materials Division
TMS: Magnetic Materials Committee
Organizer(s) Eric Theisen, Energy & Environmental Research Center
Matthew J. Kramer, Ames Laboratory
Yongmei M. Jin, Michigan Technological University
Alexander Baker, Lawrence Livermore National Laboratory
Daniel Salazar, BCMaterials
Zachary J. Morgan, Oak Ridge National Laboratory
Yaroslav Mudryk, Ames National Laboratory/Iowa State University
Scope This symposium focuses on structure, processing, and performance interrelationships for soft and hard magnetic materials, thin film magnetism, novel magnetic materials as well as functional aspects of magnetic phenomena: calorics, magnetoelastic, multiferroic, and magnetostrictive. The scope includes new material compositions, novel phenomena in magnetic materials, novel and advanced characterization approaches, processing methods machine learning approaches and application driven magnetic component design for energy conversion, sensors, and actuators. We also encourage topics that focus on the economic and supply chain impacts related to magnetic materials manufacturing. Separate symposia exist for work related to additively manufactured magnetic materials, so this topic is not within the scope of this symposium.

Topics of particular interest include:
1. Emerging and established manufacturing methods a) bulk manufacturing of advanced magnetic materials, b) thermal-mechanical / thermal-magnetic processing, c) energy dense processing using RF, microwave, high pressure or high magnetic fields.
2. Magnetic materials for energy, sustainability, recycling, impacting climate change and environmental impact.
3. Manufacturing methods for advanced amorphous and electrical steels.
4. Phase transformations with large caloric effects, manipulation of transition temperatures and hysteresis, and theoretical tools to design better caloric materials.
5. Advanced characterization techniques, including neutron and synchrotron radiation, to study magnetic materials.
6. Ab-initio, micromagnetic, machine learning, artificial intelligence, and accelerated development techniques to predict new magnetic materials and optimize their properties.

Abstracts Due 07/15/2026
Proceedings Plan Planned:

PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE


A Novel Scalable Milling Approach for Microstructure and Coercivity Enhancement in Nd-Fe-B Magnets
Accelerating Traction Motor Design Using AI-Based Finite Element Surrogates
Additive Manufacturing of La(Fe,Si)13 in Novel Regenerator Designs for Increased Performance
Alternative Permanent Magnets with Reduced Criticality
Amorphous Soft Magnetic Alloy Design: Combining Experimental and Model-Based Methodologies
Atomistic modeling of grain boundaries in NdFeB magnets
Conical Magnetic Structure in a Multiferroic Y-type Hexaferrite Using Neutron Diffraction
Correlative EBSD, TKD and APT analysis of Grain Boundary Engineered Nd-Fe-B Permanent Magnets
Development of Rare-Earth-Free MnBi Magnets for Potential Motor Applications
Diode Effect in Artificial Superconducting Multiferroics
Dy-Free Isotropic NdFeB Magnets Manufactured by Spark Plasma Sintering: Correlating the Microstructure to Magnetic Properties
Effect of Cooling Rate on Crystallization Behavior of Sm2Fe17 in Sm-Fe Alloy Melt
Effect of milling time and alloying on the powder dynamics of Co-Zr: A powder optimization study for Laser Powder Bed Fusion of Magnetic alloys.
Enhancing Mechanical Properties of Nd-Fe-B Sintered Magnets through Heterogeneous Microstructure Engineering
Fermi-surface nesting, electronic phase transformations, and anomalous response
Ferrite Coated Iron Based Soft Magnetic Composites with Low Core Loss Performance
Hydrogen detection through magnetic alloy design
Inverse Magnetostrictive Materials for Vibration Energy Harvesting
Investigation of the Phase Formation and Thermal Stability of the Second L10 Phase in the MnAlCu System
Iron Nitride, a high performance, completely rare earth free permanent magnet technology.
Magnetic-Field-Assisted Morphology Evolution and Phase Partitioning During Spinodal Decomposition in Fe–Al–Ni–Co Alloys
Magnetic Field-Assisted Directed Energy Deposition: Process–Structure–Property Relationships in Functional Materials
Magnetic Performance of High-Speed Directed Energy Deposited Fe–6.5 wt% Si Soft Magnetic Alloys: Impact of Ordering Phase Transformations
Multiscale Simulation of Soft Magnetic Composites
Ni-Zn Ferrite/Metal Nanocomposites Synthesized by Hydrogen Reduction Techniques
Novel interplay of long-range order, spin glass, and domain glass states in rare-earth-based Sm7Pd3
Optimizing the Grain Size–Coercivity Relationship in Nanograined NdFeB Magnets via Hot-Rolling and Post-Roll Annealing
Processing-microstructure-property relationships of friction consolidated Alnico magnets
Re-establishing Mine-to-Magnet Manufacturing in the United States
Reaction Pathways in Direct Reduction of Rare Earth Oxides to Magnets
Selective Boundary Fracture Milling for Recycling Nd-Fe-B Magnets
Self-propagating High-temperature Synthesis of Rare Earth Free Magnets
Single-Step Calciothermic Reduction–Diffusion Synthesis of High-Purity Nd₂Fe₁₄B Powders through Top-Down Precursor Engineering
Spin dependent transport in altermagnetic RuO2
Tailoring α-Fe2O3 Precursor Microstructure to Enhance Coercivity in Rare-Earth-Free α″-Fe16N2 Powders
Techno-Economic and Life Cycle Assessments of Sintered Samarium Iron Nitride Magnets
Thermodynamic Investigation of Rare-Earth Reduced Magnet Systems
Ultra-low loss soft magnetic materials for power electronics applications
Understanding Chemical Bonding and Phase Stability in Sm₂Fe₁₇-based interstitial magnet
Understanding the ordering phase transformations in high silicon steels for transformer core applications
Validating Magnetic Structure Results Around Non-Magnetic Inclusions in FeCo Alloys


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