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Advancing Thermomagnetic Processing from Science to System

The project integrates materials experiments, computational modeling, and commercial-scale system development to evaluate induction-coupled thermomagnetic processing.

Led by the University of Florida under DOE Award DE-EE0009131, the project investigates how induction heating combined with static magnetic fields can influence heat-treatment behavior, microstructure, material performance, and process efficiency. Experimental results provide data for validated computational tools, while system development translates these findings toward an industrially relevant processing platform.

A Multi-Institutional Project Team

The project brings together complementary expertise in materials science, high-field experimentation, multiscale modeling, heat-treatment simulation, and industrial system development.

Led by the University of Florida, the research team includes Oak Ridge National Laboratory, Virginia Tech, the University of Illinois Urbana-Champaign, and DANTE Solutions, with industrial partners and equipment suppliers supporting materials evaluation, system development, and manufacturing translation.

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Integrated Tasks

Experiments, modeling, and system development

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Processing Field

Induction-coupled demonstration system

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Project Organizations

Universities, a national laboratory, and industry expertise

DOE-Supported Research

This project is supported by the U.S. Department of Energy under Award DE-EE0009131.

The project advances the scientific understanding, predictive tools, and processing infrastructure needed to evaluate induction-coupled thermomagnetic processing for industrial heat-treatment applications.

Explore Collaboration Opportunities

Connect with the project team to discuss thermomagnetic processing research, modeling, materials evaluation, and industrial demonstration opportunities.