Dynamic Physical Metallurgy Lab
Engineering the Future of Metal Alloys
We solve complex materials challenges through custom alloy development and thermo-mechanical process design.
About the Lab
The Dynamic Physical Metallurgy Lab (DPML) is a research group at Michigan Technological University that specializes in alloy design and thermo-mechanical process development, offering end-to-end capabilities from casting to final heat treatment. With a focus on microstructural evolution and transformation kinetics, the DPML serves industries like automotive, defense, energy, and aerospace.
Our Capabilities
Our core focus is alloy design, fabrication, and thermo-mechanical process development, encompassing the complete processing chain from casting and wrought processing through through heat treatment and characterization.
- Alloy Design & Development
- Melting & Casting
- Deformation Processing
- Heat Treatment Design
- Microstructural Characterization
Our Team
Meet the staff, graduate, and undergraduate researchers behind the DPML. From experimental design to real-world applications, our team drives the lab’s mission through collaboration, technical skill, and curiosity.
Join the Lab
We’re always looking for motivated graduate and undergraduate students interested in physical metallurgy, alloy design, and thermo-mechanical process optimization.
As a member of the DPML, you’ll gain hands-on experience with advanced equipment and contribute to real-world research in materials design and testing.
Interested? Start by reaching out to our team with your background and research interests.
Latest News
Stay up to date with lab announcements, recent publications, student achievements, and research highlights from the DPML.
Gleeble 3500
The Gleeble 3500 is a thermo-mechanical simulator that employs direct resistance heating and servo-hydraulic loading to replicate the thermal and deformation conditions encountered during materials
Dilatometer
The TA Instruments DIL805A/D/T is a high-precision quenching dilatometer designed to measure dimensional changes in a sample during controlled thermal cycles. It features inductive heating,