Work With Us
Let's Work Together
The DPML partners with industry, government agencies, and research institutions to solve practical challenges in materials design, processing, and performance.
Whether you’re exploring a new material system, need support on a current challenge, or are looking for a research partner, we’re here to help.
Why Partner with The DPML?
We offer a unique combination of hands-on expertise, advanced equipment, and real-world focus that sets us apart from traditional academic labs and commercial testing centers.
Hands-On Research Approach
We don’t just model. We melt, forge, heat treat, and test in-house. From alloy development to final processing, our team manages entire workflow with direct, hands-on expertise.
Industry-Grade Equipment
The DPML is equipped with advanced tools, like the Gleeble system and custom forging setups, typically only found in industrial labs.
Experienced, Full-Time Staff
Our team includes skilled research engineers and technicians dedicated to executing and supporting projects beyond what’s possible in a student-only lab environment.
Fast, Flexible, and Accessible
We offer a nimble alternative to large national labs or commercial testing firms. We’re easy to communicate with and adaptable to your project needs.
Focused on Real-World Impact
Our work supports defense, aerospace, automotive, and energy sectors – where performance and precision matter.
Ready to Get Started?
Contact Us
To start a conversation about your project or explore partnership opportunities, reach out to us at:
Email: dmpl-l@mtu.edu
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,