About ADRL

Our Mission Our goal is to be at the forefront of alloy development and material innovation for cutting-edge manufacturing techniques. In order to meet the changing needs of different industries, such as the manufacturing, transportation, aerospace and defense, medical, and energy sectors, we want to collaborate with the industry to characterize and test newly produced alloys.

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Our constant goal is to maximize material performance. We are dedicated to offering private enterprises in the metals sector first-rate testing and consulting services, meeting their needs with quick lead times, and promoting partnerships with experts throughout the world.


Our Vision The goal is to become a leading research facility in materials research and development for advanced manufacturing, continually expanding the limits of what is possible for alloys and their uses. Utilizing advanced technologies and our knowledge, we aim to transform the transportation, aerospace and defense, manufacturing, medical, and energy industries by developing innovative materials that improve efficiency, lower power usage, and promote sustainability

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As a cooperative and inclusive research team, we strive to build strong collaborations together propelling the field of materials science and engineering forward. We aim to lead in alloy design and production, creating innovative solutions that tackle the challenges of a dynamic world and support our partners in reaching their objectives. By pursuing ongoing enhancement, commitment, and a focus on quality, we aim to create a substantial difference in the sectors we support and aid in the progress of scientific understanding globally

About Simu-Mat

Rapid Analysis

Need to develop accurate constitutive models to optimize the metal manufacturing process? With our Gleeble equipment and Simu-Mat application, this process can be shortened to as little as two weeks—while selecting the most appropriate model.

Quasi-static

Quasi-static and dynamic hot deformation studies assist formative, subtractive, and additive manufacturing industries. Connect with us to learn more—we proudly use the Gleeble 563 system!

Simu-Mat 2.0

We're working on Simu-Mat 2.0, which will include parameter optimization for metal additive manufacturing technologies and expanded material constitutive models.

Learn More

Facilities

Facilities and equipment in the Alloy Design & Materials Testing Research Lab.

Gleeble 563 system
Gleeble 563

A fully integrated thermal and mechanical testing system that replicates real-world fabrication conditions with high accuracy for seamless lab-to-production transfer.

Scanning Electron Microscopy (SEM)
Scanning Electron Microscopy (SEM)

Produces high-resolution images for microanalysis and failure analysis using an electron beam.

Split Hopkinson Pressure Bar
Split Hopkinson Pressure Bar

Evaluates stress-strain behavior under high strain rates (100–10,000 1/s) in compression, tension, and shear.

Fatigue testing equipment
Fatigue Testing

Assesses how materials lose stiffness and strength under repeated loading to determine endurance limits.

Please access this link for the full list of equipment: Test Link

Our Team

Dr. Clodualdo Aranas portrait
Director & Founder
Dr. Clodualdo Aranas
Dr. Jubert Pasco portrait
Researcher
Dr. Jubert Pasco
Aisa Custodio portrait
PhD Student
Aisa Custodio
Kudakwashe Nyamuchiwa portrait
PhD Student
Kudakwashe Nyamuchiwa
Gyanaranjan Mishra portrait
PhD Student
Gyanaranjan Mishra

Projects

Additive Manufacturing Alloys Icon
Commercial alloys designed for additive manufacturing

Our team is testing over 20 alloy types for powder bed fusion (PBF), binder jetting, and directed energy deposition (DED). We collaborate with industry partners to characterize new alloys like M789 steel, Corrax stainless steel, Heatvar, and L-40 tool steel.

Electrical Steels Icon
Next-generation electrical steels for transportation

We work with Natural Resources Canada and industry partners to develop efficient electrical steels for induction motors, aiming to improve mileage and reduce power consumption in electric vehicles.

High-Strength Steels Icon
Advanced high-strength steels to reduce carbon emissions

We develop medium-Mn steels to reduce vehicle weight and energy consumption without compromising safety, supporting both gas and electric automotive platforms.

High-Entropy Alloys Icon
Commercialization of high-entropy alloys

By controlling the dual-phase nature of HEAs, we tailor mechanical properties for extreme environments. Our team designs and manufactures HEAs for specialized applications.

Testing Services Icon
Testing and consultancy for additive manufacturing

We offer testing and consultancy services with short lead times. Visit the Facilities section to explore our infrastructure.

Collaboration Icon
Global collaboration in alloy development

Connect with us if you think our team can help! We collaborate with researchers worldwide. Check our publication history for more details.

Net-Zero Icon
Our team proudly supports alloy design research toward the net-zero carbon emission target by 2050!

For more details about our projects, Contact Us

Funding Partners

The research laboratory appreciates the support from the following funding agencies: