Materials engineers focus on improving what things are made of and how they are made. New materials enable better performance and sustainable technologies.
For over 100 years, materials engineers at U of T have applied fundamental science, math and computer modelling to manipulate and control the physical properties of materials all around us. The result? Everything from high-efficiency energy storage and conversion technologies, to lightweight and high-performance materials for aerospace and automotive applications, to greener processes for making advanced materials.
For example, Professor Mansoor Barati and his Sustainable Materials Processing Research Group have been able to lower the cost of solar cells by using silicon extracted from rice husk. And it’s the Surface Engineering & Electrochemistry team, led by Professor Steven Thorpe, that has been combining innovative nanostructures and the electrolysis of water to produce clean hydrogen fuel. On another front, the Integrated Computational Materials Engineering group, with Professor Chandra Veer Singh, is speeding up the development of products by finding ways to reduce the steps needed to test the next generation of structural materials. Many of these advancements wouldn’t happen without close collaboration with industry.
Some of the most influential people in materials engineering are U of T graduates. That’s not surprising when you consider three things. First, our department marked a century of innovation and education in 2013. Second, we are the number one ranked school for materials science in Canada. And third, our students benefit from the productive materials research they see all around them on campus.
Degrees Offered
- Bachelor of Applied Science (BASc) in Materials Engineering
- Master of Applied Science (MASc) in Materials Science & Engineering
- Master of Engineering (MEng) in Materials Science & Engineering
- Doctor of Philosophy (PhD) in Materials Science & Engineering
Undergraduate Theme Areas
- Biomaterials
- Design of Materials
- Manufacturing with Materials
- Sustainable Materials Processing
Areas of Research
Additive & Advanced Manufacturing
- Zou, Yu – Extreme mechanics & Advanced Manufacturing
- Naguib, Hani E. (MIE/MSE) – Smart & Functional Materials
- Hibbard, Glenn D. – Cellular Hybrid Materials
- Erb, Uwe – Nanomaterials
- Coyle, Thomas W. – Advanced Coating Technologies
- Thorpe, Steven J. – Surface Engineering & Electrochemistry
Advanced Characterization & Forensics
- Perovic, Doug D. – Electron Microscopy, Microelectronics & Forensics
- Howe, Jane –In situ & correlative microscopy group
- Zou, Yu – Extreme mechanics & Advanced Manufacturing
AI for Materials Design & Processes
- Singh, Chandra Veer – Computational Materials Engineering
- Zou, Yu – Extreme mechanics & Advanced Manufacturing
- Hibbard, Glenn D. – Cellular Hybrid Materials
- Thorpe, Steven J. – Surface Engineering & Electrochemistry
Biomaterials & Biomedical Engineering
- Sone, Eli D. (BME/MSE) – Composite Biological Materials
- Hatton, Ben – Functional & Adaptive Surfaces
- Matsuura, Naomi (BME/MSE) – Nanotechnology, Molecular Imaging & Systems Biology
- Naguib, Hani E. (MIE/MSE) – Smart & Functional Materials
Coatings & Surfaces
- Hatton, Ben – Functional & Adaptive Surfaces
- Nogami, Jun – Nanostructured Growth & Characterization
- Coyle, Thomas W. – Advanced Coating Technologies
- Thorpe, Steven J. – Surface Engineering & Electrochemistry
- Ruda, Harry E. – Advanced Nanotechnology & Semiconductors
- Erb, Uwe – Nanomaterials
- Lian, Keryn K. – Flexible Energy & Electronics
Computational Material Science
- Singh, Chandra Veer – Computational Materials Engineering
Energy Generation & Storage
- Lian, Keryn K. – Flexible Energy & Electronics
- Kherani, Nazir P. (ECE/MSE) – Advanced Photovoltaics & Devices
- Thorpe, Steven J. – Surface Engineering & Electrochemistry
- Barati, Mansoor – Sustainable Materials Processing
- Azimi, Gisele – Strategic Materials
- Naguib, Hani E. (MIE/MSE) – Smart & Functional Materials
- Ruda, Harry E. – Advanced Nanotechnology & Semiconductors
- Zou, Yu – Extreme mechanics & Advanced Manufacturing
- Singh, Chandra Veer – Computational Materials Engineering
Nano, 2D & Composite Materials
- Erb, Uwe – Nanomaterials
- Hibbard, Glenn D. – Cellular Hybrid Materials
- Nogami, Jun – Nanostructured Growth & Characterization
- Singh, Chandra Veer – Computational Materials Engineering
- Perovic, Doug D. – Electron Microscopy , Microelectronics & Forensics
- Zou, Yu – Extreme mechanics & Advanced Manufacturing
- Ruda, Harry E. – Advanced Nanotechnology & Semiconductors
- Howe, Jane –In situ & correlative microscopy group
- Matsuura, Naomi (BME/MSE) – Nanotechnology, Molecular Imaging & Systems Biology
- Lian, Keryn K. – Flexible Energy & Electronics
Photonics, Electronics & Sensors
- Kherani, Nazir P. (ECE/MSE) – Advanced Photovoltaics & Devices
- Ruda, Harry E. – Advanced Nanotechnology / Semiconductors
- Matsuura, Naomi (BME/MSE) – Nanotechnology, Molecular Imaging & Systems Biology
- Lu, Zheng-Hong – Organic Optoelectronics
Smart Materials & Devices
- Naguib, Hani E. (MIE/MSE) – Smart & Functional Materials
- Lian, Keryn K. – Flexible Energy & Electronics
- Hatton, Ben – Functional & Adaptive Surfaces
Sustainable Materials Processing
- Barati, Mansoor – Sustainable Materials Processing
- Azimi, Gisele – Strategic Materials
- Ruda, Harry E. – Advanced Nanotechnology & Semiconductors
- Lian, Keryn K. – Flexible Energy & Electronics