Advanced Manufacturing
Advanced manufacturing program and research at U of T Engineering are creating next-generation technology while preparing future engineers to lead in industry.
We are working with NanoXplore to create a hybrid graphene and foamed plastic material that stands to impact the way many products are made, from smartphones to sensors.
- Advanced Aerospace Structures
- Advanced Coating Technologies
- Cellular Hybrid Materials
- Human-Machine Interaction
- Intelligent Decision Engineering
- Laser Photonics Fabrication
- Maintenance Optimization & Reliability Engineering
- Microcellular Plastics
- Multifunctional Lightweight Structures
- Nanomaterials
- Organic Optoelectronics
- Robotics & Automation
- Smart & Multifunctional Materials
Toronto Institute for Advanced Manufacturing
TIAM continues to establish partnerships with the manufacturing sector that maximize the impact of transformative technologies developed by its world-renowned researchers.
Ontario Centre for the Characterization of Advanced Materials
OCCAM fosters collaboration between universities and industry, enabling interactions that traverse the traditional boundaries between science, engineering and medicine.
Institute for Robotics & Mechatronics
IRM conducts research on robotics and mechatronics through collaborative research projects and innovative educational programs.
Centre for Advanced Coating Technologies
CACT conducts fundamental research—experimental, analytical, and computational—in the areas of thermal spray coatings and plasma processing.
Study Advanced Manufacturing at U of T Engineering
Our Master of Engineering students can choose from a wide range of technical emphases including Advanced Manufacturing, while all engineering graduate students have the option of pursuing a Robotics & Mechatronics emphasis. Undergraduates in the Engineering Science program can major in Robotics, while students in our core engineering disciplines can pursue minors in Advanced Manufacturing and Robotics.
Leading innovation starts here
Connect with our partnerships team to discuss how a partnership with U of T Engineering can benefit your organization.
Wood-derived materials can be used to harvest electrical energy from everyday movements such as walking, according to a new study from researchers at U of T Engineering and the University of Waterloo.
In a paper recently published in Nano Energy, the team demonstrated the use of lignocellulosic nanofibrils, derived from tree bark, in a prototype self-powered device capable of sending a wireless signal to a smartphone via Bluetooth.
Such devices can be used to track biometric data such as heart rate, oxygen levels or skin conductivity