Research news

Learn more about the latest discoveries and innovations from the U of T Engineering community. Our researchers are developing new ways of capturing and storing clean energy, medical devices that can save and extend lives, smarter ways to design and build cities and much more.

Left to right: Shijie Liu (MIE MASc candidate), Yi (Sheldon) Xu (MIE postdoctoral fellow) and Celine Xiao (MIE PhD candidate) work on an electrochemical cell in their lab. The students are members of Team E-quester, which has earned a $250,000 XPRIZE Carbon Removal Student Award. (Photo: Yong Zhao)

U of T Engineering team earns US $250,000 in global XPRIZE Carbon Removal Student Award

Seed funding will advance an electrochemical process that can capture CO2 directly from air

(Photo: Daria Perevezentsev)

‘A global leader’: Professor David Sinton highlights U of T’s sustainability efforts at the Ontario Chamber of Commerce

Mechanical and industrial engineering professor outlines efforts to make U of T “climate positive,” meaning the university will curb more emissions than it emits.

Professor Edmond Young (MIE, BME) and his research team have developed a microfluidic lung-on-a-chip that mimics breathing in human lungs. (Photo courtesy: Edmond Young)

New microfluidic device could help track the health effects of air pollution

Technology enables simulated lung tissue to be exposed to air pollutants, then extracted for analysis without disturbing the spatial relationships between cells

U of T researchers Penney Gilbert (BME) and Bryan Stewart (Biology) obtained cells from people living with Duchenne muscular dystrophy to grow miniature muscles that are being used to develop new treatments for the genetic disorder. (Photo: Johnny Guatto)

U of T researchers’ lab-grown muscles used to study Duchenne muscular dystrophy, develop treatments

Professors Penney Gilbert and Bryan Stewart obtained cells from people living with Duchenne muscular dystrophy to grow miniature muscles and study the genetic disorder outside the body

Professor Willy Wong (ECE) has discovered a mathematical relationship in the sensory adaption response curve that is true for all sensory modalities and all organisms. The equation (top-right) is SS = √PR x SR. (Photo: Matthew Tierney)

A universal law of physiology emerges from professor’s research

Professor Willy Wong has discovered a mathematical relationship in the sensory adaption response curve that is true for all sensory modalities and all organisms

New polymer coatings, developed by Professor Kevin Golovin (MIE) and his team, show the precision with which liquids can move across surfaces. (Image courtesy: Mohammad Soltani)

Nature-inspired coatings could power tiny chemistry labs for medical testing and more

A new system of polymer brushes may enable lab-on-a-chip devices to handle more than just water

Millions of people rely on blood tests to monitor their glucose levels. In the future, harvesting energy from human body movements could lead to new, self-powered implantable glucose meters and many other medical devices. (Photo: Wavebreakmedia, via Envato)

Human-powered tech: Connaught Global Challenge Award boosts research into battery-free wearable and implantable devices

Professor Kamran Behdinan aims to create a multidisciplinary global network of experts in the field of energy harvesting for biomedical applications

Sadegh Davoudi (left), a post-doctoral fellow, and Bella (Bin) Xu (right), a PhD student, both in the labs of Professor Alison McGuigan and Associate Professor Penney Gilbert, are lead authors on a new paper that details their work creating a regenerative micro-environment in a dish. (Photo: Ting Yin)

New method for testing muscle repair in a dish to impact development of stem cell-based therapies

Researchers from two labs at the University of Toronto have discovered a novel way to test self-repair of skeletal muscle, and this method has the potential to rapidly advance the development of treatments for diseases like muscular dystrophy (MD) and other degenerative muscle conditions. “If you would have told me before we started this project […]

A new analysis by U of T Engineering researchers shows that concrete basements are the top driver of material intensity for new single-family homes. (Photo: twenty20photos, via Envato Elements)

Large carbon footprint of new house construction mostly due to concrete basements

Analysis of 40 homes in Toronto suggests zoning and construction strategies that could reduce the environmental impact of new builds