Nine Engineering professors and alumni inducted into the Canadian Academy of Engineering

Nine Engineering professors and alumni inducted into the Canadian Academy of Engineering

Professor Robert Andrews’ work has lead him to solve real-world problems for drinking water safety.

Nine members of the U of T Engineering community have been inducted as fellows of the Canadian Academy of Engineering (CAE). Professors Robert Andrews (CivE), Sanjeev Chandra (MIE), Tom Chau (IBBME), Heather MacLean (CivE) and Wei Yu (ECE), along with alumni Perry Adebar (CivE MASc 8T7, PhD 9T0), Mark Hundert (IndE 7T1), Christopher Pickles (MMS 7T4, MASc 7T5, PhD 7T7) and John Young (MMS 7T1, MIE MASc 7T4) are among the CAE’s 50 new fellows. The CAE is a national institution through which Canada’s most distinguished and experienced engineers provide strategic advice on matters of critical importance to Canada. The new CAE fellows were inducted on June 26 in Ottawa, as part of the Academy’s Annual General Meeting and Symposium.

“The Academy’s recognition of so many faculty and alumni attests to the tremendous contributions U of T Engineers are making in Canada and around the world,” said Dean Cristina Amon. “It also demonstrates their impact in all aspects of the engineering profession — from engineering education to fundamental research to technology transfer, commercialization and consulting.”

Robert Andrews holds the NSERC Industrial Research Chair in Drinking Water Research, working with industry partners who serve over four million people in Southern Ontario. His collaborations with municipalities have allowed him to solve real-world problems that have a direct impact on the safety of Canada’s drinking water supply. An expert in drinking water treatment, Andrews is a member of several decision-making committees and advisory councils in Canada and the United States. His work has been recognized with prestigious awards from the Engineering Institute of Canada, the Canadian Society for Civil Engineering, and the American Water Works Association, among others.

Sanjeev Chandra is co-founder of the University of Toronto’s Centre for Coating Technologies, one of the world’s leading research centres in the area of thermal spray coatings. He has collaborated with research groups and industrial partners around the world in the development of cutting-edge technology in this area. Chandra’s work has been applied in the fields of spray coating and forming, spray cooling, ink jet printing, agricultural spraying and forensic science. He is a fellow of the American Association for the Advancement of Science, the American Society of Mechanical Engineers, and the Canadian Society for Mechanical Engineering, and received the NSERC Brockhouse Prize.

Through his research at Holland Bloorview and U of T, Tom Chau has developed assistive technologies which give children and youth with severe physical limitations the ability to communicate independently. Chau created the award-winning Virtual Music Instrument, which allows individuals with disabilities to express themselves through music. Additionally, he has pioneered optical brain-computer interfaces which allow nonverbal individuals to communicate through thought alone. Chau is a fellow of the American Institute for Medical and Biological Engineering and the recipient of several awards. In 2011 he was named one of 25 Transformational Canadians by The Globe and Mail.

Heather MacLean is an internationally recognized leader in sustainable systems analysis, including life cycle assessment and its application to energy systems and vehicles. Her work has led to sustainability assessment and life cycle assessment being viewed as critical tools by industry, government and other organizations, and has guided regulations such as California’s Low Carbon Fuel Standard. MacLean is an advisor to the World Bank/World Resources Institute for Sustainable Transportation. She is a fellow of the Engineering Institute of Canada and recipient of the Canada Mortgage and Housing Corporation Excellence in Education Award for Promotion of Sustainable Practices.

Wei Yu has made highly influential contributions to the field of information theory and communication engineering. His research addresses fundamental limits of information transmission in communication networks. Yu proposed dynamic spectrum management methods that have been used in millions of digital subscriber lines worldwide and also contributed significantly to the capacity analysis and optimization techniques for multiuser multiple-input multiple-output (MIMO) wireless communication channels, which are widely used in cellular networks. Professor Yu is an IEEE fellow, recipient of the NSERC E.W.R. Steacie Memorial Fellowship, and a Thompson Reuters Highly Cited Researcher.

Perry Adebar has made important contributions to the profession and practice of engineering in Canada. An award-winning educator, he is known for presenting a strong connection between theory and engineering practice, and his views are highly respected by industry. He is head of UBC Civil Engineering, and was previously associate dean of Applied Science at UBC. His research has had a direct impact on the seismic design of high-rise concrete buildings in Canada. Professor Adebar has provided engineering advice to several consulting engineering firms. He is a director of the Structural Engineers of B.C. and a member of the Canada TF-1 HUSAR Team.

Mark Hundert is a pioneer in the application of industrial engineering and operations research practices in order to improve the delivery of health care in Canada. He has helped to introduce principles and methodologies to improve the efficiency and effectiveness of our hospitals and other health care organizations. Among his many contributions in this field, Hundert spearheaded the development of a national database benchmarking the efficiency and quality of care in Canadian hospitals, which has been an essential tool in identifying and addressing areas needing improvement in the Canadian health care system. He received the Ontario Professional Engineers Management Medal in 2008.

A leading authority on microwave heating for metallurgical applications, Christopher Pickles has been a pioneer in the development of microwaves for processing ores, precious metal residues, and waste materials. Other major contributions include the use of extended arc plasma reactors for the treatment of electric furnace dusts and generation of ferro-alloys. Professor Pickles has presented short courses for industry, mentored close to 70 researchers, published over 170 papers, coedited five conference volumes and coauthored a textbook on Chemical Metallurgy. He is a fellow of the Canadian Institute of Mining, Metallurgy and Petroleum and has won national awards.

John Young has been eminently successful in the generation and application of new knowledge associated with primary steelmaking operations. He has provided exceptional engineering leadership in simulation modelling and commissioning of numerous steelmaking plants within Canada and abroad. He has coauthored a textbook entitled “Metallurgical Plant Design” and made significant contributions to the training of engineers in industry, as well as engineering students at both McGill and U of T, where he serves as an adjunct lecturer and instructor for MSE 450: Plant Design for Materials Process Industries. Throughout his career, Young has been an excellent ambassador for the engineering profession. He has received a number of high profile awards from AIME’s Iron and Steel Society.

Originally appeared on U of T Engineering News by Carolyn Farell | Posted on June 27th, 2017

 

Concrete check-up: Fae Azhari develops diagnostics for critical infrastructure

Professor Fae Azhari (MIE, CivE) holds a sample of the self-sensing concrete she designed. Her work helps monitor the structural health of crucial infrastructure such as bridges, roads and hydroelectric dams. (Credit: Roberta Baker)

This story originally appeared on U of T Engineering News.

Canada will spend $125 billion on infrastructure maintenance and expansion in the next 10 years. Professor Fae Azhari (MIE, CivE) is helping stretch those dollars farther by keeping our buildings, bridges, roads and reservoirs safe and structurally sound for longer.

Azhari’s research focuses on structural health monitoring. Just as you visit the doctor for periodic check-ups, structures need their health checked too — but instead of blood tests and heart rate measurements, engineers usually perform visual inspections and spot-checks with sensors and instruments.

“The problem with visual inspections is that they’re pretty subjective, and with periodic monitoring, you can miss certain events or failures,” says Azhari. “Now we’re moving toward continuous monitoring by incorporating permanent sensors on important structures to get real-time data.”

Degradation or damage suffered between inspections can have catastrophic consequences. In June 2013, a rail bridge just outside of downtown Calgary partially collapsed as a train was passing over it. The train, carrying flammable and toxic liquids, derailed. Emergency measures were taken to prevent the railcars from falling into the Bow River, which was running high with summer floodwater. The Transportation Safety Board of Canada determined that floodwaters had eroded the soil around the bridge’s foundations, causing the collapse. This loss of sediment from around foundational supports is called scour.

“Believe it or not, this happens very often, especially in North America and some Asian countries,” says Azhari. “Scour is a huge problem.”

For her PhD research at the University of California, Davis, Azhari tackled scour from a new angle: she took commercially available sensors that measure dissolved oxygen, typically used for agriculture or biological applications, and used them for sensing scour. Azhari’s design was to attach a number of oxygen sensors at increasing depths along the buried length of the bridge pier. If the pier is properly buried, the dissolved oxygen levels detected by the sensors should be very low — but as scour erodes the sediments and exposes the sensors to flowing water, the dissolved oxygen levels rise. As scour progresses, more and more sensors become exposed, indicating how badly scour is threatening the bridge’s structural integrity.

She has also worked on concrete sensors, including a design that integrates conductive carbon fibers and nanotubes into concrete, making it a self-sensing material. Measuring the resistance across the material reveals the stresses and strains on it. “This technology is well-proven in the laboratory, but moving it to the field is a big challenge,” says Azhari.

As she builds her research enterprise, Azhari plans to collaborate across disciplines and with key partners who could benefit from her sensors, as well her analysis and insight into the data that comes from them. “Transportation infrastructure, utilities, dams, power plants, wind turbines — basically any engineering system — needs maintenance and monitoring,” she says.

“It’s very important to get these sensors from prototype to implementation, and I want to work on that.”

Heat, housing and health: Marianne Touchie and the complexity of multi-unit residential buildings

Professor Marianne Touchie (CivE, MIE) is working with Toronto Community Housing and The Atmospheric Fund to better understand how changes to energy use affect indoor environmental quality in multi-unit residential buildings. Toronto Public Health is collaborating to use their data to inform policy. (Photo: Kevin Soobrian)

Professor Marianne Touchie (CivE, MIE) is working with Toronto Community Housing and The Atmospheric Fund to better understand how changes to energy use affect indoor environmental quality in multi-unit residential buildings. Toronto Public Health is collaborating to use their data to inform policy. (Photo: Kevin Soobrian)

Professor Marianne Touchie (CivE, MIE) is working with Toronto Community Housing and The Atmospheric Fund to better understand how changes to energy use affect indoor environmental quality in multi-unit residential buildings. Toronto Public Health is collaborating to use their data to inform policy. (Photo: Kevin Soobrian)


This story originally appeared at U of T Engineering News

This story is a part of a  five-part #RisingStars series, highlighting the work of our early-career professors.

In cities from coast to coast, condominium towers are being constructed at an unprecedented rate, with 30,000 new units added in 2015 to the Toronto market alone. This is driven both by recent advances in the design, engineering and construction of tall buildings, and a stark increase in demand for these multi-unit residential buildings (MURBs). “More people are moving downtown,” says Professor Marianne Touchie (CivE, MIE). “There’s very limited space, so we need high-density housing options and MURBs provide that.”

With a background in building science, Touchie studies the relationships between energy efficiency and indoor environment quality parameters, such as thermal comfort, in these high-density buildings. In Toronto, one of the largest suppliers of MURBs is Toronto Community Housing Corporation (TCHC), which owns 50 million square feet of residential space and houses 110,000 residents. Many of these are older buildings without air conditioning.

“A lot of these buildings rely on ventilation through the building envelope, which is not terribly effective. At the same time, we need to reduce our energy consumption and energy use,” she says. “But reducing energy usage has implications for occupants, and that’s what I’m interested in studying.”

Touchie is currently collaborating with The Atmospheric Fund (formerly the Toronto Atmospheric Fund) on a large research project—one that she has been involved with since her role as their Building Research Manager from 2014 to 2015. She and her colleagues are collecting data on energy consumption, temperature, humidity and carbon dioxide concentration in more than 70 apartments spanning seven different TCHC buildings.

“It’s probably the most comprehensive MURB monitoring project in North America, if not the world,” says Touchie.

They are also working with Professor Jeffrey Siegel (CivE), who is examining concentrations of formaldehyde, particulate matter and, through a partnership with Health Canada, radon concentrations. Touchie says that collaborations, such as those with TCHC, The Atmospheric Fund and Siegel, are critical to creating a comprehensive picture of the MURBs she studies. “Buildings are so complex,” says Touchie. “I have training in one particular area, but I’m not an indoor air quality expert. When we make changes from an energy perspective to the ventilation system, or the heating and cooling system, it has an influence on the air quality. Working with other experts, like Professor Siegel, we can gather data on all sides.”

Touchie’s findings with The Atmospheric Fund and TCHC have drawn the interest of Toronto Public Health. The agency is interested in the health impact of extreme heat, and the study has found that these TCHC buildings are often overheated, especially in the summer.

“Extreme heat is a health problem, especially for the most vulnerable populations,” says Sarah Gingrich, a Health Policy Specialist at Toronto Public Health. Very young children, the elderly and people with illnesses or taking certain medications are most at risk. “This work is providing evidence that excessive heat is a problem in older apartment buildings in Toronto. The research is showing that although the temperature cools down at night outside, in these buildings it rises during the day and they stay hot all night long.”

Touchie and her collaborators are finding that a major culprit for the inefficient heating and cooling performance is uncontrolled air leakage. These leaks often occur around windows, doors, exhaust fans and elevator shafts. But inefficiencies aren’t just a building issue: she adds that “because people can do whatever they want in their own homes, like open and close their windows, MURBs combine the complexity of high-rise buildings with the occupant wild card,” which makes managing the indoor environment even trickier.

“The study provides valuable information on Toronto apartment buildings that will help to inform policy development,” says Toronto Public Health’s Gingrich. “It fills a very important gap by providing up-to-date data that highlights some of the challenges in this type of building, and points to potential solutions.”

Next, Touchie hopes to expand her research to newer condos, where data is even scarcer. “They’re going up so quickly, and we really have no information about the quality of the indoor environment or their energy performance,” she says. “I am very curious whether their energy consumption matches the performance level promised at the design stage.”

U of T Engineering receives $31.6M investment for lab infrastructure

The Sandford Fleming Building is just one of the U of T Engineering facilities that received funding through a major investment from the Post-Secondary Institutions Strategic Investment Fund. (Image: Neil Ta)

The Sandford Fleming Building is just one of the U of T Engineering facilities that received funding through a major investment from the Post-Secondary Institutions Strategic Investment Fund. (Image: Neil Ta)

This story originally appeared on Engineering News.

A major investment through the Lab Innovation for Toronto (LIFT) project will accelerate infrastructure improvements across U of T Engineering, catalyzing world-class research and enhancing the student experience.

The funding was announced today U of T President Meric Gertler with Minister of Science Kirsty Duncan and Minister of Innovation, Science and Economic Development Navdeep Bains. It includes contributions from the university, the provincial government and the federal government through its Post-Secondary Institutions Strategic Investment Fund. The Faculty will receive $31.6 million to support renovations to 89 laboratory facilities. The work will benefit more than 330 U of T Engineering researchers, including professors, graduate students and undergraduate students.

Plans for spaces slated to receive significant infrastructure investment include:

  • Lab space in the Galbraith, Sandford Fleming and the Engineering Annex buildings will be opened up to further enhance collaboration between researchers, both within and across disciplines. Environmental controls will also be upgraded to protect sensitive research equipment.
  • New laboratory equipment, including more fumehoods to increase the number of experiments that can be run simultaneously, will be added to labs at the Institute of Biomaterials & Biomedical Engineering, the Department of Chemical Engineering & Applied Chemistry and the Department of Mechanical & Industrial Engineering.
  • The Sustainable Aviation Design Lab at the University of Toronto Institute for Aerospace Studies (UTIAS) will be expanded, enhancing the work of researchers who are reducing emissions and cutting fuel costs in the global aviation industry.

This investment coincides with the ongoing construction of the Centre for Engineering Innovation and Entrepreneurship (CEIE), the Faculty’s newest building, set to open in 2017. A vibrant hub that will set a new standard for engineering education and research, the CEIE will provide a new home for world-leading institutes such as the Centre for Global Engineering and the Institute for Robotics and Mechatronics. Its design/meet rooms and light fabrication facilities will enable students, professors and industry collaborators to work together across disciplines on complex global challenges and launch new companies to bring their solutions to market.

Learn more about the CEIE.

“This important infrastructure investment will further empower our researchers with world-class facilities as we address pressing global challenges,” said Dean Cristina Amon. “We are grateful to receive this federal infrastructure funding, which will also provide our students with enhanced experiential learning opportunities as we continue to nurture the next generations of engineering leaders.”

In total, the University of Toronto received nearly $190 million for renovations to 546 labs, supporting approximately 1,100 researchers and 5,500 students.

Learn more about the Lab Innovation for Toronto (LIFT) announcement.

Two new faculty are cross appointed with CivE and MIE

Two new faculty members join Civil and, Mechanical and Industrial Engineering Collaboration is the key to success and the driving factor behind the hiring of two new professors that are cross-appointed with the Departments of Mechanical and Industrial Engineering, and Civil Engineering. Professors Marianne Touchie (CivE, MIE) and Fae Azhari (MIE, CivE) joined the Faculty at the beginning of July. Professor Touchie completed a BASc and PhD in Civil Engineering at the University of Toronto. Her research focuses on improving the energy performance and indoor environmental quality of existing buildings to make them more comfortable, healthy and sustainable through comprehensive retrofits. Professor Azhari holds degrees in Civil Engineering from Isfahan University of Technology and University of British Columbia, Industrial Engineering from UC Berkeley, and Structural Engineering and Mechanics from UC Davis. She specializes in structural health monitoring (SHM) of engineering systems. U of T Engineering spoke with the new professors to find out more about their research and what they’re looking forward to at U of T: Fae Azhari Could you explain the focus of your research? My work focuses on SHM of engineering systems. Similar to the way a doctor would point out when an organ is malfunctioning in a patient’s body during regular check-ups, SHM is able to diagnose and locate any anomalies in an engineering system. Since this diagnosis happens at a very early stage, the remedial procedure will usually be timely and cost effective. My goal is to address some of the gaps in the succession of tasks from sensor development to implementation and decision making. Why did you choose U of T? Long before pursuing academia, I visited Toronto and the campus here. The historical feel and the intellectual vibe stayed in my mind. I’m so happy to be working here now. My research field is multidisciplinary, and having access to the many great resources, facilities, colleagues and mentors at U of T will be extremely valuable in advancing my research and career. What are you most looking forward to in your new position? I like the sense of collegiality at U of T and look forward to effective collaborations with other researchers. As a new professor, what one piece of advice would you give to new students? At university you are often your own teacher so expect to be treated that way. Try to be proactive and do not be afraid to ask questions. What do you hope to accomplish in your new position/during your time at U of T Engineering? I hope to one day truly ‘profess’ my subject.; to understand the old and new bodies of knowledge in such a way that I can properly judge their significance and place in the grand scheme of things. Marianne Touchie Could you explain the focus of your research? My research focuses on the question of how do we improve the quality of our indoor environment as we strive for greater energy efficiency? Making buildings more comfortable and healthy often come at an energy cost. Why did you choose U of T? U of T is my alma mater so I am well aware of the significance and impact of the research done here and I am looking forward to collaborating with so many talented colleagues and students in both the lab and the classroom. What are you most looking forward to in your new position? With a cross appointment between Civil Engineering and Mechanical and Industrial Engineering, I’m excited to bring together students from across disciplines. As a new professor, what one piece of advice would you give to new students? Allow yourself to wrestle with a problem before asking for help. It is effortless to use Google or message someone to find an answer. But this process doesn’t improve your own ability to problem solve, think critically or take your own position on an issue. During your time at U of T you will gain plenty of technical knowledge but transferable skills like problem solving will be of the most valuable after graduation. What do you hope to accomplish in your new position/during your time at U of T Engineering? Within Civil Engineering, I would like to continue growing the Canadian Centre for Building Excellence (CCBE) with Professors Kim Pressnail and Jeffrey Siegel into a world-renowned research centre for healthy, energy efficient buildings. I would also like to create stronger links through multidisciplinary design courses which will give students an opportunity to tackle today’s important problems with colleagues from a variety of technical backgrounds.

Two new faculty members join Civil and, Mechanical and Industrial Engineering Collaboration is the key to success and the driving factor behind the hiring of two new professors that are cross-appointed with the Departments of Mechanical and Industrial Engineering, and Civil Engineering. Professors Marianne Touchie (CivE, MIE) and Fae Azhari (MIE, CivE) joined the Faculty at the beginning of July. Professor Touchie completed a BASc and PhD in Civil Engineering at the University of Toronto. Her research focuses on improving the energy performance and indoor environmental quality of existing buildings to make them more comfortable, healthy and sustainable through comprehensive retrofits. Professor Azhari holds degrees in Civil Engineering from Isfahan University of Technology and University of British Columbia, Industrial Engineering from UC Berkeley, and Structural Engineering and Mechanics from UC Davis. She specializes in structural health monitoring (SHM) of engineering systems. U of T Engineering spoke with the new professors to find out more about their research and what they’re looking forward to at U of T: Fae Azhari Could you explain the focus of your research? My work focuses on SHM of engineering systems. Similar to the way a doctor would point out when an organ is malfunctioning in a patient’s body during regular check-ups, SHM is able to diagnose and locate any anomalies in an engineering system. Since this diagnosis happens at a very early stage, the remedial procedure will usually be timely and cost effective. My goal is to address some of the gaps in the succession of tasks from sensor development to implementation and decision making. Why did you choose U of T? Long before pursuing academia, I visited Toronto and the campus here. The historical feel and the intellectual vibe stayed in my mind. I’m so happy to be working here now. My research field is multidisciplinary, and having access to the many great resources, facilities, colleagues and mentors at U of T will be extremely valuable in advancing my research and career. What are you most looking forward to in your new position? I like the sense of collegiality at U of T and look forward to effective collaborations with other researchers. As a new professor, what one piece of advice would you give to new students? At university you are often your own teacher so expect to be treated that way. Try to be proactive and do not be afraid to ask questions. What do you hope to accomplish in your new position/during your time at U of T Engineering? I hope to one day truly ‘profess’ my subject.; to understand the old and new bodies of knowledge in such a way that I can properly judge their significance and place in the grand scheme of things. Marianne Touchie Could you explain the focus of your research? My research focuses on the question of how do we improve the quality of our indoor environment as we strive for greater energy efficiency? Making buildings more comfortable and healthy often come at an energy cost. Why did you choose U of T? U of T is my alma mater so I am well aware of the significance and impact of the research done here and I am looking forward to collaborating with so many talented colleagues and students in both the lab and the classroom. What are you most looking forward to in your new position? With a cross appointment between Civil Engineering and Mechanical and Industrial Engineering, I’m excited to bring together students from across disciplines. As a new professor, what one piece of advice would you give to new students? Allow yourself to wrestle with a problem before asking for help. It is effortless to use Google or message someone to find an answer. But this process doesn’t improve your own ability to problem solve, think critically or take your own position on an issue. During your time at U of T you will gain plenty of technical knowledge but transferable skills like problem solving will be of the most valuable after graduation. What do you hope to accomplish in your new position/during your time at U of T Engineering? Within Civil Engineering, I would like to continue growing the Canadian Centre for Building Excellence (CCBE) with Professors Kim Pressnail and Jeffrey Siegel into a world-renowned research centre for healthy, energy efficient buildings. I would also like to create stronger links through multidisciplinary design courses which will give students an opportunity to tackle today’s important problems with colleagues from a variety of technical backgrounds. Collaboration is the key to success and the driving factor behind the hiring of two new professors that are cross-appointed with the Departments of Mechanical and Industrial Engineering, and Civil Engineering. Professors Marianne Touchie (CivE, MIE) and Fae Azhari (MIE, CivE) joined the Faculty at the beginning of July.

Professor Touchie completed a BASc and PhD in Civil Engineering at the University of Toronto. Her research focuses on improving the energy performance and indoor environmental quality of existing buildings to make them more comfortable, healthy and sustainable through comprehensive retrofits.

Professor Azhari holds degrees in Civil Engineering from Isfahan University of Technology and University of British Columbia, Industrial Engineering from UC Berkeley, and Structural Engineering and Mechanics from UC Davis. She specializes in structural health monitoring (SHM) of engineering systems.

U of T Engineering spoke with the new professors to find out more about their research and what they’re looking forward to at U of T:


Could you explain the focus of your research?

MT: My research focuses on the question of how do we improve the quality of our indoor environment as we strive for greater energy efficiency? Making buildings more comfortable and healthy often come at an energy cost.

FA: My work focuses on SHM of engineering systems. Similar to the way a doctor would point out when an organ is malfunctioning in a patient’s body during regular check-ups, SHM is able to diagnose and locate any anomalies in an engineering system. Since this diagnosis happens at a very early stage, the remedial procedure will usually be timely and cost effective. My goal is to address some of the gaps in the succession of tasks from sensor development to implementation and decision making.

Why did you choose U of T?

MT: U of T is my alma mater so I am well aware of the significance and impact of the research done here and I am looking forward to collaborating with so many talented colleagues and students in both the lab and the classroom.

FA: Long before pursuing academia, I visited Toronto and the campus here. The historical feel and the intellectual vibe stayed in my mind. I’m so happy to be working here now. My research field is multidisciplinary, and having access to the many great resources, facilities, colleagues and mentors at U of T will be extremely valuable in advancing my research and career.

What are you most looking forward to in your new position?

MT: With a cross appointment between Civil Engineering and Mechanical and Industrial Engineering, I’m excited to bring together students from across disciplines.

FA: I like the sense of collegiality at U of T and look forward to effective collaborations with other researchers.

As a new professor, what one piece of advice would you give to new students?

MT: Allow yourself to wrestle with a problem before asking for help. It is effortless to use Google or message someone to find an answer. But this process doesn’t improve your own ability to problem solve, think critically or take your own position on an issue. During your time at U of T you will gain plenty of technical knowledge but transferable skills like problem solving will be of the most valuable after graduation.

FA: At university you are often your own teacher so expect to be treated that way. Try to be proactive and do not be afraid to ask questions.

What do you hope to accomplish in your new position/during your time at U of T Engineering?

MT: Within Civil Engineering, I would like to continue growing the Canadian Centre for Building Excellence (CCBE) with Professors Kim Pressnail and Jeffrey Siegel into a world-renowned research centre for healthy, energy efficient buildings.
I would also like to create stronger links through multidisciplinary design courses which will give students an opportunity to tackle today’s important problems with colleagues from a variety of technical backgrounds.

FA: I hope to one day truly ‘profess’ my subject.; to understand the old and new bodies of knowledge in such a way that I can properly judge their significance and place in the grand scheme of things.