Congratulations ECE Class of 2020!

Congratulations ECE Class of 2020!

Congratulations ECE Class of 2020! We’re so proud of all you have accomplished and how much you have overcome to reach graduation day. We know you’ll shape a better world for all of us. While we may not be gathering in person, we stand with you in spirit, take pride in your achievements and share your joy.

Please find below a message from the ECE Community.


UBC’s Fall Graduation Ceremony 

Fall Graduation for the Class of 2020 will be held virtually on Wednesday, November 25, 2020, at 2:30 pm. Incorporating traditions from UBC’s in-person ceremony, UBC’s 19th Chancellor will preside over the ceremony. The Honourable Steven Point (xwĕ lī qwĕl tĕl) will be officially installed as Chancellor on the morning of graduation day. 

During the graduation ceremony, UBC President and Vice-Chancellor Santa J. Ono will give a live address to the Class of 2020, dressed in full academic regalia. While graduates may not be able to shake the President’s hand on-stage, they will have an opportunity to take a selfie with him—virtually, of course. 

Another highlight of the 45-minute ceremony will be a keynote address from Cicely Belle Blain. A UBC Bachelor of Arts alum, Blain is a diversity and inclusion consultant, activist and writer who co-founded the Vancouver chapter of Black Lives Matter. 

Please visit UBC’s Fall Graduation Ceremony website for more information.

And don’t forget to download your personalized graduation video clip. Find yours to share with friends.

Prof. Pattabiraman Receives Killam Award for Excellence in Mentoring

ECE professor Dr. Karthik Pattabiraman is the recipient of the 2020 Killam Award for Excellence in Mentoring in the mid-career category. The award recognizes outstanding mentorship of numerous graduate students over many years. Recipients show outstanding ability to foster the intellectual, professional, and personal development of graduate students, as well as activities that go beyond excellent research supervision, including personal development and service to the scholarly community.

Dr. Pattabiraman’s students describe him as a great coach, mentor, and supporter of their work. While all doctoral advisors are expected to teach their students how to properly conduct research, Dr. Pattabiraman never does so in a way that spoon-feeds his students. He spares no effort to cultivate his students’ potential and help bring that out. According to his mentees, he is always ready to ask the right questions and listen, showing both patience and understanding. Dr. Pattabiraman makes conscious efforts to foster a culture of respect and friendship between himself and his students, and between the students themselves. He understands the ability, passions, personality, career plan of each student, and what makes them motivated and productive. As a result, his excellent mentorship not only inspires his students to complete their degrees, but it also helps them to begin their career both in and outside of academia.

According to Prof. Pattabiraman, this award has a special place in his heart as he considers mentoring to be the aspect of his job he enjoys the most. He says of mentoring, “To me, this is the most valuable part of being a faculty member, and I am truly fortunate to be in a position to make a difference in my students’ lives. I especially value the lasting relationships that I have built with most of my students long after they graduate from UBC, and blossom in their careers.“ Many of his former students have also detailed in their letters how his mentoring has had a significant influence on their lives, and allowed them to excel in their chosen careers.

Professor Pattabiraman received his master’s degree from the University of Illinois at Urbana-Champaign (UIUC) in 2004, and his PhD in 2009. He has been at UBC since 2010, and is currently a Professor in the Department of Electrical and Computer Engineering. He also received a UBC Killam Faculty Research Fellowship in 2016, and a UBC Killam Faculty Research Prize in 2018, among other awards. His research interests are in dependable and secure computing, and software systems. He has graduated a total of 8 PhD and 20 Master’s students, and is currently supervising 7 graduate students at UBC. His students have all gone on to successful positions in both academia and industry, and they have many won prestigious awards for their research such as the William C. Carter dissertation award, the ACM SIGHPC distinguished dissertation award (honorable mention), and the SPEC Kaivalya Dixit distinguished dissertation award.

For a full list of recipients of the Killam Awards for Excellence in Mentoring, please visit UBC Graduate and Postdoctoral Studies – Killam Mentoring Citations

Meet ECE PhD Student Megha Kalia

Megha Kalia’s research aims to make Augmented Reality (AR) feasible for robot-assisted surgery. In contrast to open surgery, robot-assisted surgery can decrease the patient recovery times from months to weeks.

RESEARCH DESCRIPTION

Megha Kalia’s research aims to make Augmented Reality (AR) feasible for robot assisted surgery. In robot assisted surgery a surgeon makes minimal precise incisions by reaching inside a patient’s body using miniature instruments and a camera mounted on robotic arms. The system while providing the same dexterity as human hands enables a precise and safe surgery leading to reduced recovery time from months to weeks in comparison to open surgery. However, like open surgery, the concerns of incomplete cancer removal remain; primarily because of unclear boundaries between healthy and cancerous regions in the camera image. The boundaries, although, are visible in medical imaging data such as Magnetic Resonance Imaging (MRI), constant juggling between the MRI and the camera image, while performing surgery, is impractical. Here, Augmented Reality can help by projecting information like tumor locations, retrieved from medical data like MRI, directly on top of the organ in real-time. Based on this, the surgeon can make the most optimum incision. However, AR is not yet mainstream in robot assisted surgery because of the very low margin of errors needed and practical restrictions of safety and sterility in an operating theater. Simply put, my research is two-pronged: First part is to come up with the most accurate and real-time algorithms that need no external equipment during surgery to superimpose the tumours detected through MRI (for example) directly on the surgical camera view. The second part of my research relates more with the manner in which we display the tumour in the camera. More precisely, we need to find the balance of what is the best way of showing the tumour in the surgical camera view so that it does not create visual clutter and block the surgeon’s view itself of where to make the incision.

WHAT DOES BEING A PUBLIC SCHOLAR MEAN TO YOU?

Being a public scholar to me means to disseminate the knowledge about the current state of my research to the general public and clinicians in simple, understandable language. I believe, as a public scholar, it is my responsibility to bring researchers, like myself, clinicians and the general public on the same table and engage in broader discussions. Direct interactions will also motivate young diverse minds to pursue a career in health technology research.

IN WHAT WAYS DO YOU THINK THE PHD EXPERIENCE CAN BE RE-IMAGINED WITH THE PUBLIC SCHOLARS INITIATIVE?

In the field of health technology, I see many self-motivated PhD students working on big questions that can affect human lives in unimaginable ways. Moreover, I see research itself as a collective effort where an entire research community is taking small steps towards a greater goal. Hence the statement, “Standing on the shoulders of the giants”. However, It’s ironic that so many PhD students feel isolated, unmotivated and go through a “midlife crisis” in the middle of their PhDs. PSI can help re-imagining the whole experience where the outcome of a PhD can be much more than just a 100 pages long PhD thesis. For me, PSI can help engagement with end-users, such as clinicians, and establish partnerships to produce more meaningful and high quality research. The partnerships have allowed me to see my proposed methods in action where I don’t need to wait for years to validate their usefulness. PSI also allows and supports more cross-disciplinary research providing a test-bed to try out more creative and out -of the box ideas to solve the same old problems. PSI can also help provide a more profound PhD experience by creating a network of people striving to solve important engineering problems in the form of its many bright Public Scholars.

HOW DO YOU ENVISION CONNECTING YOUR PHD WORK WITH BROADER CAREER POSSIBILITIES?

I see my PhD as a problem-solving exercise where we are trying to make Augmented Reality a part of routine robotic surgical procedures. While coming up with novel AR methods, in addition to the usefulness of the method, we constantly ask ourselves questions pertinent to translation to a real surgery, such as, “is it feasible during surgery?” or “how much time will it take to perform the method during surgery ?”. Thus, I often find myself delving into domains such as human computer interaction, computer vision, machine learning, among others. The implementation always happens on the da Vinci surgical robot in our lab, which requires the knowledge of software and hardware alike. In the last few years, my PhD has given me the breadth of skills that I couldn’t imagine in any other professional role or position. The skillset opens broad career possibilities for me.

HOW DOES YOUR RESEARCH ENGAGE WITH THE LARGER COMMUNITY AND SOCIAL PARTNERS?

The heart of my research is to come up with methods to showcase and fuse medical data (such as MRI and Ultrasound) with surgical camera images, to see tumor margins and organ boundaries, while performing surgery, in robot-assisted surgery setup. We aim to deploy our system in real robot-assisted radical prostatectomy procedure at Vancouver General Hospital (VGH) within the next couple of years. To that end, I have been observing surgeries in the operation theater to understand the surgical procedures and surgical environment in which my proposed solutions will be used. Furthermore, one of our collaborators is a Urologist at Vancouver General Hospital (VGH), who routinely uses the da Vinci surgical robot for prostate cancer surgery. A part of my research is to receive regular feedback from him on my new proposed techniques in early stages of research to keep the proposed solutions relevant to surgery. Such one-to-one engagements with clinicians is essential but not sufficient to reach a wider community. Despite being useful, the transfer of surgical AR solutions to surgical theaters has occurred with glacial speed in the past. It is not just due to necessary demands of medical safety, but also because of fear among clinicians and the general public arising from a lack of familiarity with novel technologies. The root of this problem is that the outcome of a scholarly work, in the form of a research paper, is difficult to comprehend for non-researchers. Therefore, I have given more than 15 demos to the general public and undergraduate students to educate them about the state of surgical AR technology. I plan on delivering more public talks through various avenues, provided by PSI, about my research and the current status of surgical AR research, especially for prostate surgery.

HOW DO YOU HOPE YOUR WORK CAN MAKE A CONTRIBUTION TO THE “PUBLIC GOOD”?

“Public good” is an inherent part of my current research. In contrast to open surgery, robot-assisted surgery can decrease the patient recovery times from months to weeks. However, just like in open surgery, the incidents of positive surgical margins (PSM), indicating the occurrence of cancerous cells, after the surgery has been performed, are concerning. Oftentimes, during surgery the goal is to remove the cancerous tissue while preserving the surrounding healthy structures, for rehabilitation of the patient to a normal life after surgery. Thus, the effort to optimize this tradeoff, when the demarcation between the healthy and the cancerous regions are not clear in the camera image, can lead to PSM after surgery. In addition to the burden on the healthcare system, one can imagine the mental distress it can cause to the patients and their families. Augmented Reality can simplify the decision making by clearly showing the tumorous regions in the camera image. This information can be obtained from an MRI image and overlaid on the camera image. The current research, that aims to make AR feasible for robot-assisted surgery, can directly benefit approximately 200,000 robot-assisted cancer related surgeries and patients undergoing them, worldwide.

WHY DID YOU DECIDE TO PURSUE A GRADUATE DEGREE?

The decision to pursue a graduate degree was easy for me. I received a scholarship to spend a semester in Technical University of Munich, Germany in a lab where I worked with a well established research group, who have pioneered a lot of work in Medical Augmented Reality. My visit there was a lot of fun as I was working on such a cool project with some of the most hardworking, smart, humble and fun people. On top of it, reading research papers about human cognition and how we can integrate it with Augmented Reality applications, blew my mind. At that time PhD seemed like an extension of the fun, all while travelling around the world.

WHY DID YOU CHOOSE TO COME TO BRITISH COLUMBIA AND STUDY AT UBC?

During my stay in Munich, although things were great at work, navigating my way without knowing the German language was not easy for me. That’s why I wanted to pursue my degree in an English speaking country. Then I came to know about The Robotics and Control Lab at UBC. It is one of the very few labs in the world, where an ongoing clinical study is in place. What this means is that I don’t just get to do research like other PhDs, but get to test my methods on real data and in real robot-assisted surgeries at Vancouver General Hospital. I also actively collaborate with my colleagues at both the Technical University of Munich and UBC, thus my network also expanded. Hence, when the opportunity to pursue a PhD degree in my current lab, under the supervision of the best of supervisors and surgeons came my way, I grabbed it.

Original Article

ECE Alumna Sara Badiei Shares her Career Move

Sara Badiei currently lives in Coquitlam and works as a Business Development Executive at Unity Technologies. After completing her MSc (Engineering) Sara spent several years working in the non-profit sector across the globe before changing course. Read more about how Sara made a significant career move and how she navigates change.

Tell us about your role

I build the future every day by imagining how we can use the latest advances in technology to change the way companies do their business. Unity Technologies is the world’s largest platform for creating real-time 2D and 3D content. Over half of the games downloaded from the App Store, and over 70% of Augmented and Virtual Reality experiences are built with Unity. I work with Fortune 500 companies to see how we can transform their operations through these cutting-edge technologies.

Describe a situation where you have had to navigate change in your career

For almost a decade I worked in the international development and humanitarian aid sectors with organizations like Doctors Without Borders, the Red Cross and the World Bank. I led engineering projects in some of the most difficult emergency zones in the world, including Afghanistan, Gaza, Chad, Congo and more. I loved my job but after I had my daughter my priorities changed. Having children is a pivotal point in one’s career and finding a way to balance it all is a challenge – at least at first.

What did you learn about yourself from that experience?

Initially, it was very hard because my sense of self was intimately tied to my job. I had worked so hard to get to where I was and now there was a very sharp turn in the road that made me question my identity and trajectory. The process of starting a family re-engineered my sense of self and turned me into a more balanced and selfless person. What I learned about myself was that I’m extremely resilient and versatile which has served me well again and again throughout my career.

Do you have any advice for someone who is experiencing change in their career?

Change forces you to check the direction your career is headed in and see if your roots are deep enough to weather the storm. Building vertically in one direction may allow you to become a tall tree, but if you haven’t balanced well the smallest storm will topple you over – and the higher you rose the harder you’ll fall. Having some wind blowing occasionally and making sure you use that as an opportunity to lay down more roots allows you to build higher and be more resilient in the long term.

What opportunities arose from navigating change?

I decided to change course in 2018. Between then and now (2020) I ran in a federal election and came very close to winning, then joined a small tech firm which got acquired by the world’s largest real-time content creation company. Now I work on the cutting edge of technology, dream up what the future should look like, and work with an incredible team to actually make that future happen. I never would have imagined any of this was possible back in 2018.

Original Article

ECE PhD Student Receives ACM TECS Best Paper Award 2020

ECE Alumnus Farid Molazem (former ECE PhD Student) and Professor Dr. Karthik Pattabiraman have received the ACM TECS Best Paper Award 2020 for their paper titled “Design-Level and Code-Level Security Analysis of IoT Devices”. The award recognizes the best paper published in the ACM Transactions on Embedded Computing between January 2018 and December 2019. ACM TECS aims to present the leading work relating to the analysis, design, behaviour, and experience with embedded computing systems and is considered the top journal in the embedded computing area. Dr. Farid Molazem is now a software engineer at Google.

ECE Alumnus Farid Molazem (former ECE PhD Student) and Professor Dr. Karthik Pattabiraman have received the ACM TECS Best Paper Award 2020 for their paper titled “Design-Level and Code-Level Security Analysis of IoT Devices”. The award recognizes the best paper published in the ACM Transactions on Embedded Computing between January 2018 and December 2019. ACM TECS aims to present the leading work relating to the analysis, design, behavior, and experience with embedded computing systems, and is considered the top journal in the embedded computing area. Dr. Farid Molazem is now a software engineer at Google.

The paper analyzes the important role the Internet of Things (IoT) plays in different aspects of our lives. Smart grids, smart cars, and medical devices all incorporate IoT devices as key components. The ubiquity and criticality of these devices make them an attractive target for attackers. Therefore, techniques are needed to analyze their security, so that their potential vulnerabilities can be addressed. In this paper Dr. Molazem and Dr. Pattabiraman and introduce two techniques, one at the design-level, and the other at the code-level, to analyze security of IoT devices, and compare their effectiveness. The code-level analysis technique is able to find 3 times more attacks, and complete the analysis in half the time, compared to the design-level analysis technique, with no false positives. They demonstrate their techniques on a widely deployed IoT device, a smart electric meter, and find many real vulnerabilities in it. This work has led to significant interest from industry, and was featured by many news outlets last year. 

The award was presented virtually in the Embedded System Week (ESWEEK) 2020 on Wednesday, September 2020. 

Congratulations Dr. Molazem and Dr. Pattabiraman!

How You Use This One Smartphone Feature Reveals Your Age

WHETHER OR NOT YOU USE THIS SHORTCUT DEPENDS ON YOUR GENERATION.

Regardless of whether you’re young at heart, there are certain habits that give away your true age. Like signing a text with your name or falling asleep at the very thought of a second glass of wine, some things just signal to the world that you’re over 40 and not afraid to show it. Now, a new study reveals that there’s one thing you do with your smartphone that reveals your age: using a pin number to unlock your phone rather than a fingerprint or facial recognition means you’re of an older generation.

The study, conducted by researchers at the UBC Electrical and Computer Engineering, explored the links between age and smartphone use by remotely tracking smartphone users’ habits. “As researchers working to protect smartphones from unauthorized access, we need to first understand how users use their devices,” explained Konstantin Beznosov, a professor of electrical and computer engineering who supervised the research.

To collect their data, the research team recruited 134 volunteers, ranging in age from 19 to 63, and had them install a custom app to their Android phones for a period of two months. The app logged all of their lock and unlock events, including whether they opted for auto or manual lock, and the movements of the phone at the time of unlocking. This is how they discovered the generational differences in unlocking habits.

The researchers also collected data on the length of user sessions. The team found that in addition to a person’s preferred method for unlocking their phones, the amount of time spent on the phone also correlated with age.

As one report on the study explains, “Analysis showed that older users used their phone less frequently than younger users. For every 10-year interval in age, there was a corresponding 25 per cent decrease in the number of user sessions. In other words, a 25-year-old might use their phone 20 times a day, but a 35-year-old might use it only 15 times.”

So, if you still unlock your smartphone by hand, you can chalk it up to a generational preference. You might even take some pride in it: after all, it’s no wonder young people need a handy shortcut, given how needlessly often they unlock their phones. And for cutting edge technology you can actually use, check out Amazon’s Mind-Blowing New Way to Shop.

Access Original Article by Lauren Gray.

Photo by Thom Holmes on Unsplash

Speeding Up COVID19 Testing with Artificial Intelligence

A University of British Columbia-led study has identified a computer technique that health facilities can use to screen, diagnose and monitor COVID-19 pneumonia more efficiently.

The researchers found that a pre-trained neural network called DarkNet-19 can rapidly and reliably detect COVID-19 on chest X-rays. The network recognized the disease’s imaging patterns on nearly 6,000 chest X-rays with 94 per cent accuracy, outperforming 16 other available networks.

X-rays typically take about five minutes to complete and five minutes to interpret, but the artificial intelligence-enhanced method can provide a “COVID-19 score” — the probability that a patient has the virus — within one minute.

The team also developed a DarkNet-19-based visualization system that highlights the key visual features of the disease and its progression.

“Many hospitals and clinics have become overwhelmed with work during this pandemic, requiring imaging specialists on staff 24/7 to analyze the large number of imaging tests that are being done,” says Mohamed Elgendi, the study’s lead author and an adjunct professor of electrical and computer engineering at the University of British Columbia. “With the help of artificial intelligence, we may be able to optimize the efficiency of X-ray imaging analysis and speed up the COVID screening process around the world.”

When tested against 16 other pre-trained neural networks, DarkNet-19 was found to be not only accurate, but also fast and relatively small in size.

Current gold-standard laboratory tests are expensive and time-consuming, making them impractical for under-resourced health facilities to use. A real-time PCR test, for example, costs approximately CAN$4,000 and has an average turnaround time of three to six days.

In contrast, X-ray tests are widely available and cost about CAN$35 to $40 each. Using DarkNet-19 to analyze these X-rays, doctors could improve throughput and their ability to diagnose COVID-19, the study findings suggest.

“In the earliest stages of COVID-19, chest X-rays often appear normal to the naked eye,” says Savvas Nicolaou, the senior author of the study and the director of emergency and trauma imaging at Vancouver General Hospital. “But in the right clinical context, applying AI-augmented analysis to the same images may reveal the subtle presence of the disease.”

Nicolaou notes, however, that while imaging can assist in COVID-19 screening, it should be used more “as a complementary diagnostic, problem-solving and prognostic tool” in conjunction with clinical evaluation.

Previous research identified pre-trained neural networks that detect COVID-19 with accuracies ranging from 90 per cent to 98 per cent. But those studies examined far fewer sample sizes and were not optimally tested for specificity and reliability.

The study, whose authors also include researchers from Simon Fraser University, the University of Oxford and the Massachusetts Institute of Technology, was recently published in Frontiers in Medicine.

Original Article

Photo by CDC on Unsplash

Roberto Rosales Receives UBC President’s Staff Award

Congratulations to Dr. Roberto Rosales, ECE Engineering Services Team Lead, for receiving the 2020 UBC President’s Staff Award for Leadership. The President’s Staff Awards are presented by the university annually and recognize the personal achievements and contributions that staff make to UBC, and to the vision and goals of the University.

Since obtaining his graduate degrees in the Department of Electrical and Computing Engineering (ECE), Roberto Rosales has progressed into a realm of staff leadership that encompasses many roles – researcher, technical consultant, sessional lecturer, manager, mentor, and team leader.

Leading by example, Roberto elevated the ECE Engineering Services Team by cultivating trust, morale and an enthusiasm for enabling research, mentoring undergraduates and serving instructors. The team provides innovative and unprecedented technical and engineering support for both research and teaching, and their model of service delivery demonstrates their commitment to supporting world-class research as well as to provide an outstanding education and experience to our undergraduate students.

An advocate for students’ continued success, Roberto uses his influences to ensure world-class teaching and learning environments. In 2014, Roberto worked with students, faculty and staff to prepare for an external review with the Canadian Engineering Accreditation Board, which included a thorough assessment of labs and facilities with a distinct focus on health and safety. More recently, when the department learned that their teaching epicenter, the MacLeod Building, was due for a multi-year seismic upgrade renovation, Roberto enthusiastically identified the opportunity to enhance the range of technical services that can be provided for teaching and research.

Roberto demonstrated leadership as an inaugural member of the System on a Chip (SOC) Research Lab, recognized by peers as maintaining a professional, constructive, positive, and solution-oriented attitude. He is an expert in his field and is a valuable mentor for graduate and undergraduate students.

See full list of UBC President’s Staff Awards recipients here.

UBC Solar’s Approach for the Fall 2020

With the transition to online classes and working remotely we caught up with UBC Solar, a student run design team at UBC, to ask them how they shifted their operations to work remotely and their plans for the upcoming year. We sat down with Alex Ezzat the Co-Captain of UBC Solar and a fifth-year student studying Engineering Physics to ask him how his team is continuing to make progress and some of the challenges they faced with the transition to the online environment.

UBC Solar is a student design team that designs, builds, and races solar-powered cars. The UBC design teams are student run where students work collaboratively to design projects and gain hands on experience. Design teams are a great way to meet other students in Applied Science in different programs and year levels. UBC Solar creates solar cars to demonstrate the power of solar technology while exploring and educating about the importance and feasibility of renewable automotive solutions. 

UBC Solar has roughly 50 members from all faculties who all have an important role on the team. They compete in the American Solar Challenge, a 2500km race across North America, competing against teams from all across North America. Over the course of a week, the teams’ race across public roads and highways while driving on nothing but the power of the sun using the car they built throughout the year. For more information, we can be contacted via email at manager@ubcsolar.com or on social media, @ubcsolar.

What was the biggest challenge you faced when transitioning to remote work? 

When we first moved online in March, we had to reshape the way we approached teamwork. The first few weeks were challenging and somewhat disorganized as it was a busy and stressful time of the year for everyone and working remotely was a new concept, no one was prepared for. Not having the “face-to-face” aspect we were so used to dropped moral as we felt disconnected from our teammates. We turned to Discord as our new format for online meetings, acting as a new haven where members could freely hop from one voice channel to the next to maintain contact with their friends across the team’s various working groups.

What was your experience like working remotely this summer?

While the transition to the online format was slow and bumpy, we have been able to turn the situation around quite well. Having more time online has given us the opportunity to focus on new and innovative design projects we did not have the resources to pursue before. We found that online meetings have advantages specifically, when it came to knowledge transfer and versatility. We have been able to host more tutorials and design reviews to keep members engaged and help them learn new techniques they might not have had the chance to learn.  

How is your team adapting for the fall?

We are still figuring out specific plans for the fall as there are still a lot of unknowns. We are roughly 2/3 of the way through the design of our newest solar car, planned for 2022. Due to the current situation we anticipate the majority of our work will remain as virtual design tasks, with limited in-person access to our workspace. We are still hopeful to race next summer, so any available hands-on time will be put towards finishing up our current solar car. As with every year, we will continue to provide new recruits with fun and educational introductory projects to get them all caught up to speed as we anticipate the re-opening of our workspace.

How will recruitment be done this year?

Our recruitment will be online this year and be formatted to accommodate applicants across varying locations and time zones. The process will start with an online web form where applicants can express interest regarding joining our team and will provide us with a bit about themselves and why they want to join. Selected applicants will be invited for an online interview with some of our team leads to evaluate their work style and community fit. No technical experience required!

How and when do you run your virtual meetings?

Virtual meetings are held every Saturday from 10am to around 5pm PST in the fall. During these meetings we start with some announcements and then jump into working with our respective groups. Each sub-team will also have a meeting throughout the week. The time of the meeting will be set to accommodate everyone in the group, regardless of what time zone you are in. As not all members will be able to attend due to different time zones, meeting notes will be posted online after each meeting.

How will you be moving forward with competitions you take part in?

It will all depend on the current situation. We hope to be able to compete in the 2021 American Solar Challenge next summer. We are hopeful that we will be able to finish the car in the January term to get it ready for the race in July. After the competition we are looking to start our new car. 

Anything you would like to share with students interested in joining UBC Solar?

As a young engineering student, the design team experience is incomparable and can be the most rewarding part of your educational career. It gives students hands on experience working on engineering projects in fields they are interested in. If you are interested in sustainability and learning about smart design, innovative thinking, and workplace professionalism, be sure to check us out! Though the online setting is unfortunate, we still encourage new students to apply to a design team, even if it is not UBC Solar. 

ECE Researchers Receive Nearly $2.9M in NSERC Support

UBC Electrical and Computer Engineering researchers have been awarded nearly $2.6 million from the Natural Sciences and Engineering Research Council of Canada (NSERC) through its Discovery Grants Program.

The Discovery Grants support “ongoing programs of research with long-term goals rather than a single short-term project or collection of projects. These grants recognize the creativity and innovation that are at the heart of all research advances.”

Two UBC Electrical and Computer Engineering researchers also received nearly $300,000 in NSERC Research Tools and Instruments Grants.

The NSERC Research Tools and Instruments Grants “foster and enhance the discovery, innovation and training capability of university researchers in the natural sciences and engineering by supporting the purchase of research equipment.”

183 projects across UBC were awarded a total of $40.1 million from NSERC. For more information about these projects, please see the announcement of UBC’s Office of the Vice President Research and Innovation.

ECE Recipients: Discovery Grants

Beznosov, Konstantin
Novel Physical Protection of Personal Mobile Assets
$205,000

Cheung, Karen
Microfluidics and inkjet for biomedical engineering materials
$230,000

Fels, Sidney
Creating and Evaluating New Media Interfaces for Expression
$240,000

Garbi, Rafeef
Towards Generalizable Reasoned Deep Learning for Efficient Interpretable Medical Image Computing
$230,000

Jatskevich, Juri
Advanced Tools for Modelling and Analysis of Evolving Power and Energy Systems
$275,000

Kamgarpour, Maryam
Stochastic Control for Large-Scale Safety-Critical Systems
$220,000
$120,000 Discovery Accelerator Supplement
$12,500 Discovery Launch Supplement

Leung, Cyril
Energy efficiency and security for wireless communications
$140,000

Marti, Jose
Advanced Hybrid SFA/EMTP Simulator for Seamless Integration of Power Systems Dynamics and EMT Transients
$195,000

Pattabiraman, Karthik
Resilient, Secure, and Programmable Next-Generation Internet of Things (IoT)
$240,000

Rohling, Robert
Advancing towards ubiquitous medical ultrasound
$320,000

Shekhar, Sudip
Integrated Circuits for Large Arrays
$165,000

ECE Recipients: Research Tools and Instruments Grants

Jatskevich, Juri
Hardware and Software for Power-HIL Real-Time Simulation Platform for Integrated AC-DC Energy Systems
$149,988

Tang, Shuo
High-Repetition Rate Laser for Real-Time and 3D Photoacoustic Imaging
$150,000