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This student profile has been archived and is no longer being updated.
This student profile has been archived and is no longer being updated.
While working at an entry level position right after my undergraduate program, I felt a need to broaden my mind and push the limits of my intellect and creativity. The most logical path was grad school.
UBC is among the top universities in the world with a magnificent view.
The research facilities and the industry collaborations.
There are more sushi places than Mcdonalds!
The research part of course. Being able to indulge myself in a topic that interests me and getting paid to do so.
As a research scientist, it is necessary to have the ability to think outside the box, solve problems that are not of textbook origins. This can tend to be difficult due to tunnel vision and requires proper training.
I feel my program and my supervisor are preparing me very well for those challenges. My supervisor will always tend to have discussions with a very open mind is always encouraging the flow of creative juices.
My undergraduate thesis had introduced me to the thought process that goes into researching a topic and solving an open ended problem.
I hang out with friends, work out, eat, read Isaac Asimov, and travel.
It is just as important to choose a compatible supervisor and research group as it is to choose the research topic. In case of a PhD it is really important that you know what you are getting into. Five years of your life during your prime is very expensive.
The aim of my research is to develop a next generation flexible transparent tactile interface for human computer interaction that can work even while being physically deformed, a property necessary for a true wearable device. In addition to sensing touch, the device can detect the presence of a hovering finger, a stretch, and a bend. It is highly transparent and is fabricated using a simple and scalable process, and will be widely available and made using low-cost polymer materials. The working principle of the sensor is based on the well-established mutual capacitance technology used in current touch screen devices rendering it easily adaptable. The technology is being further enhanced to detect localized shear for electronic skin application. This would enable robot hands to effectively pick up fragile objects and even provide haptic feedback to surgeons using robotic arms for surgeries.