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I'm a computer scientist I specialize in medical image analysis and large-scale analysis of biomedical data.

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So we take images usually from CT or MRI scans that you get as a patient in the hospital

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and we try to mine those scans for additional information and use that to derive predictive treatment algorithms

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for patients that are undergoing cancer care.

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I graduated from the School of Computing almost a decade ago and after that I

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went down to the United States worked at
Vanderbilt University as a postdoc and

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then I transferred to a position at
Memorial sloan-kettering Cancer Center

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in New York which is the oldest and
largest and probably best cancer center

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in the world. And I was the only PhD that
specialized in image analysis at that

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institution and Memorial sloan-kettering
produces a tremendous amount of imaging

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data and so I worked through that data
for a few years and really worked with

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clinicians and demonstrated that there was value in that data.

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And when I found out that Queen's is the repository for the cancer clinical trial data for all

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of Canada, and much of the biomedical
data for Canada. I realized that that was

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a unique opportunity that we simply
don't have in the United States.

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The United States does not centralize any
kind of access to patient data.

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So I mean it's a country that can't agree that they should have access to universal healthcare, right?

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Never mind have inter-operable patient data for you know transfer to different institutions.

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So I came back to the School of Computing, I was recruited into the School of Computing

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and into the department of biomedical molecular sciences to take advantage of the data

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that were collecting here and to use
that and exploit that for potential cancer clinical trials.

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I'm interested in biomedical data so
some of that data is from imaging data

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so those CT or MRI scans that that we
take of patients when they come in for

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their care sometimes that data is
genomic proteomic metabolomic but what

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I'm really interested in is how we put
that data together. So how we put that

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data together interrogate that data to
make new biomarkers. A biomarker is a

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thing that a clinician uses to make a
decision. So do we send this patient for

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chemotherapy, do we send this patient for a surgery, do we send them for radiation therapy.

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And right now we don't really
have a good way to do any of that.

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We treat everyone to treat a few, so if
you're a cancer patient for example, you

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come to the hospital, we'll probably give
you one line of chemotherapy and then

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when that fails we'll give you another
one and then when that fails we'll give

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you another one. And then we might do a
genomic test to figure out if there's a

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targeted therapy that we should do for
you. And so so I take all of these

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different types of data and use machine
learning to put them together into

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predictive and prognostic markers.

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Currently there are no AI and machine
learning systems in use clinically.

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So there are no AI are machine learning
systems that are used to treat an

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individual patient. That all of the work
that's done in AI and machine learning

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has failed to be clinically translated
and so in the next 10 years I would like

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to see clinically relevant biologically
relevant biomarkers that marry the idea

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of genomics, of radiomics or radiology
images, and putting these data together

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to to identify a unified cogent story of
cancer that can be mechanistically

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targeted through some through some
treatment that we derive.

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What if we can actually, using AI and machine learning tools, come up with a better strategy and

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a better ordering of those treatments?

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And that's something that I would like to see.

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My research has changed over time in a
few ways, one is that as a graduate

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student at Queen's, it was much easier to
do clinical work that could potentially

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influence the patient care and I thought
that was something that you could do

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anywhere because you could do it at
Queen's and so then I went down to the

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US and I realized that there are so many
barriers to that work and to really

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doing clinical work and you know passing
things through the FDA and making

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clinically usable biomarkers that it
brought me back to Canada.

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And so now that the equation has changed so coming
back to Canada you can really rethink

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how you create these markers and the
data with which you have to do that.

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But the other way that it's really changed
so I've had an independent lab for four

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years now, so when I started the lab we
spent a lot of time annotating data and

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collecting data because data isn't just
available through the clinical system

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you have to extract it from the system
you have to label it. And as a result of

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that labeling we now sit on a mountain
of data that will be really

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interesting to use AI and machine
learning tools to interrogate.

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And so while we spend a lot of time doing that initially, I think now is a really

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exciting time to be in the lab because
we can now mine that data for clinically

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interesting biomarkers and so it just
represents a really unique time to join

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the lab and a really exciting time in AI
research. Now we can really benefit

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from all this work that's been happening
for the last few years and do some cool stuff.

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That's a great question. I haven't had grad students for a while

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because I've been at a Cancer Center so
we didn't have a University to draw

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graduate students from but what I've
done since I've come to Queen's to pick

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graduate students is that you know you
always look for diversity.

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Diversity of thought, diversity of background to bring a group of people together that think

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differently about problems. You know
we're an interdisciplinary group, we work

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with radiologists, pathologists, surgeons
oncologists, computer scientists, biostatisticians

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So any background related to anything can really be usable in our group.

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We're interested in
enthusiasm you know we want people that

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are interested in curing cancer. We're
not here necessarily to write another

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paper although we're gonna do that too
we're here to really move the bar on

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cancer care. We're here we have a mission and we are fulfilling that mission and

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we fulfill that by doing these projects
but these projects and these thesis are

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a microcosm of the whole system. You know we're here to generate new ideas and to

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really look at cancer in a different way.
Students can have a variety of

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background so you know some of the
people that we work with are medical

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students or medical residents or fellows
but we also work with people that are

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computational students we work with
people that are from a basic science

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background that might have some basic
science question that they want to ask

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of data that they might use computing to
interrogate that solution.

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And we want all of those different types of people
and there's no way really, no one way to

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really pick those people. You know I was
someone that was a good student but I

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wasn't a stellar student you know and
but because of my ability to talk to all

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kinds of different people that's my
skill set and so I recognized versions

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of that and other people some people you
know want to work by themselves and

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work through a problem and we love those
people too and then there's other people

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that don't work that way
and it really is just really about

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building a team
a common mission.

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Computing is flexibility. So you can get any job once
you're a computer scientist you can go

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into any field. You can go into business,
you can go into medicine, you can go into

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computing, you can go anywhere. There's a
place for a computer scientist in every

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discipline. And computing means that you
can make your own path and that you're

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always employable so even when the going
gets tough in your job and every job is

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a grind at some point even the best jobs
are a grind at some point and when

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you're in the grind and you're
questioning your life choices, computing

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gives you the freedom to say "I don't
want to be in this grind anymore". I can

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always go and take a job as a programmer
in xfield

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or reinvent myself as something else. And
I think about that in my career I think

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about this is the thing that I'm doing
right now that I want to do for the next

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while but I don't have to do it because
I'm a computer scientist so I can go do

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whatever I want to do and that's why you
go into Computer science.

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What I like about computing is that you
can go into a room where you don't know

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anything about what's going on in that
room. So I can go into a room that's full

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of clinical people that understand
deeply their discipline and they speak a

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completely different language and I can
listen to what they're doing and I can

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think about ways that computing can help
them solve a problem that they either

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didn't even know that they could solve
or a problem that they didn't even know

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that they had. And that's what's so
exciting about computing is that you can

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bring things together that maybe no one
has ever thought about before.

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Computing is great and I spend a lot of time in my
head in computing. So whenever I can I

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try to get out of my head I try to get
outside I try to do a lot of physical

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activity, go to the gym, throw sandbags at
the ground to let out some steam because

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you know things it's important to handle
stress and to deal with your life and

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it's important for you to be a
productive member to take care of yourself.

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And we sit in desks all day so
it's important to undo sitting in a desk all day.

