Translator: Helena Bowen Reviewer: Denise RQ
I just want to start off saying that I've always been an engineer.
I honestly blame my parents for that.
They got me started from a young age, and it just kind of stuck.
It started with the LEGO robotics camps, and by the time I was in fourth grade,
I was working on basic circuits on a bread board.
In 6th grade, I decided I wanted
to major in electrical engineering and create a remote controlled blimp.
In 7th grade, I taught myself how to use a circuit board design program
and created my first printed circuit board.
Let's fast-forward to the middle of 2012 however,
when I'm in 10th grade and looking for my next science fair project.
I had gone through my brainstorming process,
and by the end of it, I was kind of stuck on one idea:
the Aurora theater shooting.
Living in Colorado, the Aurora theater shooting had happened
just a short drive away from my house, less than a month and a half previously,
and it was still something that was very much in everybody's minds.
And so, I set out to do something about the problem of mass shootings.
However, as I started to do a little bit more research,
I realized that mass shootings might not be the biggest problem;
there might be something else behind it.
Let's go through some of the statistics I discovered real quick.
Every 30 minutes in the United States, a child dies or injured by a firearm.
The number of preschoolers who die from firearms every year
is nearly double the number of law enforcement officers
who die in that same time period.
Ten percent of law enforcement officers who die from firearms
are killed by their own firearm because they're disarmed and then shot.
Most horrifying of all
is that the total of number of children and teens killed by firearms
is two and a half times the total number of U.S. military casualties
for the Vietnam, Iraq, and Afghanistan wars combined.
That's a problem.
After realizing this, I switched focus from trying to prevent mass shootings
to working on preventing general negligent and unauthorized firearm use.
I spent the next two years developing a solution.
Let's talk about it.
At a very high level, this solution allows only the owner
or people that the owner chooses to use their firearm.
It does this through use of a capacitive imaging fingerprint sensor.
This is not the kind of fingerprint sensor that you just have to swipe five times
on your laptop to get it unlocked, but this is a far superior technology
that allows you to just place your finger on the sensor and have it be read.
Once the system has recognized your fingerprint,
it then uses a mechanical locking system
to unlock the firearm and make it ready for use.
This entire process is controlled
by a printed circuit board and the electrical system residing on it.
There are a couple of main applications and main markets for this technology.
The first of which is people who have or want to have firearms in their house.
However, having firearms around children can be very dangerous.
A firearm equipped with this technology
would be significantly safer to have in the house,
because even if the child does get a hand on the firearm, it's not useful.
Another less obvious benefit is seeing if that homeowner
ever has to use that firearm for defense.
Most homeowners are very responsible about their firearms.
They take classes to learn how to use them properly.
However, target shooting is very different
from actually using a firearm in a stressful situation,
and many homeowners don't have the combat training
to know how to keep hold of the firearm once they have it out.
However, with this technology, within a second,
if they are disarmed by an assailant, within a second,
the system is locked and the firearm is completely unusable.
The second main application
is making our law enforcement and military safer.
The system allows multiple users to be registered to one firearm
and multiple firearms to be registered to one user.
This means that we can have a group of soldiers, say 15,
and any one of those 15 soldiers
can use any one of the 15 firearms assigned to their group.
But, no one outside that group can use any of those firearms
if the weapons are dropped or the soldiers disarmed.
Let's talk about this project
from a technological development perspective real quick.
I've gone through three main revisions in the course of this design.
The first revision was primitive, with circuit boards and batteries
literally duct taped to the side of a model handgun.
Needless to say, it didn't even turn on,
but I learned a lot from this revision, and I took it to the local science fair,
where I competed and won first place in engineering.
I then set out to fix pretty much everything wrong with this design.
The second revision was astronomically better.
I started from scratch and created a CAD file
that was a model firearm,
but also had space for everything extra that I need to have in my system.
This means that I could integrate everything in there
and not have to worry about connections or anything like that.
Also, instead of using this previous, complicated 3-board circuit board design
that didn't work, I simplified it down into a 1-board design,
that was much easier to use and actually turned on.
It didn't quite work, though.
I screwed up a connection between the microprocessor,
the part that actually controls the system,
and the mechanism that locks and unlocks the firearm.
This means that while I could test some aspects of it,
it didn't completely work.
I ran out of time and took this version to the Colorado State Science Fair,
winning a ticket to the Intel International Science Fair.
For the Intel Science Fair, I did another revision
which fixed most of the issues that were remaining.
The largest change was that I took the same CAD files
and had them manufactured, 3D printed, out of significantly superior materials.
This means that the system operated significantly smoother,
but it also looked much prettier for the judges.
I traveled to Phoenix, Arizona, of all places,
for a brutal week of judging with 1,500 other students
that were selected internationally
for their merits in their fields of science and engineering.
I won the first place grand award in engineering: electrical and mechanical.
This was astonishing.
I went not expecting to win anything, just there for the experience,
and excited to be able to talk to all of these incredible students,
but by winning this award, it's helped open up a lot of doors for me.
One really good example of this is a local program
at the Leeds School of Business at CU Boulder.
They ran an entrepreneurship bootcamp, a week long intensive, 14-hour days,
where the top faculty at the Leeds School of Business
teach everything you need to know about starting a company.
The program is only open to people with Bachelor's degrees.
Since I haven't graduated from high school yet, it doesn't apply.
(Laughter)
Nonetheless, because of this recognition, they considered my application
and learned most of the skills needed to start a company.
Speaking of that, I founded the company Aegen Technologies,
a company dedicated to creating smarter firearms through biometrics.
None of this would've been possible without a generous $50,000 grant
from the Smart Tech Challenges Foundation.
The Smart Tech Challenges Foundation was specifically created
to foster innovation in the field of firearm safety.
This has been a rollercoaster of a venture with setbacks and issues at every stage,
but it's become increasingly apparent to me throughout this
that we need a solution like this.
The needless gun violence and the deaths that are completely unnecessary
just get higher every single day.
Everyone here knows that we're in the middle of a huge debate
about our constitutional right to bear firearms,
but with technology like this,
we can take the issue of improving firearm safety
out of the political spectrum and focus on just making firearms safer.
Thank you.
(Applause)