One of the highlights of the event for me was finally meeting  an incredible marine geologist I'd only previously met over the phone, Professor Aida Farough from Kansas State University. She had just landed from a trans-Atlantic flight and was super excited to get back to her office because another researcher sent her boxes of rocks. If someone sent me boxes of rocks I'd think they were pulling a prank! But not Professor Farough, who  studies minerals and microbes on the ocean floor that reveal the origins on life on Earth. Last year she spent three weeks aboard the research vessel Atlantis off the coast of California, where she dove in the submarine Alvin to a depth of 2,500 meters (1.5 miles).

I'm psyched to welcome Aida on the Pisces VI team as Science Advisor!

To understand CERN’s goals and why people (not just particle physicists!) are so excited about it, I recommend watching Professor Brian Cox’s 2008 TED talk next time you’ve 18 minutes. Additionally, this excellent slew of New York Times articles and this Vanity Fair article explain CERN through engaging stories and accessible language.
 
CERN has also become famous for being the birthplace of the World Wide Web, inventing cloud computing, featuring in Dan Brown’s Angels and Daemons, and getting fear-mongers worried about a black hole over Switzerland. It runs a particle accelerator called the Large Hadron Collider (LHC) along with other one-of-a-kind experiments.
 
CERN and its community comprise thousands of multinational, multidisciplinary scientists. We care about CERN because it demonstrates the power of collaborative science on a massive scale to solve big problems, promotes high-level dialogue among nations through the medium of science, and informs global policymakers on urgent scientific issues.

CERN has 22 member countries, but hosts collaborating scientists from 100+  countries. In practice this means many different languages spoken in the cafeteria. Researchers must navigate not only their subject matter, but also cultural, language, and scheduling barriers.
 
The technical challenge of sharing resources between geographically-spaced researchers spurred CERN to invent cloud-computing, technology that is now ubiquitous in data management and applications. CERN did so out of necessity, so that it could effectively use computing power spread across it’s many collaborating universities and countries around the world.

In the same 10 seconds I’ve had someone hold up a fork and ask me “what is the name for this again?,” and then “what is supersymmetry?” English isn’t the first language for many. People aren’t afraid to ask for clarification.   In addition to helping work though the language, this forces collaborators to think intentionally about their choice of words and iterate how to communicate it. I find that after a few days I unconsciously communicate in simpler language, a good habit for scientists to develop. 
 
For these reasons and others, CERN is also seen as a peacekeeping tool. A new experiment (both scientific and political), called SESAME , is copying CERN in the Middle East. Researchers from eight middle eastern are working side-by-side to answer fundamental questions about our universe. Post-WWII, CERN was a safe place for multinational dialogue through the medium of science where scientist from adversary nations worked side-by-side (see Sixty Years of Science for Peace). It provided and organizational framework for scientists to work across borders to achieve common goals for the common good.

Consequently, CERN does much more than answer questions about particle physics; it represents a paradigm for collaborative science on a massive scale solving big technological problems while promoting international comity.

Based on Google Translate to English: 
One of the most fascinating projects in which you participate is the submarine Pisces VI, a vehicle for exploration and oceanographic research that, in the future, could allow more and more people to visit the oceans. And we are not just talking about researchers but about the curious, students, of any citizen who is interested. What is it and above all, how much is missing from the first trips?
We will do the first tests at sea in the spring of 2019. The basic idea is this one: to make access to the oceans democratic. We want everyone to take a trip on a submarine, if they want to do it, and without the need to spend huge sums. Because when you get to the place and you realize what a magical world the oceans are, that's when your interest increases and change happens. It is then that we change as a species. Sharing the underwater world is the key to protecting it, just as Sylvia Earle, a pioneer of ocean exploration, has made sharing her stories with us, making them accessible.

With projects like Pisces VI a new era for ecotourism will open, probably.
Yes, that's the idea. Today many people still think that the only way to profit from the oceans is to exploit them, to fish. Killing sharks, whales, and rays. Or torturing for entertainment. In reality, however rapid, it is a minimum and non-sustainable gain. I certainly cannot judge. For many people it is the way they've operated for a century. But there is an alternative business model that could win both sides. If instead of killing other species, we encourage tourists to visit and see their habitat. We are attracting a different source of income without destroying the oceans.

Hello! All the talks from the "​Here be Dragons" event at the MIT Media Lab last month are now online! You can watch all of them, including mine, at this link. I discuss how big data can answer big questions and how these models can apply to problems facing the ocean, touching on trends observed from my doctoral research, NASA's Frontier Development Lab and CERN's openLab. 

My Thesis: I've submitted my PhD thesis! Titled "Three Dimensional Modelling of Coral Reefs for Structural Complexity Analysis," the thesis examines the correlation between reef structural complexity and ecosystem health. 

For my thesis, I developed a new technique for creating and analyzing 3D models of underwater scenes using computer vision and machine learning. The methods are already being used by researchers in Indonesia, Madagascar, Bonaire, Cuba, Honduras, and the Maldives. I've published part of the research, and have five related publications nearing submission or under review. I hope the research will make a significant impact in our understanding of the ocean.

Ocean and Space Collaboration: I postponed submitting my thesis by two months to work in a NASA artificial intelligence accelerator last summer in California (blog post here). It was a chance to apply my knowledge of 3D modeling underwater ocean scenes to the challenge of 3D modelling near-earth asteroids. It was a fantastic opportunity that not only augmented the last chapter of my PhD thesis, but also allowed me to grow personally and professionally.

​Our team of four engineers at NASA's Frontier Development Lab used a range of machine learning techniques to automate asteroid 3D modelling. My team's results were well-received by NASA's Planetary Defense community and the tool my team developed will be implemented this year at the Arecibo Observatory to help track near-earth asteroids.

Upcoming Events: While waiting for my PhD defense in March or April, I've committed to a few speaking events, listed below.  

I recently did a phone interview with National Geographic's Jonathan Manning. It's now featured on the front page of National Georaphic's  UK website. Excerpts below and full interview here. 

... read the rest at ​http://www.nationalgeographic.co.uk/environment-and-conservation/2017/11/underwater-explorer

I'm in the December issue of National Geographic Magazine! Did you read it?

Last year I was in Boston with three other Oxford grad students presenting a new business model for SeaWorld that entertained with virtual and artificial reality instead of captive cetacean. Visitors could have the sensations of travelling with dolphins miles in the ocean, seeing whales breach right in front of them, and experiencing the ocean from the perspective of a stingray in the wild. Our presentation won the 2016 International Business Ethics Competition; see past blog post  "The Future of SeaWorld Won 2016 International Business Ethics Competition!"       

I'm so glad that National Geographic has done it! Hopefully this is a trend that catches on.

Attention teachers! On Tuesday October 17th, your classroom can join me and fellow ocean engineer Shah Selbe in a hangout! Register here. The hangout is organised by National Geographic Education. More helpful links: 
​
View teacher's guide here: https://goo.gl/MDxnAZ

 "​Grace C. Young is fascinated by fundamental questions about realms both quantum and undersea."
​
Each summer, the international research laboratory CERN, home to the Large Hadron Collider, welcomes dozens of students to work alongside seasoned scientists on cutting-edge particle physics research. Many of these students will pursue physics research in graduate school, but some find themselves applying the lessons they learned at CERN to new domains. 

In 2011, MIT undergraduate Grace Young was one of these CERN summer students. 
Like many young adults, Young didn’t know what career path she wanted to pursue. “I tried all the majors,” Young says. “Physics, engineering, architecture, math, computer science. Separately, I always loved both the ocean and building things; it wasn’t until I learned about ocean engineering that I knew I had found my calling.”

Today, Young is completing her PhD in ocean engineering at the University of Oxford and is chief scientist for the deep-sea submarine Pisces VI. She develops technology for ocean research and in 2014 lived underwater for 15 days. During a recent visit to CERN, Young spoke with Symmetry writer Sarah Charley about the journey that led her from fundamental physics back to her first love, the ocean.

As a junior in high school you competed in Intel’s International Science Fair and won a trip to CERN. What was your project?

GY: A classmate and I worked in a quantum physics lab at University of Maryland. We designed and built several devices, called particle traps, that had potential applications for quantum computing. We soldered wires onto the mirror inside a flashlight to create a bowl-shaped electric field and then applied alternating current to repeatedly flip the field, which made tiny charged particles hover in mid-air. 

We were really jumping into the deep end on quantum physics; it was kind of amazing that it worked! Winning a trip to CERN was a dream come true. It was a transformative experience that had a huge impact on my career path.
​
You then came back to CERN as a freshman at MIT. What is it about CERN and particle physics that made you want to return? 

GY: My peek inside CERN the previous year sparked an interest that drove me to apply for the Openlab internship [a technology development collaboration between CERN scientists and members of companies or research institutes]. 

​Although I learned a lot from my assignment, my interest and affinity for CERN derives from the community of researchers from diverse backgrounds and disciplines from all over the world. It was CERN's high-powered global community of scientists congregated in one beautiful place to solve big problems that was a magnet for me.

​You say you’ve always loved the ocean. What is it about the ocean that inspires you?

GY: I’ve loved being by the water since I was born. I find it very humbling, standing on the shore and having the waves breaking at my feet. 

​This huge body of water differentiates our planet from other rocks in space, yet so little is known about it. The more time I spent on or in the water, either sailing or diving, the more I began taking a deeper interest in marine life and the essential role the ocean plays in sustaining life as we know it on Earth.

What does an ocean engineer actually do?

GY: One big reason that we’ve only explored 5 percent of the ocean is because the deep sea is so forbidding for humans. We simply don't have the biology to see or communicate underwater, much less exist for more than a few minutes just below surface.

But all this is changing with better underwater imaging, sensors and robotic technologies. As an ocean engineer, I design and build things such as robotic submersibles, which can monitor the health of fisheries in marine sanctuaries, track endangered species and create 3-D maps of underwater ice shelves. These tools, combined with data collected during field research, enable me and my colleagues to explore the ocean and monitor the human impact on its fragile ecosystems.

I also design new eco-seawalls and artificial coral reefs to protect coastlines from rising sea levels and storm surges while reviving essential marine ecosystems.

​What questions are you hoping to answer during your career as an ocean engineer and researcher?

GY: How does the ocean support so much biodiversity? More than 70 percent of our planet is covered by water, producing more than half the oxygen we breathe, storing more carbon dioxide than all terrestrial plant life and feeding billions of humans. And yet 95 percent of our ocean remains unexplored and essentially unknown. 

The problem we are facing today is that we are destroying so many of the ocean’s ecosystems before we even know they exist. We can learn a lot about how to stay alive and thrive by studying the oceanic habitats, leading to unforeseeable discoveries and scientific advancements.

What are some of your big goals with this work?

GY: We face big existential ocean-related problems, and I'd like to help develop solutions for them. Overfishing, acidification, pollution and warming temperatures are destroying the ocean’s ecosystems and affecting humans by diminishing a vital food supply, shifting weather patterns and accelerating sea-level rise. Quite simply, if we don't know or understand the problems, we can't fix them.

Have you found any unexpected overlaps between the research at CERN and the research on a submarine?

GY: Vision isn’t a good way to see the underwater world. The ocean is pitch black in most of its volume, and the creatures don’t rely on vision. They feel currents with their skin, use sound and can read the chemicals in the water to smell food. It would make sense for humans to use sensors that do that same thing. 

Physicists faced this same challenge and found other ways to characterize subatomic particles and the celestial bodies without relying on vision. Ocean sciences are moving in this same direction.

What do you think ocean researchers and particle physicists can learn from each other?

​GY: I think we already know it: That is, we can only solve big problems by working together. I'm convinced that only by working together across disciplines, ethnicities and nationalities can we survive as a species. 

Of course, the physical sciences are integral to everything related to ocean engineering, but it's really CERN's problem-solving methodology that's most inspiring and applicable. CERN was created to solve big problems by combining the best of human learning irrespective of nationality, ethnicity or discipline. Our Pisces VI deep sea submarine team is multidisciplinary, multinational and—just like CERN—it's focused on exploring the unknown that's essential to life as we know it.

CERN alumna turned deep-sea explorer ​
​
S: What do you think ocean researchers and particle physicists can learn from each other?
GY: I think we already know it: That is, we can only solve big problems by working together. I'm convinced that only by working together across disciplines, ethnicities and nationalities can we survive as a species. Of course, the physical sciences are integral to everything related to ocean engineering, but it's really CERN's problem-solving methodology that's most inspiring and applicable. CERN was created to solve big problems by combining the best of human learning irrespective of nationality, ethnicity or discipline. Our Pisces VI deep sea submarine team is multidisciplinary, multinational and—just like CERN—it's focused on exploring the unknown that's essential to life as we know it.

​Last week I was delighted to return to CERN for a short trip (and break from thesis writing). In front of the Globe, CERN's alumni team and I filmed an interview for CERN's newly launched alumni network. I'll post the video once it's live. Rachel Bray and I chatted about my time there, including my first visit as an INTEL Science Fair winner followed by an internship in CERN openlab, and then my transition from physics into ocean engineering (how it's not such a weird transition!). We also gave a plug for my talk in February at CERN's first-ever alumni conference, where I'll tackle the subject, ‘What is the role of scientists in building a sustainable future for the planet?’ Spoiler alert: I'll focus on the big questions a CERN-for-the-ocean could answer! (My 2014 op-ed for TIME explains more fully my vision for a  CERN-for-the-ocean.)

My first-ever blog titled, "CERN-Intel 2010 Special Award Winners' Trip," chronicles my first visit to CERN as a thrilled 17-year old physics student living her dream of a one-week immersion at CERN. It covers every detail of the trip, from notes on each speakers and activities to what we ate for breakfast.  

I'm thankful for CERN's supportive community, its dedication to pushing the boundaries of human knowledge, and its pioneering model that has demonstrated how cooperative, interdisciplinary, multinational pulbic-private research can succeed in solving big problems and achieving monumental results (e.g., invention of World Wide Web and Grid Computing, confirmation of Higgs boson, are just a few examples). In fact, the night before my interview I met another alumna who wrote the first code for CERNdocs that became a central node in the "vague but exciting" project now known as the World Wide Web. 

In my interview, rather than focus on specific problems and solutions, I tried to highlight open-ended research questions---the type of large-scale questions CERN has so well addressed. I was thinking, 'What is the equivalent for the ocean of confirming the Higgs boson?' For me there are two big, unanswered questions:  (1) How does the ocean support so much biodiversity? (Also: Why does it? What are all those unique creatures and their purposes anyways? (2) How does it regulate weather/atmosphere on our planet? Our window of opportunity for answering these questions is closing, as we are losing biodiversity and the ocean is increasingly unable to provide the ecosystem functions we depend upon; but again, it's possible to focus on the big, exciting questions without harping on the doom and gloom.

Notes/text from my interview are below. 

Tell us who you are.  I'm an ocean engineer, just now completing my doctorate at University of Oxford. I work on technologies that help us better understand our ocean. 

What have you done since CERN? This summer I joined 23 other scientists from around the world for an artificial intelligence accelerator at NASA’s Frontier Development Lab in California. It reminded me a lot of CERN – on a much smaller scale. It was a public-private, interdisciplinary initiative that brought together scientists from different backgrounds to focus on solving discreet problems in a short period of time. My team focused on using artificial intelligence to create 3D models of asteroids. ​

While in Geneva, I stumbled across this well-written, cautiously optimistic piece by Carl Safina ​for National Geographic about how the waters off of New York are changing for the better. I found it inspiring, and it made me extra-excited to attend the opening of NatGeo's Ocean Odyssey next month! More about that on the Act Now page!   

From Safina's article: 

During the Festival, Fabien Cousteau’s Mission 31 got a shout-out not just in my talk, but also in educator Joe Grabowski’s talk. Joe founded Exploring by the Seat of Your Pants (EBTSOYP), an awesome program that connects classrooms with explorers for virtual field trips. If your classroom is studying the ocean, EBTSOYP can connect your class for 30+ minutes with someone or a team doing ocean work that as their full-time job(s). I believe exposing young students to human stories related to their studies is essential to engagement. I remember in middle school wanting to be a dolphin trainer, orthodontist, or teacher because those were the professions that I understood---I never heard of an ocean engineer until university! I can’t wait to connect students with the Pisces VI submarine project through Joe’s program.

Yesterday (Monday June 26, 2017) was the first day of my 8-week stint with NASA’s Frontier Development Lab. In September I’ll return full attention to my doctoral thesis, which I plan to submit in December. In my spare time I’m thinking about the science addenda for the Pisces VI submarine, which I’ll visit this August with fellow scientist Anni Djurhuus. Scott is currently on a cruise with the Alvin submarine in Costa Rica.
 
At the Festival, I learned and experienced the word “overinspired.” I feel extremely motivated to get back to work, even if that means getting back to the grind. I’m looking forward to learning cutting edge machine learning applications this summer with NASA colleagues and will devote my whole focus to that. Down the line, I look forward to collaborations with fellow explorers, whether that be on ocean research expeditions, technology development, or yet unplanned adventures. ​

This month I attended the United Nations Ocean Conference. It was the first-ever Ocean Conference at the UN. Headquartered in New York City, it focused on Sustainable Development Goal 14:  "to conserve and sustainably use the oceans, seas and marine resources for sustainable development." I'd never been to a UN general assembly meeting before, so it was a new experience for me (plus an excellent excuse to catch up with NYC friends). 

TIMTalk Grace C. Young
Theme: Collaboration and Engineering
Title: No Engineer is an Island 
 
You know the movie Iron Man? The rock-star engineer of the film creates an incredible machine, alone, while squirreled away in a glorified basement. Not to dis superheroes or Marvel fans, but that really is fiction. I don't know anyone who works like that... and I go to MIT.
 
At MIT I’ve found engineering to be extremely collaborative. On a daily basis, engineers work together to solve complex problems all over the world. We may be "nerds" that have our own quirks, but in order to do our jobs right, we need to be people persons too - constantly interacting with others. We shouldn’t be ashamed of working in groups, of not accomplishing things purely on our own, and then having a "team," rather than an individual, be recognized. This is an important idea to get into people's heads, especially engineers.
 
DaVincis or Edisons may come along once every 500 years or so. But as a rule, successful engineering requires teamwork.
 
Once I met a girl at a Christmas party and someone asked if she wanted to be an engineer "like Grace." She said “no,” because she "liked working with people.”
 
I wish I could convey this to her that as an engineer, you do work with people! A lot of people! Really, everyday; it’s necessary. She thought a “people career” was being a doctor, or working at a store. Too many people think this way, that engineers are somehow anti-social, working alone in basements.  It’s an unfortunate misconception because it inhibits some, especially women, from entering, or trying, engineering because they want to “work with people.”
 
Honestly, part of me was that girl at the Christmas party when I first got to MIT. I remember as a freshman, reading a problem set question and having no idea how to solve it, yet I thought if I really focused and put a ton of hours into it I could do it; but I wasn’t really successful. Then, I remember staying up late working on problem sets with classmates. A group of us would sit down and, working together for several hours, we’d somehow manage to find a solution, even though each of us on our own couldn’t figure out how to solve the problem earlier.
  
I remember hearing about a guy in our physics class who did the whole PSET we were struggling over in just two hours by himself. I was so jealous! I thought, “I want to be that guy.” But I realize now that I was missing the point. Collaboration is necessary to solve real problems. I’m grateful that MIT has taught me that lesson.
 
I discovered then that to succeed at MIT you really need both introverted and extroverted qualities. There are times when it’s better to sit on your own, straighten things out in your own head, do practice problems, or just teach yourself a new skill. But you also need to know when to work with others to find solutions.
 
This summer I used that working style on a real project. I was working in Hawaii to re-design an autonomous robot for monitoring the health of commercial fisheries. Building the robot was a perfect project for an ocean engineering student, like me. Here I am on deck of a research vessel with the robot I worked on [referring to photo]. 
 
Sure, for this project I spent some time alone at my desk, making a SolidWorks 3D model and reading relevant papers, but a huge amount of my time I spent soliciting input and communicating with others; so I really had to be a people-person, too. I’d be on the phone with a machinist, for example, almost daily, about what parts to change to make manufacturing faster. Or, I’d be talking to the crew who deployed an earlier version of the robot, seeing how I could change the design to make their lives easier. They said if the units could stack on top of one another, like Ikea boxes, it would make their work more efficient. I incorporated their feedback by adding simple pegs in the corners that allowed units to stack.
 
I wouldn’t have known these things, about the machining or stacking, without reaching out to those people. So collaboration and communication was a huge part of the project, and quite frankly one of the challenges.
 
This dynamic working style - I’m calling it the mix of intro and extroverted – comes into play in many areas of like, not just on engineering projects like building robots or solving problems sets.
 
I first practiced it in ballet class.
 
This is me four years ago [refering to photo]. Before MIT I danced with a ballet company. In high school I spent just as much time in the ballet studio as I did doing math problems and working in my school’s robotics lab.
 
When you’re training at the ballet barre it’s easy to stand there and be jealous of the dancers around you. Maybe they have a higher développé, or longer legs, and so on… But at some point for you to get better, you need to put blinders on, and focus on your own improvements. You need to let yourself be inspired and motivated by the people around you, but also know when to focus on your own development.
 
I’ve had to do the same thing at MIT; it’s easy to be jealous of the guy who finishes the 6.01 PSET in an hour, or started in advanced physics freshman fall. But that’s not always productive. To succeed here you need to let yourself be inspired and motivated by your peers, and work with them to solve problems, and then know when to focus on your own learning.
 
I hope the girl at the Christmas party, and other people stuck in her mindset, will soon consider engineering a career that lets you “work with people,” that the Iron Man-working style is a myth. 

Read the full story in The Kansas City Star. We made front-page! ​
​Here are a few more updates from Instagram: 

My officemate and a fellow researcher in Oxford's Ocean Research & Conservation Group, Dr Michelle Taylor, has found the first evidence of microplastic being ingested by deep sea animals. Read her paper at: 

This Thursday (Oct 6) I'll be speaking at Kings College London about ocean exploration. Everyone is welcome. At 6pm in the Pyramid Room, the talk part of their Intrepid Explorers series and will most likely precede some sort of pub outing. Thanks Rebecca Farnum, author of Defending the Deep - Guardians of the Sea (!), for inviting me!