Science Diplomacy at its finest: the creation of the world’s largest MPA in international waters

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By:  Adrian Dahood

Adelie penguins coming ashore in the Ross Sea

A VERY BIG thing has just happened. A new, and enormous Marine Protected Area (MPA) was just established. On October 27th 2016 headlines from media outlets across the globe erupted with the unbelievably good news that a sizable MPA had been declared in Antarctica’s Ross Sea. This is only the second Antarctic MPA.

A sampling of world press headlines announcing the Ross Sea MPA.

I do not use the word “unbelievably” lightly. Every October since 2011, there have been headlines about the Ross Sea and MPA efforts there. Until this year, those headlines have largely reflected a lack of diplomatic progress to establish the MPA.

The Ross Sea is the most southern sea in the world. It is not governed by any one nation. Rather, the Ross Sea exists in international waters and is governed collectively by all Nations Party to the Antarctic Treaty and the Conservation of Antarctic Marine Living Resources (CAMLR) Convention. The Commissioners of the CAMLR Convention make decisions by consensus. This is a very powerful way to come to decisions because no action is taken until all Parties agree. Decisions made by consensus tend to be harder to reach, but are long lasting. In order for the Ross Sea Marine Protected Area to be adopted, representatives from 24 nations and the European Union had to support the proposal and give their consent. Collectively these representatives are known as the Commission for the Conservation of Antarctic Marine Living Resources (CCAMLR).

CCAMLR Nations have vastly different ideologies related to conservation. Nations like the United States, the United Kingdom, Australia, and the European Union have historically pushed forcefully for conservation efforts. Nations such as Russia, China, Japan, and Korea have advocated strongly to maintain fishing access. ALL of 24 member Nations and the European Union reached an agreement to set aside 1.55 million km² area of the Ross Sea as an MPA. The Ross Sea MPA is approximately twice the size of Texas and is the largest protected area in the world.

The newly adopted Ross Sea MPA. Map drawn by The Pew Charitable Trusts and made available here (PDF).

The path to reach agreement on the Ross Sea MPA has been long and hard fought. The idea for the MPA came from the scientific community, specifically Dr. David Ainley who has been conducting research on Ross Sea marine ecosystems for decades. In 2002 Dr. Ainley submitted to CCAMLR the first paper describing the conservation significance of the Ross Sea. It is one of the last places on earth where ecosystem have not been significantly altered by human activities. In 2009 the First International Marine Conservation Congress (IMCC) was held right here at George Mason University. Dr. Ainley and interested scientists and conservationist organized a workshop on the Ross Sea to push for development of an MPA proposal. That same year the first, and until now, only Antarctic MPA was designated near the South Orkney Islands. The first Ross Sea MPA Scenario (a type of preliminary proposal) was submitted two years later by the United States Delegation the 2011 CCAMLR Scientific Committee meeting. The United States, and eventual co-proponent New Zealand, have been submitting a revised, or clarified, proposal to CCAMLR every year since. Nations that conduct the most fishing in the Antarctic had the greatest reservations about creating an MPA in the Ross Sea. It took a lot of work convince them of the merits of the Ross Sea MPA and to revise the proposal so that it was acceptable to all Parties. Adoption of the MPA this year recognizes the many years of scientific work, diplomatic compromise, and even educational efforts put in by the small army of people who have been advocating for the Ross Sea MPA. This army includes scientists from academia, government scientists and policy makers, NGO scientists and policy advocates, and even the general public.

We scientists played what may seem to you as unlikely roles in this particular MPA process. I include myself here, because I have been involved, at least peripherally, in the Ross Sea MPA since 2010. The Antarctic Treaty (1959) sets Antarctica aside for peaceful purposes and specifically calls for freedom of scientific investigation and cooperation. The Antarctic Treaty therefore establishes scientists as key stakeholders in Antarctic conservation efforts, and not merely conveyors of impartial information to aid the decision making process.

The Ross Sea research community embraced this role of stakeholder, advocating for their study areas, their study organisms, and their very ability to continue doing research in a pristine area in the face of a small fishery seeking to expand. University researchers spoke to their classes, to their departments, and to their funding agencies to raise awareness and earn more funding. Scientists and policy specialists at NGOs, such as The Pew Charitable Trusts, used their organizations resources to fund more research and push public awareness campaigns. Scientists working for the US Government conducted scientific diplomacy. We went to stake holder meetings (so many meetings!) and did our best to represent United States stake holder views to our agencies and internationally to CCAMLR Delegates. NOAA’s Antarctic Ecosystem Research Division invested significant time and effort into developing proposals for the the Ross Sea MPA, even though the majority of their own scientific investigations do not occur in the Ross Sea region. Scientists employed by NOAA and the NSF worked with NZ scientists and conducted outreach to the broader scientific community, to ensure that the best available science was used to develop and improve each iteration of the MPA proposal. And then, with proposal in hand, they conducted diplomatic missions with representatives from the Department of State, to convince CCAMLR Delegations from around the world to support the proposal for a Ross Sea MPA. There were countless meetings that lasted into the wee hours of the morning, many of which did not end with meaningful compromise or progress. Some countries were easy to bring on board. Others needed multiple meetings outside of the CCAMLR setting and changes in larger geopolitics to bring them on board. I would like to think that the little bit of support work I did, including GIS, endless editing of early stage documents, and some talking points I wrote for Secretary of State Kerry aided the process.

A now protected sea ice pressure ridge in the Ross Sea. These areas are important habitat for the Weddell seals, and other species.

The final Ross Sea MPA design reflects the years of hard work and compromise that went into creating it. The amount of area protected is makes it the largest protected, either terrestrial or marine, in the world. A significant portion of the MPA has been designated as no-take, where no fishing is allowed. Other zones have been designated solely for research fishing or have reduced levels of fishing. These are huge accomplishments for conservationists. However, those successes came at a cost. Fishing nations imposed a 35 year “sunset clause” which requires MPA proponents to re-argue for protecting the region in 35 years. Failure to reach consensus to extend the duration of the MPA at that time would end protection. Additionally, some of the areas most important to foraging animals were excluded from the MPA, because they are of great interest to the fishery. In the best compromises everybody sacrifices. Though the final Ross Sea MPA is not what Dr. Ainley and his group of scientists envisioned when they started fourteen years ago, it a tremendous achievement. It cannot be understated how exciting it is that in this day and age of escalating geopolitics, rival Nations came together, made many compromises, and established long-term protection for the Ross Sea.

The success of the Ross Sea MPA proposal bodes well for the establishment of more Antarctic MPAs. I am now tucking into my Ecopath with Ecosim model of the Antarctic Peninsula region with renewed vigor. My model is designed to aid in the MPA designation process for the Antarctic Peninsula region. After six years of limited progress on Antarctic MPAs, it seems that CCAMLR has finally found some momentum and more MPAs will be designated.

It’s the dawn of a new day for Antarctic MPAs. Will the Antarctic Peninsula region be the next place an MPA is established?

Ecosystem Based Fisheries Management in Nigeria

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By:  Tunde Adebola
The author (Tunde Adebola) taking water quality readings at the Lagos Lagoon in Nigeria.

I knew what I wanted to do for my PhD studies, and I also knew it would be challenging to pull this off successfully. After speaking with Dr. De Mutsert about my goals, she suggested to collect system-specific data to help with my research work, so I thought, “Sure, why not.”

Since I’m developing an ecosystem fisheries model for Nigerian coastal waters (NCW), it meant I had to travel to Nigeria at some point during my dissertation work, and this would be my first visit to my home country Nigeria since I came to the USA 10 years ago.
I set out early to develop the model for my dissertation since I knew it would takes considerable time and effort to build it from the ground up. It is a first attempt to building a coast-wide ecosystem model for Nigeria. I needed both detailed ecological information and reliable data for the model and also for my entire research.

Initial data used for this process was from internet sources and published literature but this changed when Sharon Bloomquist spoke about departmental research grants for PhD student in the fall of 2015. With Dr. De Mutsert help, I applied for this grant in order that I may go collect environmental data in the Nigerian coastal system and got grant monies in the spring of 2016.

As a developing country, Nigeria has many of the environmental problems associated with her stage of national development. Some important ecological problems include overexploitation of natural resources in some part of the country, desertification in the northern borders with the Sahara Desert, and oil pollution in the Niger Delta a region that has suffered from more than 60 years of oil exploration, exploitation and hydrocarbon pollution.

The growing coastal population has traditionally relied on coastal fisheries and are subjecting coastal resources to ever-increasing fishing effort since many coastal peoples have little or no alternative occupation than to fish. This problem is more critical in the Delta where oil pollution exacerbates an already difficult resource depletion situation, causing environmental damage and pollution estimated to cost $1 billion USD and approximately 30 years of remedial action to reverse.

The Niger Delta is so important that it is estimated that more than 80% of commercial fish stocks in the Gulf of Guinea adjacent to Nigeria’s shores either used this as habitat or transition between the sea and estuaries in their lifecycle migrations. Here and elsewhere along the coast, more than 300,000 small-scale fishermen are operating low technology-fishing vessels in addition to an industrial fishing fleet of approximately 250 trawlers.
Another issue of concern to my study is the nutrient subsidies from coastal areas that have resulted in eutrophication as evident by ubiquitous water hyacinth covering costal lagoons, salt marshes, and creeks along the 853 km coastline that boarders the nation’s shores with the Atlantic Ocean.

My aim in this research, is to investigate these three anthropogenic factors (fishing, eutrophication and oil pollution) in order to see the extent of their impacts on the coastal food web.

I hypothesize that fishing will reduce ecosystem biomass and secondary production in coastal waters and expect eutrophication to increase productivity up to an extent; especially in locations where nonlethal oxygen depletion occurred. The impact of petroleum hydrocarbon pollution will depend on weather conditions, amount of oil spill and the location in which spills have occurred. Impacts will be modeled singly and in combinations using a mass balanced approach in Ecopath with Ecosim fisheries management software.

I aim to provide information for advice about best coastal management practices in Nigeria and in other West African countries along the Gulf of Guinea.

Having a good dataset is an important step towards developing a reliable model to test scientific hypothesis about the impacts of fishing, nutrient enrichment and hydrocarbon pollution in Nigerian coastal food web.

I’m thankful for all who have supported my research from its inception especially my research committee, the Environmental Science and Policy graduate program and members of the Fish ecology lab.

An undergrad’s guide to getting research experience

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By:  Sammie Alexander


Photo of me with my College of Science Dean’s Undergraduate Research Award presented at the College of Science Undergraduate Research Colloquium.

The summer sun is out marking a bittersweet end to the busiest semester of my college career.

Let’s recap:

After volunteering in the Fish Ecology Lab for a semester I decided I wanted to begin conducting my own research. I had no clue what I wanted to study, but I knew I liked animals and ecosystems. Equipt with these vague interests and drive for exploration, I was partnered with PhD candidate (now Dr.!) C.J. Schlick to develop a research project branching from her work on river herring. Although it was July when I decided I wanted to conduct research, I had already missed the deadline to apply for the Fall 2015 OSCAR Undergraduate Research Scholars Program and would need to apply for the Spring 2016 cohort.

Tip: Plan ahead. Make note of deadlines as soon as they are available to you. GMU students:  If you are interested in participating in undergraduate research, visit the OSCAR Undergraduate Research Scholars page where all deadlines are posted.

A majority of the Fall 2015 semester was spent preparing my 11 page narrative detailing the who, what, when, where, and why of my research plan. This was the first time I had ever been required to present a plan of this nature and extent, and it was no small feat. Prior to submitting my application, I attended a narrative draft meeting to ask questions and learn tips on how to write an effective narrative. At the beginning of the session, students were asked to share their intended project topic. Students shared questions from neuroscience related topics far beyond my comprehension to the impacts of variations in the political structures of foreign countries’ economies. I slowly felt my chances of getting selected for the program slipping away.

Tip: Comparing fish ecology to the assessment of foreign nations’ war strategies doesn’t work – so don’t compare them.

After quite literally a dozen drafts, I finally submitted my narrative to OSCAR and patiently waited for a response. Applicants were notified in late December, and to my surprise I had been selected. This meant that Spring 2016 would be filled with 18 credits, a weekend job, and a research project. To clarify, this semester was hard, took more than a few pep talks, and required a lot of coffee, BUT it was not impossible.

Tip: Positive thinking does wonders. Visualizing WORKS. You will be more productive following 8 hours of sleep instead of 2.

Spring 2016 consisted of numerous hours dissecting blueback herring (fish), extracting otoliths (earbones), aging fish, and making posters to present at colloquiums, conferences, and symposiums. I enjoyed the lab work I did for my project because, while tedious, I felt a sense of accomplishment at the end of every day. The routine of the lab work also provided me a much needed break from my normal school work. Sometimes it felt like a deadline or presentation was every other day, but I made it through.

Now to reflect on my favorite parts of participating in OSCAR:

-I found a love for dissecting blueback herring and exctracting their otoliths. So cool! Every time I find an otolith I felt like I had found an exciting treasure. You think I’m kidding but it’s thrilling.


-Each day that I worked alongside my mentor, C.J. Schlick, I felt inspired. Her extensive knowledge of the fish we studied never ceased to amaze me. Aside from her knowledge about fish, she continuously encouraged me to extend my reach within the scientific community through attending conferences.

-As a second year undergraduate, conferences did not sound fun. The key word, “networking”, terrified me. Why do I need to talk to strangers? Here’s why: these strangers are awesome. Imagine hosting a party with all of your friends who care about the same things you do while getting to eat food and learn new things about your favorite topic for 2-3 consecutive days. It’s great. Not to mention, there is almost always a raffle – who doesn’t like prizes? Beyond the raffles, there are usually also prizes awarded to people with the best presentations, posters, etc. I can’t explain how surprised I was each time I won an award this past semester. Overall, each conference left me feeling inspired to continue conducting research in order to solve the everyday challenges we face on a changing planet.

Raffle winnings at the American Fisheries Society-Tidewater Chapter.



Presenting a poster at the George Mason Unversity Honors College Spring 2016 Research Exhibition.


Gone Krilling

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By: Adrian Dahood

Hello De Mutsert Lab friends and followers!  I have posted a couple of blogs here before. You likely already know that I have the coolest (pun intended) study area in the lab (in my humble opinion).  I work in the Antarctic and I am about to go pay my study area a visit during the Antarctic winter.

My dissertation research involves creating a food web model of the marine ecosystems of the Western Antarctic Peninsula, specifically focusing on a region known as Statistical Area 48.1. Krill play a central role in the marine food web of the region. Therefore, it is rather important that the models adequately capture changes in biomass trends of krill and krill predators.

Figure 1. The study area is outline in blue.  In the inset map, you can see how close it is to South America.

One of the key data sets I am using to build my models is NOAA’s Antarctic Marine Living Resources Division’s (learn more about NOAA AMLR here:  long-term monitoring data of krill and krill predators in Statistical Area 48.1.  For the past two years NOAA has invited me to join the winter krill cruise and help them collect data to grow these data sets.  I am about to head to sea with them for a third year.

I will be setting sail on the RVIB (Research Vessel Ice Breaker) Nathaniel B. Palmer.  We will depart from Punta Arenas, in far southern Chile and remain at sea for about 27 days before returning to Punta Arenas.

Figure 2. The Nathaniel B. Palmer in port Punta Arenas.

While at sea, we will collect data 24 hours a day, seven days a week. Each person will work a 12 hour shift and then have 12 hours to rest (or in my case work on some writing projects!) During a shift, we will set the krill net four or five times.

Figure 3. Getting ready to set the net.  We use a type of trawling net known as an IKMT that was specifically designed to catch zooplankton.

Once the net is retrieved, we sort and count the catch. In sets where few krill are caught, we can work through a haul in less than 90 minutes. Sets where we catch a lot of krill can take several hours to process. We try to count every single krill and only sub-sample when we catch tens of thousands of organisms.

Figure 4. Sorting the catch and counting krill.

In addition to krill, we typically catch an assortment of amphipods, gastropods, crustaceans and larval fish in the net sets. We count everything by pulling out all of the big critters from the sorting tray, and then filter the sea water to look at the microscopic animals. We spend a lot of time on the microscopes,  sorting, counting critters, and even sexing and staging (determining if they are male or female and how ready they are to reproduce) krill.

Figure 5. Once all the big critters are counted, the fun begins! Yes, that is a disco ball you see in the upper right. Sometimes we need a “one-song dance party” to get through all the sorting!

Thanks to the winter krill cruise, I have developed a new appreciation for zooplankton.   Zooplankton are very important components of the food web. They are a key connection between primary producers (phytoplankton and other algae) and upper level predators, like penguins and seals. Until you see them in person, you can’t really appreciate how gorgeous and fantastically diverse zooplankton are. I love finding “new to me” species.

Figure 6. The amphipod Eusirus properdentatus under the microscope.



Figure 7. Larval ice fish, Chionodraco rastrospinosus.
Figure 8. The pteropod Clione limacine.  Clione was my first zooplankton love!  She is just gorgeous!


This is the fifth and final year of the winter krill survey.  I am quite sad to see it end. Most scientists go to Antarctica during the Antarctic summer, when the weather is generally gentler.  The winter krill cruise has certainly had it challenges (last year we had an ice hurricane that prevented us from working for several days), but is has provided a unique perspective on krill ecology.

I will be blogging from the field for the duration of the winter krill cruise (most of the month of August).  You can read about my adventures in Antarctic research here (  If you are particularly excited to read about my time in Antarctica, you can flip through my website and read the blogs from my previous trips south.

Mauritius is calling my name

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One of the draws to science for many undergraduate and graduate students is the opportunity to travel to far and sometimes obscure places around the globe, in the name of research.  My dissertation research keeps me local to the Chesapeake Bay region, but I have been fortunate enough to travel domestically and internationally to attend and present at conferences, as both a graduate student and also as part of my job.  I haven’t been traveling much as of late due to life happening (all good things!), but I’m excited to hit the road again soon.  I was recently selected to participate in the Embassy Science Fellows Program fellowship with the State Department through work.  Details are starting to fall into place…and it looks like I’ll be heading to Mauritius!

Mauritius is a volcanic island nation off the coast of Southern African in the Indian Ocean, to the east of Madagascar.  It is known for its beautiful turquoise waters and the world’s third largest coral reef which surrounds the island. Perhaps you have heard of Mauritius because it was the only known home of the now extinct Dodo bird!  Or maybe you have heard of the country because it is headed by a female biodiversity scientist, President Dr. Ameenah Gurib-Fakim (their first female President!).  Did you hear me?!  There is a female scientist ruling the country! The bulk of her research focuses on deriving pharmaceuticals from native Mauritian plants:  prior to becoming President, she was a Managing Director of a pharmaceutical research company, as well as a university professor.

Mauritius President, Dr. Ameenah Gurib-Fakim

The island is teaming with rare flora and fauna indigenous and there are breathtaking sandy white beaches and protected lagoons all around the island.  Similar to other nations with borders to the sea, much of the biodiversity and ecological resources of the island are now threatened by human development, coastal erosion, climate change and the introduction of non-native species.  There is particular interest by the government in protecting and conserving these natural treasures, all the while balancing sustainable population and economic growth.  One of the ways the country hopes to accomplish this is by promoting environmental and oceanographic sciences in the public education curriculum.  My main task during this fellowship is to lecture at the University of Maurtitus and advise the various government ministries on increasing the awareness of the importance of biodiversity and conservation at the national scale.

I am looking forward to this once-in-a-lifetime experience!  It is not every day that I get the opportunity to merge my marine science background with policy in an international context such as this one.  I am looking forward to also immersing myself in the culture…and getting the chance to meet with Dr. Gurib Fakim (I heard she is looking forward to meeting me- eek!). Details of my departure are still being worked out, but I will be sure to share photos and updates while on assignment.  Stay tuned until then!

-Treda Grayson, PhD candidate in the Fish Ecology Lab


California Failing: Why it is important to embrace failure in your research

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Hello from sunny La Jolla, California. I am out here working on my dissertation research from my committee member’s lab, the Antarctic Ecosystem and Research Division of NOAA’s Antarctic Marine Living Resource group. Dr. de Mutsert asked me to write a blog while I was out here, and I honestly had no idea what to write.  I come out here, not for the ocean views (which are awesome), not for the data (also world class), but for the community of failing and moving forward.   Yes, I come to California to fail, and that is a bit awkward to write about, but here goes.Fail big and fix it


It’s tempting to hide from failure

The de Mutsert Fish Ecology lab is a great group of people. We try to look out for each other, but we (at least the students) put on fronts of success for each other.  Ask any one of us how our research is going and we will automatically say “good, making progress”.  We show each other pretty lines of model predictions and recite high numbers of data collected.  I struggle A LOT in my research.  I am switching fields from behavioral ecology to ecosystem modelling.  Half the time I can’t tell if my model is doing better or worse than it was last week and I am terrified of breaking it beyond repair.  My labmates, while wonderful people who want to help, do not work in my ecosystem.  If I totally break my model they don’t have great ecosystem relevant advice to get it working again. Since I am (more than a little) desperate to graduate in a timely fashion, I have a fear of totally breaking my model. This is really counterproductive. Let me repeat that. The paralyzing fear of breaking your model, or more generally messing up your research, is really counterproductive. Sometimes you have to smash your model to smithereens to understand what it is telling you. Sometimes you need to make a bad assumption or learn a data handling lesson the hard way to truly understand the problem you are working on.  Sometimes the fear of failing can hold you back and do more damage to your research than actually failing.

Failure is always an option

I come to California to my committee member’s lab to fail.  We have weekly lab meetings here. They are delightfully called “Science Friday” and they involve lots of tasty baked goods. Most importantly every week someone from the lab gets up and lays their science bare. They talk about what didn’t work. Even if they haven’t fixed it yet or don’t have a clue how to fix it, they openly talk about what failed. Failure is OK and expected here.  There is an understanding that failure is part of the process, and if you aren’t failing, you aren’t trying. Everyone is encouraged to well and truly mess up some of their data analyses, to produce a model that truly stinks for a time and to generally spend their time trying to do things that might fail.

For the past couple of lab meetings, the krill modeler (an actual PhD scientist who gets paid to do this) has talked about the numerous failings of his model. He showed where the predictions are off. He showed a number of things he tried to bring those predictions in line that didn’t work. He talked about how a recent outside expert review of his model found flaws and then he gave some strategies for exploring those flaws. He did not sugarcoat his model’s failings.  He has been doing this for years, yes years.  After years of failing, and publicly exposing his failure, his model is better.  He has a job, and people think well of his research skills. This should not be revelatory, but for me it is. Failing, and failing publically, is an important part of the science process.

Face your failure head on

When I got to California this trip I had a model that was recreating historical trends for three of my modelled species really well. I was ready to give up on three other species because no matter what I did, I could not get a better fit for them without destroying the fit for the others. In other words, I had modelling paralysis because I wanted to show something “successful” for a quickly approaching conference. I was also horribly embarrassed to show off my broken model. But I was encouraged by how open everyone here is about their failures, even showing off and laughing at their R code that failed for no good reason.

So, I laid my model bare before my committee member. I explained to him what I thought I understood about the predictions it was making, and he pointed me to new data to fix one of my modelled species. He was right about the new data, although initially the fit got worse when I incorporated them.

I knew that there were problems with the ways I was handling fish in my model, so I went and spoke to the fish expert here. He laughed and told me that my handling of the fish in my model was horrible (yes he used that word) but he pointed me to unpublished data and encouraged me to keep trying. The model now successfully recreates historic trends two of the species I was going to give up on.  Yup, a scientist laughed in my face about how horrible my model was, but he helped me to fix it.  There are worse things.

The other day my committee member came into my office and found me enthusiastically talking (or perhaps muttering words not suitable for public consumption) to my model output. My model had once again broken. He laughed and declared me to be turning into a true modeler. We had a nice science conversation about the ecological hypotheses I was testing each time I broke my model. I confessed that sometimes I felt like less of a scientist testing hypotheses and more like a kid playing Jenga. Stacking up all the groups in my model and then watching them come crashing down when I change one value. Here’s the thing:  each time I broke my  model, I learned about how the software was handling my input,  or even  better I actually was testing an ecological  hypotheses.  I am learning how to be more targeted with my changes in the model. I am seeing some ecological patterns emerge that I knew to be important from the literature, but I had no idea had how to deal with in my model. My new motto when approaching my model is now “Stack ‘em up and let ‘em fall!”

Go forth and fail!

Just being in a community of scientists where failure is an option has helped me to succeed. I have gained confidence in my model and my skills.  My model is still a work in progress, but it is so much better than it was when I got here. Without anyone making a point about it, I have been encouraged to put my science out there and expose its flaws for all to see.  I am working on an abstract for a meeting of experts that I never would have considered presenting to, but here I am.  So go forth and fail!  Rebuild your research from its own ashes!

-Adria Dahood, PhD candidate in the Fish Ecology Lab

We have a winner!

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Award winning photo, Gentoo penguins porpoising in the Antarctic Sound, 2013.


Adrian Dahood, a PhD Candidate, in the  De Mutsert Fish Ecology Lab, won the 2016 Association of Polar Early Career Scientists (APECS) Fieldwork Photo Competition.  In addition to bragging rights, Adrian won a travel grant to a polar conference of her choosing.  There were 57 entries in the competition and the general public voted on their favorites.  Adrian’s photo received the highest number of votes!   You can view all of winning photographs here:

Adrian’s dissertation research focusses on designing a new marine protected area in the Western Antarctic Peninsula Region.  To this end she is creating foodweb models and spatial models to describe many of the species that live in the region. The winning photo shows one of her study species, gentoo penguins (Pygoscelis papua ) porpoising in the northern part of her study area. The day the photo was taken was an unusually sunny and calm day, allowing the travelling penguins to perfectly reflect on the water’s surface.

Adrian Dahood, PhD candidate in the De Mutsert Lab