EDFish

An Interview with Amanda Leland, National Policy Director of Environmental Defense Fund’s Oceans Program

Amanda Leland, EDF’s National Policy Director for the Oceans Program, is a passionate environmental and policy specialist working to protect and offer innovative solutions to the nation’s oceans and fisheries. Learn more about her experience and background in our series of interviews with EDF’s passionate and talented Oceans staff.

 

Amanda Leland, EDF Oceans Program - National Policy Director

Amanda Leland, EDF Oceans Program - National Policy Director

Where did you grow up?

 

Near Plymouth, Massachusetts. My ancestors actually came here on the Mayflower.

Who introduced you to fishing?

My great-grandfather was a lobster fisherman in Manomet, Massachusetts. He passed his love of fishing on to my grandfather who always took me out on the water to fish for striped bass and bluefish.  He taught me how to captain his 24’ boat when I was 8 years old. I loved the ocean. If I wasn’t on his boat, I was at the beach.

When did you become interested in environmental issues?

I’ve always been interested in the environment. For example, my 7th grade science fair project was about how much trash could be recycled. I became an EDF member when I was thirteen, and I paid my annual dues with my birthday money.

At one point you were studying to be a marine biologist, is that correct?

Yes, I got my Master’s in Marine Biology at the University of Maine. Before that, I did a year-long marine biology program when I was a junior in college. Our time was split between Boston, the Puget Sound and Jamaica. We were in the water a lot and I had my first scuba-diving experience in Friday Harbor, Washington. I’ve now logged 500 dives!

Also when I was in graduate school, I was researching how to bring back Maine’s sea urchin population. Sea urchins were once Maine’s 2nd most valuable fishery but overfishing changed that. I worked with a team of fishermen to hand collect and move 54,000 sea urchins to our study sites. In the process we all got so many splinters from the urchin spines, we started carrying tweezers. Still, we all enjoyed the work. A fisherman once said to me, “You got me to work 15 hours today and I didn’t even notice it.”

What made you decide to work on policy versus being in the field as a biologist?

Several sea urchin fishermen I met told me, “If I don’t catch the last sea urchin someone else will.” There’s such finality in that statement. I decided I wanted to try to improve management so that fishermen aren’t forced to choose between conserving the resource and feeding their kids. We have to reward fishermen for restoring fisheries.

What do you do at Environmental Defense Fund?

I lead a team focused on improving fisheries management at the federal level. We work with Congress and the Administration to move conservation policy forward. We were very happy to see NOAA announce a policy to help more fisheries move to catch shares, an innovative way to manage fisheries that will help bring back depleted fish populations and make fishermen once again profitable.

The way we’re fishing now is not sustainable and the way we are managing fishing is not working. Something has got to give. With catch shares, we can have vibrant fishing communities and healthy fisheries at the same time.

What’s something most people don’t know about you?

I have bottle-fed walruses. When I was in high school and college, I worked at the Indianapolis Zoo as a marine mammal zookeeper. I took care of the polar bears, baby walruses and sea lions. I sorted through hundreds of pounds of fish every morning to get their food ready.

Another thing people don’t know about me is that I once ate 5 pounds of lobster in one sitting on a dare. I love seafood.

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A Brief History of Fisheries

Rod Fujita, EDF Senior Scientist & Director of Oceans Innovations

Rod Fujita, EDF Senior Scientist & Director of Oceans Innovations

In the beginning, there were no controls at all on fishing.  This worked alright when there were not many of us around, but soon people started noticing that fish were disappearing in coral reefs, bays, and nearshore waters – in some places. This apparently started happening thousands of years ago. 

As with any other resource that is not owned by anybody in particular and is used by people who are not well organized, fish tend to get overexploited.  This is because individual fishermen know that any fish they leave in the water for noble purposes like conservation or future generations could just get caught by another fisherman.

Ancient peoples solved this problem by establishing exclusive fishing grounds.  However, such traditions were generally replaced (with a few notable exceptions in Hawaii, the Gulf of Maine, some South Pacific islands, parts of Africa, and other places) with policies and laws that encouraged access for all (“open access” or “fisheries modernization”) and the extraction of maximum sustainable yield.  Over the years, this led to an “arms race” in some fisheries as technology entered the picture. This “arms race” occurred not because of rampant greed or a desire to wreck the environment – it was an entirely reasonable response to the incentives created by open access. 

Fishermen tried to win the competition to maximize catch by catching as much fish as quickly as possible, leading to giant trawlers with enormous, powerful engines and sophisticated fish-finding equipment.  Again, these technological innovations were rational responses to the incentives created by open access. 

Managers tried to control fisheries first by limiting the efficiency of fishermen.  This, however, sets up a cat and mouse game between managers and fishermen who are still trying to win the competition, and guess who usually wins?  Innovation and ingenuity in industry almost always out-runs regulation (witness the fancy financial instruments that helped destroy the global economy recently; regulators could not even understand these innovations in the financial sector, let alone get ahead of them).

Managers next introduced catch limits, which successfully limited catches in many fisheries but in many cases wrought economic havoc, as suddenly there were way too many fishermen and way too much gear chasing fish around (“overcapitalization”).  Costs were high and revenues low due to low prices resulting from supply gluts, leading to strong political pressure to ease up on catch limits (e.g. the West Coast groundfish disaster) and attacks on the underlying science.  There was also pressure to forgo catch limits altogether and stick with effort controls (e.g. the New England groundfish collapse). 

The crazy economics of open access fisheries is one of the main reasons some countries (including the U.S.) subsidize fisheries – some analysts think that globally, subsidies might be as high as $30-34 billion a year  – in support of an industry that generates only $80-90 billion annually . While effort controls and catch limits are working well in some fisheries, generally speaking, such measures — divorced from measures to address incentives to compete for maximum catches — have not worked out too well for lots of fisheries.  Sometimes conservation goals are met, but the fishery fails economically – people lose their jobs, their vessels, and sometimes even communities because fishing costs are too high and revenues are too low due to restrictive regulations.  In other cases, the economics are good (for a while) but these gains are often achieved at the expense of conservation, resulting in population decline and collapse. 

The answer is to tackle the incentives straight on by strengthening the rights, privileges, and responsibilities of fishermen.  This can be done in many ways.  One way is to allocate or auction secure shares of a scientifically determined sustainable catch level for individual fishermen and communities, and then designing and enforcing rules to ensure that the program achieves its social and economic goals.  This kind of management is known as catch shares

Another way is to designate fishing territories (another form of catch share) that give fishermen a sense of ownership and stewardship over their local resources.  Yet another way is to create cooperatives that allow fishermen and other partners to pool assets, share skills, and cooperate rather than compete. 

These solutions – catch shares and cooperatives – have been shown to stop the competition to maximize catch and reduce the risk of fishery collapse substantially.  In fact, if the historical performance of catch share systems is a good guide, then many of the fishery collapses we’ve seen since the 1950s could have been avoided if all fisheries had been under catch share management.  Similarly, extensive research has shown that people can stop destructive races to extract natural resources – from forests to water to fish – by organizing themselves into cooperatives with certain rights, rules, and responsibilities. 

There are solutions to overfishing, bycatch, and habitat degradation due to fishing.  Designing them well and getting them implemented pose great challenges – but the potential to save fish, habitats, fishermen, and fishing communities makes it all worthwhile.

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Deepwater Corals Are Out of Sight, But They Shouldn’t Be Out of Mind

Credit: Steve W. Ross (UNCW), unpubl. data.

Among the unseen and uncounted victims of the BP oil disaster in the Gulf of Mexico are the inhabitants of the ancient deepwater coral reefs that lie under the still-growing plume of oil.  Newly discovered, and still largely unexplored, these “rainforests of the deep” may become polluted and degraded before we even know exactly where they occur.

Deepwater wonders

Deepwater corals were first discovered in U.S. waters in the 19th century, during the early voyages of discovery, but only in the modern age of deepsea submarines and remotely operated vehicles did exploration truly begin.

Credit: Steve W. Ross (UNCW), unpubl. data.

As exploration has unfolded, scientists have been amazed at the extent and character of these underwater wonderlands, with new species being discovered with nearly every dive, including unknown forms with the potential to contain novel chemicals with pharmaceutical applications.  A cancer cure may lie in the darkness of the deep sea. 

Additionally, the branches of millennia-old corals have recorded in their layers an unequalled history of the recent life of the planet, including deepsea conditions that will allow ancient climates to be modeled.

 

Gulf of Mexico coral reefs

Credit: Geoplatform.gov

Credit: USGS

 Click images for larger view

The best-known deepwater reefs in the Gulf are located in the Viosca Knolls region, on the northern edge of the DeSoto Canyon, only twenty miles from the blown-out BP well, and on the edge of the Mississippi Canyon west of the blowout site.  In addition, there are known deepwater reefs off the West Florida Shelf and elsewhere in the Gulf.  Exciting research is currently underway in the Gulf, including the deployment of “lunar lander” data recorders for year-long stays on the bottom near the reefs, which could provide badly needed baseline information for pre-blowout conditions.

See a thorough analysis of coral reefs in the Gulf, Southeast and elsewhere here.

Toxins raining down on corals

The deepwater origin of the BP oil disaster, the use of dispersants at the wellhead, and the resulting development of sub-surface plumes of oil-based pollution floating and drifting with sub-surface currents, mean that Gulf deepwater corals are at serious risk of direct degradation from the broken well, including a wide array of materials that would likely prove toxic to them. Normally, at least some of the toxic substances from an oil spill would evaporate as oil sits on the ocean surface, but in this situation, many of the toxins remain dissolved, emulsified or otherwise entrained in near-bottom waters and middle depths, drifting with the currents and potentially exposing deepwater reefs.   Coral’s naturally slow growth rates and uncertain reproduction means that any damage would be difficult if not impossible to remediate or offset.

To make matters worse, oil that does make it to the ocean surface doesn’t stay there.  While some of the toxic material on the surface is burned or evaporated, much is again treated with dispersant chemicals, forming smaller droplets that easily stick to debris raining into the abyss.  In addition, a significant fraction of weathered oil also ultimately sinks back to the depths of the ocean. Although estimates vary widely, the best guess is that 25-30% or so of the oil from the 1979 Ixtoc 1 blowout in Campeche Bay in the southwestern Gulf sank to the bottom.

Credit: LUMCON

Another real threat comes from the decomposition of oil-based organic matter under water.  “Dead zones” are well-known in the shallower waters of the northern Gulf, driven mostly by nutrients and organic matter from the outflows from the Mississippi River.  In this case, underwater “dead zones” at a variety of depths are likely, and could add an additional punch to fragile ancient corals.

Protecting deepwater treasures

Credit: SAFMC

Ironically, as Gulf coral reefs face an uncertain future, thousands of square miles of reefs are being protected in a new program nearby in the Southeast Atlantic. I had the great privilege of chairing the panel responsible for this magnificent advance. 

Over the past decade, a unique collaboration of academic researchers, managers and fishermen have worked together to craft a landmark protection program for 23,000 square miles of deepwater reefs stretching from North Carolina to Florida.  The National Oceanic and Atmospheric Administration approved these protections just this month, which will protect the coral reefs against fishing and many non-fishing threats.  While this designation by itself does not guarantee that oil and gas drilling could not occur there, it means that risks to those corals would have to be taken into account during lease sales and other project planning and design.

Two of the many researchers instrumental in securing these coral protections—Dr. Steve Ross from UNC Wilmington and Dr. John Reed from Harbor Branch—have each published their corals research online.

Corals in the crosshairs

The bottom line, sadly, is that ancient Gulf of Mexico coral reefs lie in the crosshairs of oil pollution from the BP oil disaster and it will be some time before scientists are able to begin damage assessments.  Research cruises scheduled for September may begin that process.

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BP Oil Disaster Is Not A Spill. More Like A Catastrophe.

BP Oil Disaster Clean Up Efforts

BP Oil Disaster Clean Up Efforts

When the Deepwater Horizon drilling rig exploded on April 20, killing 11 people and injuring 17 others, it began a massive disgorgement of oil.  A full two months later, the oil continues to surge into the Gulf of Mexico at a rate that BP estimates of up to 100,000 barrels per day.

This disaster was and continues to be no ordinary oil “spill” or “leak.” A “spill” is something that happens on your kitchen floor and is easily mopped up and dried, or when a ship wrecks and dumps a certain amount of oil. A “leak” is what happens under your bathroom sink, remedied with some duct tape or at worst, a call to the local plumber. A “leak” may also be small amounts of oil that trickle from underwater oil pipelines. 

What is happening in the Gulf is nothing short of catastrophic.  An ecological “game-changer.”

Current estimates place the amount of oil that has flooded into the Gulf at more than 100 million gallons to date, and perhaps three times that amount – a staggering figure that makes the Exxon Valdez disaster (a total of 11 million gallons of crude) pale in comparison. Until now, the Valdez “spill” was widely known as the largest in U.S. history. By the time the flow is stopped, the catastrophe in the Gulf may well constitute the largest oil disaster in the hemisphere, and perhaps the world.

The evolution of the Gulf Loop Current from a strong downstream delivery phase on May 7 to a cutoff eddy phase on June 11, temporarily detaining oil pollution. Credit: NWS.

The endlessly expanding oil slick – which continues to spread far beyond the immediate area of the well, propelled by the Gulf Loop Current – covers thousands of square miles and has created underwater plumes that have proven exceedingly difficult to measure, let alone contain. 

Large amounts of oil have been sucked into the large eddy that formed from the northern part of the Loop Current, fated to drift northwestward towards Texas.  Only the chance development of this eddy on June 1 prevented oil pollution from reaching as far downcurrent as northern Cuba, Florida and beyond.

Only time will tell the final measure of this catastrophic blowout,  and its lasting damage to wildlife, the Gulf environment, fisheries and the regional and national economies.

But this much we can say: Characterizing what’s happening in the Gulf as a “spill” is like calling Hurricane Katrina a “shower.”

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Unseen Victims of the BP Oil Disaster

 

Floating mats of seaweed, known as sargassum, are home to a wide variety of ocean life. Credit: Steve W. Ross (UNCW), unpubl. data.

The daily count of sea creatures dying from coating with oil on the surface of the sea, or on the beaches, continues to rise.  We see sea turtles, sea and shore birds, and marine mammals, familiar creatures to us all.

As sad as these deaths are, the death toll is massively greater for animals not quite as visible, because they are small, living among marsh grasses, or under the surface of the sea, out-of-sight and thus out-of-mind.  The full litany of the dead is deeply disturbing.

Surface currents carry valuable life

The surface waters of a healthy Gulf swim with life, much of it too small to see.  Larvae of shrimp, crab, and other shellfish, and many familiar seafood fishes, spawned at sea, drift toward nurseries in coastal marshes and other shallow waters. Floating mats of seaweed, called sargassum, provide key habitats for babies of many species, now hopelessly contaminated. The interior and underside of these seaweed mats – under normal conditions – are wonderlands of life, as every offshore fisherman knows.

  
The evolution of the Gulf Loop Current from a strong downstream delivery phase on May 7 to a cutoff eddy phase on June 11, temporarily detaining oil pollution. Credit: NWS.

The Gulf Loop Current – a term now commonplace– is a superhighway in the sea for spawned babies of giant tunas, swordfish and other billfishes, groupers, snappers and other reef fishes, and even for hatchling turtles. These creatures ride the current —our version of Nemo’s East Australian Current— toward adult habitats, at risk as they pass through the ‘kill zone’ of oil in the northern Gulf.  

See an animation of the current loop here and see a video of the oil spreading here.

This figure represents the evolution of the Gulf Loop. Credit: NOAA.

Luckily, the chance development on June 1 of a cutoff eddy—a normal phase in the evolution of the Gulf Loop Current, where the current bends deep enough to interact with itself, ultimately cutting off a spinning gyre in the northern Gulf—has delayed the otherwise rapid delivery of oil pollution to the pristine coral reefs, mangrove swamps and seagrass beds of northern Cuba, the Florida Keys and beyond.  Delivery of oil downcurrent to those habitats remains likely, as the Gulf Loop redevelops.  In fact, the weathered oil currently held in the cutoff eddy will likely drift northwest towards the Texas coast.

The beauty, and now oil, down below

An actual track of a sperm whale diving through rich mid-water feeding zones (shown in green) from the northern Gulf of Mexico. Credit: Modified from Azzara, 2006.

Under the surface, hovering clouds of oil pollution drift with the currents, and threaten perhaps the least known elements of this magical world.  At middle depths, a profusion of life – shrimps, lanternfish, jellyfish and squids –create a layer of life so rich it appears as sonar returns to surface ships, earning the name “deep scattering layer” to scientists.  This rarely imagined world of the deep – key prey for surface diving whales, dolphins, sharks and tunas – is now being contaminated twice, as oil pollution rises to and through it, and as sinking particles carry toxicants back downward.  It is no surprise that sperm whales and other deep-feeding life forms we cherish are now numbered among the dead. 

Deepwater treasures contaminated

The Visoca Knoll coral reefs are near the Deepwater Horizon well and are home to a rich variety of life. Credit: Steve W. Ross (UNCW), unpubl. data.

On the bottom, the corals and worms get the short end of the slick.   The deep-origin oil spewing from the crippled well is polluting deepsea wonderlands that are just now being discovered, notably majestic and ancient deepwater coral reefs. The vast majority of the oil that remains in the sea will ultimately find its way to the seafloor, where worms and other sediment-eating life forms will ingest it, be ingested in turn, and continue contaminating food webs – and the very web of life – for generations to come. 

This spill impacts you, too

Put all together, every important part of the broader Gulf of Mexico marine ecosystem – upon which so many people rely for their income, and their way of life – is taking many potential knockout blows.  Productivity of key seafood species could be depressed for years if not generations to come.  Special care will be required to ensure that Gulf seafood remains safe.  There is plenty to cry about, both on the surface and in the unseen places in the deep.

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An Interview with Rod Fujita, EDF Senior Scientist and Director of Ocean Innovations

In continuing with our spotlight on EDF’s passionate and talented Oceans staff, we invite you to learn a little more about Dr. Rod Fujita, EDF Senior Scientist and Director of Oceans Innovations as well as Visiting Fellow at Stanford University’s Woods Institute for the Environment.

Rod Fujita, EDF Senior Scientist & Director of Oceans Innovations

Rod Fujita, EDF Senior Scientist & Director of Oceans Innovations

Where did you go to college?

I studied biology and math at Pitzer College in Claremont, California. I later got a Ph.D. in marine ecology from Boston University’s Marine Program, at the Marine Biological Laboratory in Woods Hole, Massachusetts.

Tell me about your experience in the field doing hands-on research.

I’ve spent quite a bit of time in the field, including the kelp forests of California, the salt marshes and estuaries of New England, the rocky shores of Oregon, and coral reefs around the world.  A highlight was back in the late 1980s when I camped out at an isolated lighthouse about five miles off of Key Largo in the Florida Keys to study Carysfort Reef.

I had a power generator to operate my equipment and would stay out there for a few weeks at a time periodically over the course of a year. I dove and snorkeled in the reef several times a day, eventually spending hundreds of hours underwater to study what caused different types of algae to grow in the coral reef.

You were one of the first advocates to propose that mass coral bleaching is a result of climate change, is that correct?

In the late-1980s several scientists began to notice a strange pattern of coral bleaching. My colleague Dr. Tom Goreau and I looked at global temperature patterns and noticed a high correlation between hot spots in the ocean (just one or two degrees Celsius warmer than surrounding waters) and bleaching.  We also noticed a correlation between unusually hot years and unusually severe bleaching, so we made the case that bleaching was indeed global and could be related to climate change.  When my EDF colleague Mark Epstein and I presented the findings at a meeting of scientists in Berkeley, we were criticized by just about everyone there. It wasn’t until many years later that we were vindicated.

What are some other highlights of your 20 year career at EDF and as a founding member of the organization’s oceans program?

I was able to contribute to the work of the Intergovernmental Panel on Climate Change and raise awareness among the general public as well as among the negotiators of the Framework Convention on Climate Change about the impacts of climate change on coral reefs, mangroves, and other ocean ecosystems.

EDF’s Doug Rader and I were two of the first environmentalists to advocate for marine protected areas, way back in the late 1980s. I helped establish the Florida Keys National Marine Sanctuary and marine protected areas in the Channel Islands and off the coast of California as well. 

Another highlight was the excitement of learning about a solution to overfishing from EDF economists Zach Willey and Dan Dudek when I first started at EDF in 1988: catch shares.  It’s great to see catch shares catch on, especially after having to endure heavy criticism and opposition for years.

How did you come to support catch share management for fisheries?

When Doug Hopkins, Doug Rader, and I founded EDF’s oceans program in 1990, we identified overfishing as the number one threat to marine biodiversity. The traditional way of managing fisheries has too often failed either ecosystems, fishermen, or both and needs major surgery, not minor fixes. In the ‘90s, we started reviewing various proposals for fixing the system.  Zach and Dan persuaded us to study catch shares, which many economists had been advocating for a long time and which several countries had already adopted.  After an exhaustive review of the scientific literature, we concluded that catch shares could transform the way fisheries are managed and greatly improve their conservation and economic performance.

Catch shares work because they align stewardship with economic incentives and require fishermen to be accountable for their catch. Fishermen are rewarded when the fish populations rebound by being able to catch more fish.  In conventional fisheries management, fishermen are given the incentive to race to catch as much fish as fast as possible and are forced to throw tons of wasted, dead fish overboard.

You’ve been appointed to many advisory panels and committees over the course of your career. Can you name a few?

I served on the Marine Protected Areas Federal Advisory Committee, three committees for the Pacific Fishery Management Council, and the National Oceanic and Atmospheric Administration’s West Coast Advisory Committee on Individual Transferable Quotas for fish harvest privileges. I’ve had the opportunity to testify in Congress several times and was a consultant to the EPA Science Advisory Board for the Alaskan Oil Spill Bioremediation Project.

What are people surprised to learn about you?

That I play guitar and bass in a rock band.  People are also surprised to learn that I once hosted Barbara Streisand – a huge EDF supporter – on a tour of the award-winning EDF/American Museum of Natural History exhibition on climate change that I helped design.

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