Marine technicians steady the megacorer, which has returned from the sea floor filled with mud.
I constructed and maintained our website and social media, raised public awareness, blogged about our science, was the photographer, mentored and edited graduate students writing guest blog posts, created illustrations, and got my hands wet and dirty whenever an extra hand was needed.
I’m now writing a book about our high-seas adventure and our fascinating science, which explored the roles of nitrogen and silicon in the success of diatoms, and included growing diatoms, filtering marine snow, and retrieving deep-sea mud cores. (I also have another polar science book underway.)
Mid-year, I traveled to Yellowstone National Park to do research for the illustrations for VOLCANO DREAMS, a non-fiction book for children about the Yellowstone supervolcano by award-winning author Janet Fox.
I’ve spent the rest of the year completing the illustrations. Volcano Dreams will be published by Web of Life Children’s Books in September, 2018. This is the first time I’ve illustrated a published children’s picture book, something I’ve worked for for years.
In September, I started POLAR BIRD, the next step on my journey as a science communicator, non-fiction writer, and sci-art illustrator.
POLAR BIRD is a labor of love, and I’m grateful to everyone who has liked, shared, retweeted, subscribed, and—most especially—read.
2017 has been truly transformative, and I’ve never felt more like I’m on the right path. More than anything, I dream that my work will lead me back to the ice.
As we head into 2018, I’m actively seeking opportunities to be an embedded team member and offer my experience and diverse skill set on future research cruises, taking the considerable and important work required of Outreach—both before, during, and after an expedition—off scientists’ hands.
While I’d be thrilled to join any research cruise, I’m particularly interested in sea ice dynamics and ecology, polynyas, phtyoplankton, krill, the biological pump and carbon cycle, paleoclimatology, ice shelves and glaciers, sea bird and marine mammal ecology, and more… (I could easily spend the rest of my life writing and illustrating about science in polar regions.)
Thank you for reading! I look forward to bringing you new science adventures, more about our planet’s vital sea and land ice, and new art.
I wish you all a very healthy, peaceful, and happy New Year!
“Below 40 degrees south there is no law; below 50 degrees south there is no God.”
—An old sailors’ saying
Driven by strong westerly winds and unhindered by land to slow its flow, the frigid Southern Ocean races around the coldest, windiest, driest, and most remote landmass on Earth—the vast polar continent of Antarctica.
Via Google Earth
Between the latitudes of 40 and 50 degrees south is the realm of the “Roaring Forties. ” These powerful winds, first named by sailors who used them for fast passage around the globe, have long been known for their ferocious storms and treacherous seas.
Credit: Luke Zeller
South of 50 and 60 degrees respectively are the “Furious Fifties” and “Screaming Sixties,” where these conditions are even stronger.
Here, a ship’s crew must not only battle waves that can be as high as multi-story buildings but watch vigilantly for icebergs and find safe routes through thick, ever-shifting sea ice that freezes and recedes with the seasons.
Here, even a well-quipped icebreaker—a ship especially designed to navigate ice-covered waters—can be incapacitated far from land or help. And it is here between 67 degrees and 54 degrees south—in the belly of the Screaming Sixties and Furious Fifties—that I spent six weeks aboard an icebreaker and research vessel.
The most sensational polar news this week was this study by NASA scientists, who say a mantle plume almost as hot as the Yellowstone supervolcano is beneath Marie Byrd Land in Antarctica. A mantle plume is a domed upwelling of magma beneath the earth’s surface. It’s what creates Yellowstone’s geothermal features—such as geysers like the iconic Old Faithful, steam vents, mud pots, and hot springs. The mantle plume beneath Marie Byrd Land is causing some melting of the ice from below, creating lakes and rivers beneath the ice.
This mantle plume isn’t new. In fact, it formed 50 to 110 million years ago. And it isn’t an increasing threat, according to NASA. But it may help explain why the ice sheet collapsed so rapidly during warming of the climate at the end of the last ice age, around 11,000 years ago. Now we are in a new era of rapid warming, ice sheets are increasingly thinned and weakened, the forces of human and geothermal activity working in concert against vulnerable ice shelves, it appears.
Sea Ice
Prepare to be mesmerized by another stunning sea ice visual by Kevin Pluck (who was featured on Vox this week—check it out).
A sneak peek at part of an illustration from Volcano Dreams
Alas, this week’s This Week in Ice is much abbreviated due to an impending book deadline. And it’s all about a supervolcano!
Volcano Dreams—a story of the Yellowstone supervolcano and the area’s fauna, by award-winning author Janet Fox and illustrated by me—is set for release on September 25th, 2018, from Web of Life Children’s Books! Huzzah!
I’m looking forward to soon sharing my process for creating the images for this book, which included a week-long visit to Yellowstone in early June for research.
Earlier this week, I thought this might be a quieter week in ice news. In fact, it has been anything but. Some of this news is very cool, and some may make you uncomfortable. Hopefully, it will inspire you to fight for our planet’s vital ice, for our oceans, and for our global climate.
Sea Ice
ARCTIC
Sea ice in the Arctic may be declining faster than previously thought. This GIF posted by Zack Labe will shock you:
A look at the loss of thicker (usually older) #Arctic sea ice in Octobers from 1979-2016 (PIOMAS, ice < 1.5 meters masked black) pic.twitter.com/BtHCwVUdKk
Scientists who drilled through sea ice were surprised to find an adult jellyfish (Chrysaora melanaster) drifting by. Scientists had previously assumed that only polyps (which release tiny baby jellyfish in the spring) survived the winter. Check it out! Amazing!
Mark Brandon notes that a new polynya (an area of open water within the sea ice) has formed by the Rydberg Peninsula. Check out his cool GIF demonstrating this. He says this is fairly normal for this time of year and that it is a latent-heat polynya. A latent heat polynya is a coastal polynya, and it’s formed as winds push sea ice away from land. He tells me a much larger polynya has formed by the Dotson Ice Shelf, just as it did last year.
Brandon also suggests that the massive Weddell polynya, which has made the news the world over, will only be visible for about two more weeks, after which the sea ice will have retreated. This is a sensible-heat (or open-ocean) polynya, formed by the upwelling of warm water toward the surface, and after the ice has retreated, the processes that formed it will still be operating. (The Weddell polynya is the yellow patch within the dark red ice cover in the image above.)
Simon Gascoin produced this great GIF that shows the drifing of the Weddell polynya and surrounding sea ice.
Land ice is formed by layers upon layers of snow, which become compacted over time. A new study discussed in this Scientific American article suggests that a combination of greater katabatic winds (downward and often very strong winds)and warmer air over Antarctica could reduce the amount of snow falling.
Like giant rivers of ice, glaciers flow toward the sea. The Thwaites and Pine Island glaciers are accelerating rapidly. The speed of the Pine Island ice shelf (the floating ice where the glacier meets the sea) increased by 75% (between 1973 and 2010) due to warmer waters in front of it and increased calving of icebergs. (More on those in a moment.)
See GIFs of these glaciers by Simon Gascoin (which I’ve been unable to embed here, alas).
Just when I thought there’d be no other significant news about icebergs this week, the US National Ice CenterNOAA reported that this same iceberg has broken up into pieces too small to be tracked.
WOW! This blows my mind. When B-44 calved a few short weeks ago, it was three times the size of Manhattan. Is it normal for such a massive iceberg to beak up so quickly? I asked Stef Lhermitte.
It's unusual for PIG with, in the past (satellite era), larger icebergs for longer periods https://t.co/gyIPzH3BWk
And I was excited to come across this list of tabular icebergs. Icebergs are either tabular or non-tabular. Tabular icebergs have steep sides and a flat top and can be very large—or downright enormous. They’re formed by ice breaking off an ice shelf. The largest tabular iceberg on record is B-15 (which calved in 2000). It was a whopping 11,000 sq. kilometers (4,200 sq. miles) or almost as big as Connecticut.
What happens to a huge iceberg like B-15 over time? NASA’s Earth Observatory shared that with us this week, plus this fab image of four huge icebergs near the Weddell Sea.
An Australian research team has determined that coal use will have to be “pretty much” eliminated by 2050 to have any chance of stopping sea level rise.
And while this is not ice news, I felt it important to bring attention to a local story with far-reaching implications. This week in Rhode Island, three EPA scientists, who were slated to speak at a conference about (among other things) the effects of Climate Change on Narragansett Bay and its watershed and this report, were prohibited from speaking by the EPA. This news made The New York Times and The Washington Postamong others. The Executive Director of Save the Bay made this statement. Happily, this story even caught Stephen Colbert’s attention, bringing this travesty to a much wider audience:
As always, I am not a scientist, just a writer/illustrator and science communicator passionately in love with sea ice. I welcome input and corrections by polar scientists as I learn more about this remarkable and vital part of our planet and bring this knowledge to a wider audience.