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| Puffbird similar to Fossil Birds found at Driftwood Canyon |
| Metasequoia, the Dawn Redwood |
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| A Tapir showing off his prehensile nose trunk |
MUSINGS MEANT TO CAPTIVATE, EDUCATE AND INSPIRE
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| Puffbird similar to Fossil Birds found at Driftwood Canyon |
| Metasequoia, the Dawn Redwood |
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| A Tapir showing off his prehensile nose trunk |
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| Dogfish Memorial Pole for Chief Ebbits |
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| The Lincoln Pole |
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| Seattle Pole in Pioneer Square raised for Aanseet |
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| Chief Abbits to Anisalaga |
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| Saxman Totem Park |
Long before marine biologists began tagging pinnipeds or calculating biomass, Kwakwaka'wakw families, my family, understood the rhythms, migrations, and behaviours of ts’áxwi (harbour seals) intimately.
Seals were never merely animals of the sea; they were participants in the community of beings, woven through stories, ceremony, and the practical technologies that allowed coastal life to flourish.
This deep relationship is reflected vividly in one of the most important annual institutions of Kwakiutl society: the Seal Society.
The Seal Society (Tsawadi): Winter Dances, Identity, and the First Step Into Knowledge
During the winter tseka—the great ceremonial season—First Nation communities transformed their bighouses into worlds between worlds. Flames swayed across cedar-planked walls. Dancers and masked performers embodied supernatural beings, ancestors, and the animal nations with whom the Kwakiutl share their homelands.
Among these dramatic and spiritually potent societies, the Seal Society (Tsawadi) held special significance.
For younger initiates, it was often the first step on a lifelong path into deeper ceremonial knowledge. Through dance, drama, and story, they learned to see the seal not only as a source of subsistence but as a teacher of adaptability, cooperation, and ocean wisdom.
The performances were more than representations—they were conversations across species, reaffirming relationships renewed each winter.
The Most Useful Animal of the Salt Chuck
Kwakiutl oral historians often remark that no other sea animal has been more consistently useful than the seal. Before the arrival of Europeans, seals provided:
Because the seal was gentle and could be quietly approached on rocky islets and river-mouth sandbars, it became an essential part of coastal subsistence rounds.
Even feasts—the great ceremonial showcases of wealth, generosity, and status—featured seal meat as a prestige dish. The most tender portions were reserved for honoured guests. Thus, the seal became a motif in carved feast bowls, cooking vessels, and serving dishes, often inlaid with glistening abalone shell. I have a beautiful carved seal bowl that holds a place of honour in my house.
To eat seal at a potlatch was not simply to partake of food; it was to acknowledge relationship, territory, and gratitude.
The Thunder Bird and the Cedar Stump: A Kwakiutl Legend of Hunger and Humility
Stories, like tides, reveal deeper truths beneath the surface. Among the Kwakiutl, one legend tells of Tootooch, the Thunder Bird—a being of immense power and appetite—whose hunger leads to a moment of both humour and humility.
One day, Thunder Bird descended near the mouth of a river where a herd of seals slept on the rocks.
Using a rough club, he struck them down, piled them into a great roast, and consumed the lot.
But even after the feast, he remained ravenous—a reminder that supernatural hunger is never easily satisfied.
Borrowing a man’s canoe and seal spear, he hunted four more seals and placed them atop fire-heated rocks to cook. Needing skunk cabbage leaves to wrap the meat, he left his feast unattended beside a great cedar stump.
Before leaving he teased the stump:
“Don’t you wish you had some?”
But cedar stumps are not as passive as they appear.
While Thunder Bird was away, the stump crept over—quiet as old growth moss—and sat directly on the roasting seals, flattening and spoiling the meal. When Thunder Bird returned, he wept and cursed, fearing the long hunger ahead before he could find more seals.
To the Kwakiutl, the story is a reminder of humility before the natural world—and a playful nudge toward respecting even those beings we think rooted and still. Kwakiutl stories and practices align strikingly with ecological realities that scientists are only now fully appreciating.
Harbour Seals (Phoca vitulina richardsi)
Common along the BC coast, they haul out on beaches, rocks, and estuaries—the very places described in oral traditions. Genetic studies show strong site fidelity: seals return to the same haul-outs generation after generation, much as families return to ancestral fishing grounds.
Elephant Seals (Mirounga angustirostris)
Once hunted nearly to extinction, they are now returning to Vancouver Island, Haida Gwaii and all the waters of the Pacific Northwest—something First Nation Guardians and researchers alike have noted with fascination.
Today, we Kwakwaka'wakw continue to honour seals through art, stories, and cultural practice. This knowledge offers a vital human perspective to modern marine conservation—our ecosystems are not only ecological networks, but relationships of reciprocity, story, and responsibility.
And in every tale—from scientific surveys to Thunder Bird’s misadventures—one truth remains:
The seal is not merely an animal of the sea. It is a relative, a resource, a teacher, and a partner in the great living web of the Northwest Coast.
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| Trekking in Svalbard, Norwegian Arctic |
More than 80% of marine species vanished. Coral reefs collapsed. Food webs unraveled.
We've long believed that ocean life, particularly vertebrates, clawed its way back slowly and stepwise, with ecosystems taking millions of years to re-establish complexity.
But new research from the Arctic archipelago of Svalbard is rewriting that narrative.
Svalbard is a Norwegian archipelago between mainland Norway and the North Pole. One of the world’s northernmost inhabited areas, it's known for its rugged, remote terrain of glaciers and frozen tundra sheltering polar bears, Svalbard reindeer and Arctic foxes.
It's a place close to my heart as a lover of cold, rugged landscapes and tasty fossils. We've been excavating Jurassic and Triassic marine reptile skeletons here since the early 2000s.
It is a brutal place to do fieldwork, but the results are worth it, as Aubrey J. Roberts and team (and others) have discovered. The frozen tundra hides the answers to mysteries millions of years in the making.A study led by Roberts and colleagues reveals a remarkable fossil treasure: a condensed bone bed on the island of Spitsbergen that captures an entire marine ecosystem only ~3 million years after the cataclysmic event.
Rather than a slow, cautious re-entry into marine ecosystems, vertebrates appear to have surged back in a series of rapid evolutionary radiations—filling ecological niches far sooner than anyone expected.
A Fossil Window Into Early Triassic Seas
The newly described site dates to the early Spathian stage of the Early Triassic (~249 Ma), a time when Earth was still recovering from its worst biological crisis. Yet the bone bed tells a story of surprising ecological richness.
This ecosystem hosted:
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| Ichthyosaur Bone Bed |
We had once imagined a slow buildup of post-extinction ecosystems—simple communities giving way to more complex ones as time allowed evolutionary innovation.
But the Svalbard bone bed challenges this view.
Diversity analyses by Roberts et al. show that heterogeneous marine vertebrate communities were already present by the late-earliest Triassic (Dienerian–Smithian, ~251 Ma).
These fully variegated tetrapod niches were re-established by ~3 million years after the extinction. Meaning vertebrates rebounded quickly, diversifying explosively into vacant ecological spaces left behind by the crisis. The recovery was not slow and linear—it was dynamic, fast, and opportunistic.
The discovery suggests that the complexification of marine ecosystems occurred through rapid radiations, not gradual, stepwise escalation. This is a new vision of our post-extinction oceans.
Picture the Early Triassic seas of Spitsbergen: warm, oxygen-stressed waters swirling with predators and prey, from sleek ichthyosaurs to ancient coelacanths. Against a backdrop of environmental turmoil, these animals built ecosystems every bit as intricate as the ones that existed before the extinction.
The implications reach far beyond Svalbard. They reshape our understanding of how life rebounds from global crises, hinting at a resilience and evolutionary adaptability more powerful than previously imagined.
The world after the end-Permian extinction was bruised, battered, and biologically diminished—but not for long. Within a geological blink, vertebrates were back in force, pioneering new ways of life in oceans still recovering from near-total collapse.
Life, as ever, found a way.
Reference: Earliest oceanic tetrapod ecosystem reveals rapid complexification of Triassic marine communities. https://scim.ag/4i1IKqK
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| Mesopuzosia sp.; Collection of Rick Ross |
Helochelydrids are a group of poorly known turtles from Late Jurassic to Late Cretaceous deposits in North America and Europe. It is the only known North American member of Helochelydridae.
Naomichelys is known from numerous specimens throughout western North America, most notably the holotype partial shell from the Early Cretaceous Cloverly Formation of Montana and a complete skeleton from the Antlers Formation of Texas. The Cloverly Formation includes a number of vertebrate fossils including a diverse assemblage of dinosaur fossils. the site was designated as a National Natural Landmark by the National Park Service in 1973.
Naomichelys is a member of the family Helochelydridae. We find their fossilized remains in Late Jurassic to Late Cretaceous deposits in North America and Europe. Within North America, only the species Naomichelys speciosa is known from relatively complete material which makes comparisons between specimens from other localities challenging. The delightful Phil Currie along with co-authors Matthew J. Vavrek, Derek W. Larson, Donald B. Brinkman and Courtenay's own Joe Morin described the new species of Helochelydrid terrestrial turtle and put the Trent River near Courtenay, British Columbia on the palaeontological map once again.
Previously most records of helochelydrids in North America had been assigned to N. speciosa, regardless of actual diagnosable characters.
The presence of an additional species of helochelydrid from North America tells us that a greater diversity of the taxon was present than was previously recognized. While the interspecific relationships of helochelydrids remain difficult to fully assess, due to the lack of well-preserved specimens, this new species provides additional geographic and phylogenetic data that aids our understanding of this enigmatic group.
As the rock of the Trent River slowly erodes away, it will be interesting to see what it reveals next. We have now found both marine and terrestrial reptiles along with plants, ammonites and other fossil goodies. Tis a story — and river — to keep an eye on!
What to Know Before You Go — Trent River Walk
The full Trent River Walk is 14.8 kilometres of moderate hiking on a well-maintained trail. You may choose to enjoy the wide, flat beginning section of the loop and leave off the narrower sections of the trail where you need to navigate roots and rock. Dogs on leash are welcome.
You can do this as a family year-round. The trail provides access to the many collecting areas of the river. Be mindful of slippery rocks and keep your eyes peeled for fossils. To enter the trail and find parking, set 375 Hatton Road, Courtenay, British Columbia, into your GPS. Enjoy!
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| Tallheo Cannery |
Long before whales ruled the deep, these muscular, paddle-limbed lizards patrolled warm inland seas with the quiet confidence of creatures that knew very little could challenge them for long.
Picture a body built like a torpedo, jaws hinged like a bear trap, and teeth designed for the twin jobs of slicing and holding.
Some species stretched more than 15 metres in length—longer than a city bus—yet they moved through the water with the agility of an oversized crocodile on turbo mode.
With a powerful tail beating side to side, they could lunge forward in explosive bursts, swallowing ammonites whole or ambushing unsuspecting fish, turtles and even sharks. Yes—sharks were on the menu.
Scientifically, mosasaurs are a wonderful paradox. They were reptiles—close cousins of modern monitor lizards—but they evolved flippers, streamlined skulls and powerful tail flukes remarkably similar to those of whales and ichthyosaurs.
It’s convergent evolution at its flashiest: different lineages arriving at the same sleek design for life in the fast lane of the sea.
Their fossils tell a sweeping story of ancient oceans that once covered vast swaths of the planet. The chalk cliffs of Europe, the phosphate beds of Morocco and the great Western Interior Seaway of North America have all yielded the remains of these sea dragons. Each vertebra and jawbone is a relic of a vanished world where reptiles ruled the waves.
Along the rugged shores of Vancouver Island, mosasaurs left their mark as well. During the Late Cretaceous, much of what is now the island lay beneath a warm coastal sea.
The rocks of the Nanaimo Group—thick marine sandstones and shales laid down between roughly 90 and 66 million years ago—preserve tantalising traces of the predators that cruised this ancient Pacific margin.
Several mosasaur taxa have been reported from these deposits, including Tylosaurus, Mosasaurus, Plioplatecarpus, and Clidastes, animals that would have prowled these coastal waters alongside plesiosaurs, sharks and vast schools of fish.
These remains are often fragmentary—vertebrae, teeth, bits of jaw—but they speak clearly of formidable hunters moving through the same seas that deposited the coal beds and marine fossils of the Nanaimo Basin.
One of the most exciting discoveries came from the Comox Valley. In 1988, local fossil enthusiast Rick Ross discovered mosasaur remains near Dove Creek, just south of Courtenay on Vancouver Island.
The specimen, preserved in the marine rocks of the Nanaimo Group, included vertebrae and portions of the skeleton that confirmed the presence of these apex predators along our ancient coastline.
The Dove Creek mosasaur remains one of the most significant mosasaur finds on Vancouver Island and a wonderful reminder that our local rocks still hold secrets from the final chapters of the Age of Reptiles.
Imagine that Cretaceous shoreline for a moment: broad deltas feeding sediment into a shallow sea, ammonites drifting through the water column, and somewhere below the surface a mosasaur gliding silently past—sleek, powerful and very much in charge.
Their reign, however spectacular, was brief in geological terms. When the asteroid struck 66 million years ago, oceans darkened, food chains collapsed, and even these magnificent hunters could not outswim the global catastrophe that followed.
But in stone, they still roar. Their bones—sleek, predatory, impossibly elegant—remind us that the waters around Vancouver Island were once home to sea lizards the size of whales… and that the rocks beneath our feet are pages from an ocean epic still waiting to be read.
If you fancy listening to the story of the Dove Creek Mosasaur, check out the Fossil Huntress Podcast on your favourite listening stream. Tis an epic tale!
Science owes a great thank you to Rick Ross for his quick thinking and above-and-beyond action in saving that specimen!
#Mosasaurus #mosasaur #fossilhunting #paleontology #palaeontology
But then you notice the delicious hints: a spiral ghosting through the surface, a faint rib, a seam where time is ready to split wide open—it's magic!
Ammonites, long extinct cephalopods, so often appear this way because, shortly after death, their shells became chemical centres of attraction on the seafloor.
As the soft tissues decayed, they altered the surrounding sediment, triggering minerals—often calcium carbonate or iron-rich compounds—to precipitate rapidly around the shell.
This early cementation formed a concretion, a protective stone cocoon that hardened long before the surrounding mud was compressed into rock. While everything around it flattened, cracked, and distorted under pressure, the ammonite inside remained cradled and whole.
What you see here is a gathering of these time capsules: a cluster of ammonites preserved in their concretions, each one split or weathered just enough to reveal the coiled story within.
Some are neatly halved, spirals laid bare like fingerprints from ages past; others are only just beginning to show themselves, teasing their presence beneath rough stone skins.
Together, they tell a familiar fossil-hunter’s tale—of patience, sharp eyes, and the thrill of knowing that this unassuming rock holds an ancient ocean inside.
This five-eyed marvel swam through the Cambrian oceans some 508 million years ago, its soft body drifting above the seafloor of what is now British Columbia—preserved in exquisite detail within the famed Burgess Shale of Yoho National Park.
At first glance, Opabinia regalis feels almost mischievous in its design. I think of them as Cambrian submarines. Five stalked eyes sit atop its head like a crown of periscopes, scanning a world teeming with early life.
Along its sides, a series of delicate lobes ripple in coordinated waves, propelling it forward with gentle, undulating grace. But it is the feeding apparatus that truly steals the show—a long, flexible proboscis ending in a tiny claw, perfectly suited for plucking soft prey from the seafloor and delivering it to its backward-facing mouth tucked beneath the head.
Yes—five eyes. And a claw-tipped trunk. Nature was experimenting, and Opabinia was one of her boldest sketches.
When Charles Doolittle Walcott first described this curious creature in 1912, it puzzled generations of paleontologists. At the time, he believed it was an anostracan branchiopod. I don't see the resemblance but I wasn't looking at a fossil mystery with his lived experience of the time.
Walcott named the species Opabinia after Opabin Peak in the Canadian Rockies. While his initial classification as a crustacean was later debated and revised by researchers like Harry Whittington in the 1970s—who identified it as a far more enigmatic "weird wonder"—Walcott's 1912 publication remains the initial scientific description of this marvelous fancy of nature.
For decades, its place on the tree of life remained uncertain, its anatomy so unlike anything alive today that it seemed almost alien.
Thanks to the careful work of Harry Whittington and colleagues—that Opabinia was understood as part of an early branch of arthropod evolution, a relative—albeit a very strange one—of the lineage that would eventually give rise to insects, crustaceans and spiders.
Soft-bodied and delicate, Opabinia would never have fossilized under ordinary circumstances. It is only through the extraordinary preservation of the Burgess Shale—where rapid burial in fine mud and low-oxygen conditions halted decay—that we are gifted this glimpse into deep time’s more experimental chapters.
In Opabinia, we see evolution not as a straight line, but as a riot of possibilities—forms tried, tested, and sometimes abandoned with countless strange and beautiful designs flickering briefly before fading into the stone. I am truly thrilled that we got a chance to see this one as so many never had the chance to fossilize and we'll never get to know their quirky selves.
Belonging to a group of extinct bony fishes remarkable for their enamel-coated, diamond-shaped ganoid scales, Albertonia offers a rare and intimate glimpse into life shortly after the end-Permian mass extinction, when marine ecosystems were slowly rebuilding themselves.
Specimens of Albertonia have been discovered in two significant rock units: the Sulphur Mountain Formation near Wapiti Lake in British Columbia and the Lower Triassic Montney Formation of Alberta.
These formations preserve an extraordinary record of Early Triassic marine life—ecosystems shaped by fluctuating sea levels, restricted basins, and the evolutionary experimentation that followed Earth’s most profound biological crisis.
The Sulphur Mountain Formation, in particular, is renowned for its exceptional vertebrate fossils, including fishes, marine reptiles, and rare soft-tissue impressions. Within these beds, Albertonia appears as a slender, streamlined fish with surprisingly tall dorsal and anal fins—features that give it that distinctive “sail-like” profile. These fins likely played a role in stabilization and maneuverability, allowing it to dart through the shallow carbonate-siliciclastic seas with speed and precision.
Ganoid fishes like Albertonia are characterized by their thick, lustrous scales, locking together like a natural chainmail. These scales not only protected the fish from predators but also provide paleontologists with exquisite fossil details. In well-preserved specimens, you can sometimes see the subtle ornamentation—ridges, pits, and patterns—etched into the ganoine coating, each reflecting the biology of a world more than 245 million years removed from our own.
Though Albertonia is long extinct, its fossils help illuminate the pivotal evolutionary story that unfolded during the Early Triassic. As life clawed its way back from catastrophe, species like this little ganoid fish were among the pioneers of new ecological niches, their presence a quiet testament to resilience in ancient oceans.
Look how epic this little guy is!
He is a crab — and if you asked him, the fiercest warrior that ever lived.
While that may not be strictly true, crabs do have the heart of a warrior and will raise their claws, sometimes only millimetres into the air, to assert dominance over their world.
Crabs are decapod crustaceans of the Phylum Arthropoda.Crabs build their shells from highly mineralized chitin — and chitin gets around. It is the main structural component of the exoskeletons of many of our crustacean and insect friends. Shrimp, crab, and lobster all use it to build their exoskeletons.
Chitin is a polysaccharide — a large molecule made of many smaller monosaccharides or simple sugars, like glucose.
It is handy stuff, forming crystalline nanofibrils or whiskers. Chitin is actually the second most abundant polysaccharide after cellulose. It is interesting as we usually think of these molecules in the context of their sugary context but they build many other very useful things in nature — not the least of these are the hard shells or exoskeletons of our crustacean friends.
Crabs in the Fossil Record
The earliest unambiguous crab fossils date from the Early Jurassic, with the oldest being Eocarcinus from the early Pliensbachian of Britain, which likely represents a stem-group lineage, as it lacks several key morphological features that define modern crabs.
Most Jurassic crabs are only known from dorsal — or top half of the body — carapaces, making it difficult to determine their relationships. Crabs radiated in the Late Jurassic, corresponding with an increase in reef habitats, though they would decline at the end of the Jurassic as the result of the decline of reef ecosystems. Crabs increased in diversity through the Cretaceous and represented the dominant group of decapods by the end.
We find wonderful fossil crab specimens on Vancouver Island. The first I ever collected was at Shelter Point, then again on Hornby Island, down on the Olympic Peninsula and along Vancouver Island's west coast near Nootka Sound.
They are, of course, found globally and are one of the most pleasing fossils to find and aggravating to prep of all the specimens you will ever have in your collection. Bless them.
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| Dodo Birds by Daniel Eskridge |
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| Dodo Birds by Daniel Eskridge |