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July 30, 2021 by wpengine

Jurassic Days: Icarosaurus

by Zach Lyons-Weiler
View of Dinosaurs in Their Time exhibition from above
Image credit: Joshua Franzos, Treehouse Media

Both visitors and staff love Carnegie Museum of Natural History’s Dinosaurs in Their Time exhibition for many reasons. For some people, it is the huge dinosaurs such as Tyrannosaurus and Diplodocus that capture the imagination. For others, it is the Quetzalcoatlus that soars above the latest Cretaceous display, or the cute Psittacosaurus with its strange tail ornamentation. But for me, my favorite specimen is a rather obscure fossil replica hidden in plain sight in the Triassic and Early Jurassic area of the hall. Its name is Icarosaurus, and it is quite possibly one of the strangest animals that we have on display. When one first sees it, it looks like a cast of a jumble of bones on a background of dark shale. However, as you will come to realize, Icarosaurus is far more than just that!

The Carnegie Museum’s Icarosaurus (which is a high-quality replica of the only known original fossil) is displayed in a glass case alongside many other casts and fossils from what is known as the Newark Supergroup, a large deposit of rocks that snake their way from South Carolina to New Brunswick and Nova Scotia. These rocks were deposited during the Triassic and early Jurassic periods, or from roughly 230 to 190 million years ago. The sedimentary rocks here are intermittently intruded by younger volcanic rocks, indicating that this area was undergoing tremendous geological change at this time. During the Triassic and Early Jurassic, the supercontinent Pangaea was in the process of splitting up. The eastern coast of North America was rifting from western Africa, opening a furrow that would become the Atlantic Ocean. Before it was ocean, though, the rift was filled with lakes that were similar to Lake Victoria and Lake Tanganyika in today’s Great Rift Valley in Africa. The climate was warmer, too, and so the environment was wet and tropical. Due to climatic changes and natural oscillations in Earth’s orbit, these ancient rift environments would go through stages, from deep lakes to mudflats. Each layer preserved the remains of life that lived during that specific interval. Layers of rock deposited in deep lakes often contain abundant fossils of fishes, invertebrates, and reptiles. Other layers preserve footprints of early dinosaurs and other animals. Still others preserve the remains of cynodonts, which were the forerunners of mammals.

Dating to the late Triassic Period, the remains of Icarosaurus were discovered in one of the deep lake deposits by three teenagers in a quarry near North Bergen, New Jersey, which is just outside New York City. Upon discovering the fossil, they realized its importance and donated it to New York’s American Museum of Natural History, where it was named in 1966 as Icarosaurus siefkeri. This is, to this day, the only known specimen of this reptile, so it is of tremendous scientific value. Other lizard-like reptiles had been found in these deposits, but what made Icarosaurus so unique were the extremely long and unusual ribs that extended from its body. These ribs are similar in form to those of lizards in the extant genus Draco, which have elongated ribs connected by membranes of skin that they extend to glide between trees in their Southeast Asian rainforest homes. Because the rib anatomy of this modern group is so similar to that of Icarosaurus, scientists reasoned that the latter would have glided between trees in a comparable manner.

Icarosaurus was not the first reptile to have evolved this trait, though. During the Permian Period, around 260 million years ago, reptiles such as Coelurosauravus had adapted to a gliding lifestyle. Other extinct reptiles that evolved gliding morphologies include Mecistotrachelos from the Triassic of Virginia and Xianglong from the Cretaceous of China. The extreme similarity between these distantly related reptile groups is a remarkable example of convergent evolution, which is a process where organisms evolve the same traits due to their populations facing similar selective pressures. Other examples of convergent evolution that can be seen in the Triassic and Early Jurassic exhibits in Dinosaurs in Their Time are the phytosaurs Redondasaurus and Rutiodon, which resemble their distant relatives, crocodiles, and ichthyosaurs such as Ichthyosaurus and Stenopterygius, which bear an uncanny resemblance to dolphins.

The high school students that discovered Icarosaurus were lauded for their donation, and the discovery of such an odd animal made headlines in both the local and national news. Unfortunately, though, the fame and unique nature of the fossil caused some issues. The man for whom Icarosaurus siefkeri was named, Alfred Siefker, repossessed the fossil to put it in his personal collection in 1989. It stayed there until 2000, when he tried to sell it at auction. Understandably, the scientific community was upset with this decision, because if the fossil were to be sold into a private collection then it would be unavailable for scientific study. It was bought at the auction for well under its appraised value, and the buyer, Dick Spight, donated it back to the American Museum that same year. The original Icarosaurus specimen is currently on display at that venerable New York institution.

Overall, Icarosaurus is a remarkable little animal that deserves more attention than it gets. Look for it and other unique prehistoric animals the next time you visit the Dinosaurs in Their Time exhibition.

Zach Lyons-Weiler is a Gallery Experience Presenter in CMNH’s Life Long Learning Department. Museum staff, volunteers, and interns are encouraged to blog about their unique experiences and knowledge gained from working at the museum.

Further reading:

Colbert, Edwin Harris. “The Triassic gliding reptile Icarosaurus.” Bulletin of the American Museum of Natural History; v. 143, article 2. (1970). https://www.scientificamerican.com/article/icarosaurus-home-to-roost/

Colbert, Edwin Harris. “Adaptations for gliding in the lizard Draco.” American Museum Novitates; no. 2283. (1967).

Related Content

Folded Forest: Defining the Jurassic Period

Real Dinosaurs vs. Reel Dinosaurs: Film’s Fictionalization of the Prehistoric World

Jurassic Days: Tyrannosaurus rex

Carnegie Museum of Natural History Blog Citation Information

Blog author: Lyons-Weiler, Zach
Publication date: July 30, 2021

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Filed Under: Blog Tagged With: dinosaurs, dinosaurs in their time, sssjurassic, Super Science, Vertebrate Paleontology, Zach Lyons-Weiler

July 29, 2021 by wpengine

Folded Forest: Defining the Jurassic Period

by Jane Thaler

What’s in a Name?

Derived from the words for “middle life” in Greek, the Mesozoic Era consisted of three geological periods: the Triassic, Jurassic, and Cretaceous. While many of us might be aware of all three, the term “Jurassic” has seeped into our everyday lives in a way that the Triassic and Cretaceous have not. We can attribute much of this ubiquity to the wildly popular Jurassic Park books by Michael Crichton and their subsequent film adaptations, but have you ever wondered what “Jurassic” actually means and how scientists define the period’s geological boundaries?

Coining “Jurassic”

The “Jura” in Jurassic refers to the Jura Mountains that run along a large portion of the Swiss and French border. Named for the ancient Celtic word for forest, the Jura Mountains are known for their tree-covered peaks and the folded rocks that comprise them (Jones, 2020, p. 94).

Mountains covered in a combination of green forests and lush grassy fields.
Jura Mountains from Wikimedia Commons.

It was here in 1795 that Alexander von Humboldt, a Prussian explorer and naturalist, documented a series of carbonate shelf deposits from the period now known as the Jurassic and dubbed them the “Jura Kalstein.” Alexander Brongniart, a French scientist known for arranging and describing the geologic formations of the Tertiary Period (66.0 to 2.6 million years ago), coined the term “Terrains Jurassiques” to refer to all Jurassic strata in 1829. In 1832, German geologist Leopold von Buch established the three-fold subdivision of epochs based on the folds of limestone in the Jura: the Lias (Early Jurassic), the Dogger (Middle Jurassic), and the Malm (Late Jurassic). This arrangement remains the basic framework for our geological understanding of the Jurassic to this day (Ogg et al., 2012b, p. 732; Encyclopedia Britannica, 2021a).

Car parked in front of rock formation that appears to have folds in it.
Jura Mountain fold known as the “Chapeau de Gendarme” from Wikimedia Commons.

Beginning of the Jurassic

Nestled between the Triassic and Cretaceous periods, the Jurassic spanned from 201.3 million years ago to 145 million years ago (National Park Service, 2020). The end of the Triassic (so named because it is a group of three strata) and the beginning of the Jurassic is marked by the Triassic–Jurassic (Tr–J) extinction event, sometimes called the end-Triassic extinction. The fourth of five major extinction episodes on Earth (or sixth if you count the current, anthropogenic extinction), the Tr–J extinction wiped out around 75 percent of all marine and terrestrial life (Encyclopedia Britannica, 2021b).

Current evidence suggests that the Tr–J extinction was initially set into motion by movements of the Earth’s crust. As the all-encompassing mega-continent Pangea began to break apart, the associated tectonic shifts caused significant volcanic activity that spewed carbon dioxide into the atmosphere. The resulting global warming disrupted the Earth’s carbon cycle and contributed to ocean acidification (Fuge, 2020).

The ecological niches left open by the Tr–J extinction were quickly filled by remaining species of pterosaurs, crocodilians, turtles, mammals, many species of plants and invertebrates, marine life, and dinosaurs. Though many species died out during the extinction event, the wet and warm climate of the Jurassic in many places encouraged the growth of lush vegetation along with the proliferation and diversification of fauna. Oceans teemed with life, forests flourished, and dinosaurs became the dominant forms of backboned animal life on land during this time (Encyclopedia Britannica, 2021b).

Mural of dinosaurs during the Jurassic Period.
Jurassic landscape in the Dinosaurs in Their Time exhibition at Carnegie Museum of Natural History.

End of the Jurassic Period

The end of the Jurassic is a bit of a mystery as the geological boundary between it and the Cretaceous Period (the latter name derived from the Latin for “chalk”) remains formally undefined. In fact, the Cretaceous is the only period in the Phanerozoic Eon (541 million years ago to present day) that “does not yet have an accepted global boundary definition” (Ogg et al., 2012a, p. 795). This definitional challenge is due to a number of factors but is mostly attributed to the concept of provincialism or provinciality, which means that plant or animal populations were restricted to a particular area or group of areas (Gale et al., 2020). This resulted in endemic populations, particularly of ammonites, which left uneven or unclear fossil markers in the stratigraphic record (Wimbledon, 2017; see Énay, 2019 for more detail on the J/K boundary debates).

We do know that the end of the Jurassic was marked by the Tithonian–early Barremian cool interval, which began 150 million years ago and continued well into the Early Cretaceous (Ogg et al., 2012a). During this time, some groups of animals did go extinct or become less diverse, like the dinosaurian subgroup Stegosauria that included Stegosaurus, while others increased in abundance, like some ammonite subgroups who survived the Tr–J event. Plants were also developing in important ways during this time. Around 130 million years ago, angiosperms (flowering plants) began to diversify, and they became increasingly dominant throughout the Cretaceous (Friis et al., 2010). Taking the unknowns and variables into account, the end of the Jurassic is currently placed at 145 million years ago.

Naming Geological Periods

Many of the names we still use for geological periods went through a similar process to that of the Jurassic: a scientist named a phenomenon based on the strata they were studying and the nomenclature (the system of names) developed from there. Nowadays, defining and naming geological units is left to the International Commission on Stratigraphy of the International Union of Geological Sciences. The process by which this happens feels about as long as the geologic periods themselves, at least to those of us watching from outside the commission. This is, of course, an exaggeration, but it does take years of work and rounds of voting to arrive at an official stratigraphic boundary designation.

Check out https://stratigraphy.org for the latest updates on humanity’s understanding of geologic time.

Jane Thaler is a Gallery Experience Presenter and Floor Captain in CMNH’s LifeLong Learning Department. Museum staff, volunteers, and interns are encouraged to blog about their unique experiences and knowledge gained from working at the museum.

References:

enay, Raymond (2019). The Jurassic/Cretaceous System Boundary is at an impasse: Why not go back to Oppel’s 1865 original and historic definition of the Tithonian? Cretaceous Research. https://doi.org/10.1016/j.cretres.2019.104241.

Encyclopedia Britannica (2021a). Alexandre Brongniart. https://www.britannica.com/biography/Alexandre-Brongniart

Encyclopedia Britannica (2021b). End-Triassic extinction. https://academic-eb-com.pitt.idm.oclc.org/levels/collegiate/article/end-Triassic-extinction/474417

Fuge, L. (2020). Volcano link to end of Triassic extinction. Cosmos. https://cosmosmagazine.com/history/palaeontology/volcano-link-to-end-of-triassic-extinction/

Friis E. M., Pedersen K. R., Crane P. R. (2010). Diversity in obscurity: fossil flowers and the early history of angiosperms. Philosophical Transactions of the Royal Society B, 365. https://doi.org/10.1098/rstb.2009.0227

Gale, A. S., Mutterlose, J., Batenburg, S., Gradstein, F. M., Agterberg, F. P., Ogg, J. G., Petrizzo, M. R. (2020). The Cretaceous Period. In The Geologic Time Scale 2020 (Gradstein, F. M., Ogg, J. G., Schmitz, M. D., & Ogg, G. M., Eds.). Elsevier. https://doi.org/10.1016/B978-0-12-824360-2.00027-9

Gore, R. (n.d.), The rise of mammals. In National Geographic. https://www.nationalgeographic.com/science/article/rise-mammals

Ogg, J. G., Hinnov, L. A., Huang, C. (2012a). Cretaceous. In The Geologic Time Scale 2012 (Gradstein, F. M., Ogg, J. G., Schmitz, M. D., & Ogg, G. M., Eds.). Elsevier.

Ogg, J. G., Hinnov, L. A., Huang, C. (2012b). Jurassic. In The Geologic Time Scale 2012 (Gradstein, F. M., Ogg, J. G., Schmitz, M. D., & Ogg, G. M., Eds.). Elsevier.

Jones, P. (2020). Jura Mountains, France/Switzerland. In Around the World in 80 Words. University of Chicago Press. https://doi.org/10.7208/9780226682822-026

National Park Service (2020). Geologic time scale. https://www.nps.gov/subjects/geology/time-scale.htm

Pfiffner, O. A. (2006). Thick-skinned and thin-skinned styles of continental contraction. Special Paper of the Geological Society of America, 414.

Sauquet, H., von Balthazar, M., Magallón, S. et al. (2017). The ancestral flower of angiosperms and its early diversification. Nature Communications, 8. https://doi.org/10.1038/ncomms16047

Scotese, C. R., Song, H., Mills, B. J. W., van der Meer, D. G. (2021). Phanerozoic paleotemperatures: the Earth’s changing climate during the last 540 million years. Earth-Science Reviews, 215. https://doi.org/10.1016/j.earscirev.2021.103503

Wimbledon, W. A. P. (2017). Developments with fixing a Tithonian/Berriasian (J/K) boundary. Volumina Jurassica, XV. https://doi.org/10.5604/01.3001.0010.7467

Related Content

Super Science Saturday: Jurassic Day (July 31, 2021)

Real Dinosaurs vs. Reel Dinosaurs: Film’s Fictionalization of the Prehistoric World

What Did Dinosaurs Sound Like?

Carnegie Museum of Natural History Blog Citation Information

Blog author: Thaler, Jane
Publication date: July 29, 2021

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July 29, 2021 by wpengine

Real Dinosaurs Versus Reel Dinosaurs: Film’s Fictionalization of the Prehistoric World

by Shelby Wyzykowski

What better way can you spend a quiet evening at home than by having a good old-fashioned movie night? You dim the lights, cozily snuggle up on your sofa with a bowl of hot, buttery popcorn, and pick out a movie that you’ve always wanted to see: the 1948 classic Unknown Island. Mindlessly munching away on your snacks, your eyes are glued to the screen as the story unfolds. You reach a key scene in the movie: a towering, T. rex-sized Ceratosaurus and an equally enormous Megatherium ground sloth are locked in mortal combat. And you think to yourself, “I’m pretty sure something like this never actually happened.” And you know what? Your prehistorically inclined instincts are correct.

From the time that the first dinosaur fossils were identified in the early 1800s, society has been fascinated by these “terrible lizards.” When, where, and how did they live? And why did they (except for their modern descendants, birds) die out so suddenly? We’ve always been hungry to find out more about the mysteries behind the dinosaurs’ existence. The public’s hunger for answers was first satisfied by newspapers, books, and scientific journals. But then a whole new, sensational medium was invented: motion pictures. And with its creation came a new, exciting way to explore the primeval world of these ancient creatures. But cinema is art, not science. And from the very beginning, scientific inaccuracies abounded. You might be surprised to learn that these filmic faux pas not only exist in movies from the early days of cinema. They pervade essentially every dinosaur movie that has ever been made.

One Million Years B.C.

Another film that can easily be identified as more fiction than fact is 1966’s One Million Years B.C. It tells the story of conflicts between members of two tribes of cave people as well as their dangerous dealings with a host of hostile dinosaurs (such as Allosaurus, Triceratops, and Ceratosaurus). However, neither modern-looking humans nor dinosaurs (again, except birds) existed one million years ago. In the case of dinosaurs, the movie was about 65 million years too late. Non-avian dinosaurs disappeared 66 million years ago during a mass extinction known as the K/Pg (which stands for “Cretaceous/Paleogene”) event. An asteroid measuring around six miles in diameter and traveling at an estimated speed of ten miles per second slammed into the Earth at what is now the Yucatán Peninsula in Mexico. The effects of this giant impact were so devastating that over 75% of the world’s species became extinct. But the dinosaurs’ misfortunes were a lucky break for Cretaceous Period mammals. They were able to gain a stronger foothold and flourish in the challenging and inhospitable post-impact environment.

Cut to approximately 65 million, 700 thousand years later, when modern-looking humans finally arrived on the chronological scene. Until recently, the oldest known fossils of our species, Homo sapiens, dated back to just 195,000 years ago (which is, in geological terms, akin to the blink of an eye). And for many years, these fossils have been widely accepted to be the oldest members of our species. But this theory was challenged in June of 2017 when paleoanthropologists from the Max Planck Institute for Evolutionary Anthropology reported that they had discovered what they thought may be the oldest known remains of Homo sapiens on a desert hillside at Jebel Irhoud in Morocco. The 315,000-year-old fossils included skull bones that, when pieced together, indicated that these humans had faces that looked very much like ours, but their brains did differ. Being long and low, their brains did not have the distinctively round shape of those of present-day humans. This noticeable difference in brain shape has led some scientists to wonder: perhaps these people were just close relatives of Homo sapiens. On the other hand, maybe they could be near the root of the Homo sapien lineage, a sort of protomodern Homo sapien as opposed to the modern Homo sapien. One thing is for certain, the discovery at Jebel Irhoud reminds us that the story of human evolution is long and complex with many questions that are yet to be answered.

The Land Before Time

Another movie that misplaces its characters in the prehistoric timeline is 1988’s The Land Before Time. The stars of this animated motion picture are Littlefoot the Apatosaurus, Cera the Triceratops, Ducky the Saurolophus, Petrie the Pteranodon, and Spike the Stegosaurus. As their world is ravaged by constant earthquakes and volcanic eruptions, the hungry and scared young dinosaurs make a perilous journey to the lush and green Great Valley where they’ll reunite with their families and never want for food again. In their on-screen imagined story, these five make a great team. But, assuming that the movie is set at the very end of the Cretaceous (intense volcanic activity was a characteristic of this time), the quintet’s trip would have actually been just a solo trek. Ducky and Petrie’s species had become extinct several million years earlier, and Littlefoot and Spike would have lived way back in the Jurassic Period (201– 145 million years ago). Cera alone would have had to experience several harrowing encounters with the movie’s other latest Cretaceous creature, the ferocious and relentless Sharptooth, a Tyrannosaurus rex.

Speaking of Sharptooth, The Land Before Time’s animators made a scientifically accurate choice when they decided to draw him with a two-fingered hand, as opposed to the three fingers traditionally embraced by other movie makers. For 1933’s King Kong, the creators mistakenly modeled their T. rex after a scientifically outdated 1906 museum painting. Many other directors knowingly dismissed the science-backed evidence and used three digits because they thought this type of hand was more aesthetically pleasing. By the 1920s, paleontologists had already hypothesized that these predators were two-fingered because an earlier relative of Tyrannosaurus, Gorgosaurus, was known to have had only two functional digits. Scientists had to make an educated guess because the first T. rex (and many subsequent specimens) to be found had no hands preserved. It wasn’t until 1988 that it was officially confirmed that T. rex was two-fingered when the first specimen with an intact hand was discovered. Then, in 1997, Peck’s Rex, the first T. rex specimen with hands preserving a third metacarpal (hand bone), was unearthed. Paleontologists agree that, in life, the third metacarpal of Peck’s Rex would not have been part of a distinct, externally visible third finger, but instead would have been embedded in the flesh of the rest of the hand. But still, was this third hand segment vestigial, no longer serving any apparent purpose? Or could it have possibly been used as a buttressing structure, helping the two fully formed fingers to withstand forces and stresses on the hand? Peck’s Rex’s bones do display evidence that strongly supports arm use. You can ponder this paleo-puzzle yourself when you visit Carnegie Museum of Natural History’s Dinosaurs in Their Time exhibition, where you can see a life-sized cast of Peck’s Rex facing off with the holotype (= name-bearing) T. rex, which was the first specimen of the species to be recognized (by definition, the world’s first fossil of the world’s most famous dinosaur!).

Two T. rex skeletons displayed in a museum exhibit.
T. rex in Dinosaurs in Their Time. Image credit: Joshua Franzos, Treehouse Media

Jurassic Park

One motion picture that did take artistic liberties with T. rex for the sake of suspense was 1993’s Jurassic Park. In one memorable, hair-raising scene, several of the movie’s stars are saved from becoming this dinosaur’s savory snack by standing completely still. According to the film’s paleontological protagonist, Dr. Alan Grant, the theropod can’t see humans if they don’t move. Does this theory have any credence, or was it just a clever plot device that made for a great movie moment? In 2006, the results of ongoing research at the University of Oregon were published in the Journal of Vertebrate Paleontology, providing a surprising answer. The study involved using perimetry (an ophthalmic technique used for measuring and assessing visual fields) and a scale model T. rex head to determine the creature’s binocular range (the area that could be viewed at the same time by both eyes). Generally speaking, the wider an animal’s binocular range, the better its depth perception and overall vision. It was determined that the binocular range of T. rex was 55 degrees, which is greater than that of a modern-day hawk! This theropod may have even had visual clarity up to 13 times greater than a person. That’s extremely impressive, considering an eagle only has up to 3.6 times the clarity of a human! Another study that examined the senses of T. rex determined that the dinosaur had unusually large olfactory bulbs (the areas of the brain dedicated to scent) that would have given it the ability to smell as well as a present-day vulture! So, in Jurassic Park, even if the eyes of T. rex had been blurred by the raindrops in this dark and stormy scene, its nose would have still homed-in on Dr. Grant and the others, providing the predator with some tasty midnight treats.

Now, it may seem that this blog post might be a bit critical of dinosaur movies. But, truly, I appreciate them just as much as the next filmophile. They do a magnificent job of providing all of us with some pretty thrilling, edge-of-your-seat entertainment. But, somewhere along the way, their purpose has serendipitously become twofold. They have also inspired some of us to pursue paleontology as a lifelong career. So, in a way, dinosaur movies have been of immense benefit to both the cinematic and scientific worlds. And for that great service, they all deserve a huge round of applause.

Shelby Wyzykowski is a Gallery Experience Presenter in CMNH’s Life Long Learning Department. Museum staff, volunteers, and interns are encouraged to blog about their unique experiences and knowledge gained from working at the museum.

Related Content

Super Science Saturday: Jurassic Day (July 31, 2021)

What Did Dinosaurs Sound Like?

Diplodocus carnegii (Dippy) – Dinosaur Spotlight (Video)

Carnegie Museum of Natural History Blog Citation Information

Blog author: Wyzykowski, Shelby
Publication date: July 29, 2021

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