Geology museums of mainland Europe: The Galerie de Paléontologie et d’Anatomie Comparée, Paris

Jon Trevelyan (UK)

Logo representing geology museums in mainland Europe, featuring a classical building, geological specimens like ammonites, crystals, and fossils, with the word 'DEPOSITS' in colorful letters.

The Galerie de Paléontologie et d’Anatomie Comparée, part of the Muséum national d’Histoire naturelle, is located in the Jardin des Plantes in Paris. Established in 1898, the gallery showcases an extensive collection of fossils and anatomical specimens, offering insights into the evolution of life on Earth.

Large whale skeleton displayed in a museum, showcasing the intricate bone structure and positioned on stands.
Fig. 1. Imposing whale skeletons in the main hall.

The gallery is housed in a striking Art Nouveau building, featuring large glass windows and intricate ironwork. The interior is divided into three levels:

  • Ground floor: dedicated to comparative anatomy, displaying nearly a thousand skeletons and anatomical models.
  • First floor: focuses on fossil vertebrates, including dinosaurs and mammals.
  • Second floor: features fossil invertebrates and plants, illustrating the diversity of life forms through time.
A large display of whale skeletons in a museum setting, showcasing various species with people observing the exhibit. Large windows provide natural light, and wooden flooring adds to the museum's atmosphere.
Fig. 2. A view of the whale skeletons, this time from the first floor, showing the wonderful architecture.

The layout encourages a chronological journey through the history of life, with specimens arranged to highlight evolutionary relationships.

A mounted skeleton of a large animal resembling a bison or buffalo displayed in a natural history museum, surrounded by other skeletons in the background.
Fig. 3. A buffalo in the main hall.

In fact, the Galerie de Paléontologie et d’Anatomie Comparée isn’t just a container for fossils – it’s a statement about nineteenth century science, display and museology in France. As such, it offers a comprehensive and immersive experience into the history of life on Earth. It’s impressive fossil collection and thoughtful displays make it a must-visit for enthusiasts of palaeontology and evolutionary biology, and it was certainly on my to-do list when I visited the French capital in 2025.

Architecture

The building was completed in 1898, designed by the architect Louis-Jules André with structural input by Albert-Félix-Théophile Thomas. It was part of a late nineteenth-century push to create ‘scientific palaces’, that is, large, open, well-lit halls to display specimens.

A museum interior showcasing a variety of animal skeletons displayed on wooden tables under large windows.
Fig. 4. The main hall on the ground floor.

As I said above, its style is Art Nouveau (with Beaux-Arts influences), with an iron framework visible in the interior (Fig. 5Q). It has tall, arched windows along the walls, allowing natural light to illuminate the specimens, with long, rectangular halls and high ceilings that give the sense of a ‘temple of science’.

Intricate wrought iron staircase railing with floral and leaf designs in a historic building.
Fig. 5. An example of the elaborate metal work at the museum.

Iron and glass are prominent, a hallmark of the era’s industrial construction applied to museums (think Grand Palais). The iron skeleton allows open floor space, so massive skeletons can be displayed upright, which is crucial for vertebrates like sauropods. Large glass display cases along the sides house smaller specimens, fossils, and anatomical models.

Display of various fossilized skulls and bones on a wooden table in a museum, showcasing ancient reptilian features.
Fig. 6. Dutuitosaurus ouazzoui from Upper Triassic of the High Atlas of Morocco.

And, as explained above, there are three levels, with galleries arranged to take visitors through comparative anatomy (ground floor), fossil vertebrates (on the first floor), and invertebrates and plants (on the second floor). And there are ornamental touches everywhere – iron balustrades, wooden display cabinets, tiled floors – which make it both functional and aesthetically satisfying.

Fossilized skeleton of a Limnoscelis, displayed in a museum exhibit with a description sign nearby.
Fig. 7. A cast of the Upper Carboniferous amphibian, Limnoscelis paludi, from the USA.

Historical context

So why was it built? By the late nineteenth century, natural history collections in Paris had grown enormous. Cabinet-style collections of the eighteenth century (think Buffon) were considered too cramped and ‘unsystematic.’ The Galerie was conceived to display skeletons in life-like poses, to show evolutionary relationships in a comparative way, and merge palaeontology with comparative anatomy.

At the time, palaeontology was booming. Fossil finds across Europe, Africa and South America were reshaping understanding of evolution, so the Galerie was intended not only for public education but also for research, with specimens accessible to scholars.

Notable contributors included Georges Cuvier, whose legacy looms large. Despite the fact that he died decades before the museum opened, it still carries his vision of comparative anatomy. And curators and palaeontologists of the late nineteenth century ensured that skeletons were mounted in lifelike, scientifically informed postures – a novelty at the time.

The museum opened in 1898, survived two World Wars, including occupation and bombardment threats, and continues to host research today, while also serving as a major public museum. That is, the building represents the ‘temple of science’ ethos of late nineteenth century France – visible iron, open halls, and specimens organised by scientific logic rather than aesthetic whim. It’s also a reflection of France’s ambition to be a world leader in natural sciences, especially palaeontology, comparative anatomy and taxonomy.

Specimens of historical and scientific importance

The museum holds type (specimen) material for hundreds of taxa described by nineteenth- and twentieth-century French palaeontologists, including dinosaurs, mammals and marine reptiles from Madagascar, North Africa and Europe. Many of Cuvier’s original specimens, including the fossil elephants and marine reptiles he used in his foundational work on extinction, are preserved here.

Fossilized dinosaur bones displayed on a flat surface, including a large jawbone with teeth and parts of the ribcage. The setting features a wooden backdrop and a polished floor.
Fig. 8. Diceratherium lemanensis is an early rhinoceros belonging to a now-extinct group that flourished in North America and Eurasia after the Eocene. It was a stocky, short-limbed browser with two small horns side by side on its snout.

And in its palaeontological archives, there are drawings, field notes and plates by early researchers, such as Cuvier, Blainville and d’Orbigny, consisting only part of the historical collections.

Fossilized skeleton of a prehistoric crocodile displayed in a museum, showcasing its skeletal structure and scales.
Fig. 9. Diplocynodon ratelli. Diplocynodon ratelli is an extinct species of alligatoroid crocodilian that lived in Europe during the Early Miocene epoch.

So the Galerie is not just a display hall – it’s an architectural and scientific statement, blending iron-and-glass industrial design with Beaux-Arts style. Its long, high-ceilinged halls are intentionally designed for large skeletons and life-size reconstructions – a big leap from earlier cramped cabinet displays. Its historical mission was both educational and scientific, bridging the gap between research collections and public exhibitions. And visiting the Galerie, you’re seeing more than fossils – you’re seeing nineteenth-century scientific culture frozen in architecture, where the building itself teaches about scale, structure, and the logic of nature.

The exhibits

The palaeontology galleries hold roughly seven million fossil specimens, making it one of the world’s largest fossil collections. Of these, only a few hundred are displayed, but they’re carefully chosen to illustrate major evolutionary transitions.

And the exhibition areas are arranged by time and taxonomy, with the focus on vertebrate palaeontology, although the upper levels include invertebrates and plants.

Fossilized skeleton of a prehistoric creature displayed in a museum, featuring a detailed skull and limbs.
Fig. 10. A cast of Erypos megacephalus from the Permian. Eryops was a 200kg predator with an abnormally large mouth, filled with pointed teeth.

Jurassic and Cretaceous dinosaurs

You can’t but notice the Diplodocus carnegii cast, much like ‘Dippy’ at the Natural History museum in London, as both which were gifts from Andrew Carnegie in the early twentieth century, and part of the famous series of Diplodocus casts sent to major museums worldwide. The Paris specimen dominates the central hall.

Fossilized skeleton of Compsognathus longipes displayed in a frame, with a label underneath providing the species name and additional information.
Fig. 11. Compsognathus longipes was as chicken-sized dinosaur and one of the smallest known when first discovered and one of the first complete dinosaur skeletons ever found. It was a swift, agile predator that hunted small reptiles and insects along the shores of a shallow tropical sea, and its delicate bones were preserved in the fine-grained limestones of Solnhofen.

The gallery houses a cast of the Tyrannosaurus rex skull, providing a close-up view of this formidable predator’s features. It’s an excellent specimen for studying theropod cranial anatomy. There is also an Allosaurus skeleton, mounted in a dynamic, life-like pose, one of the first reconstructions in France to show a predatory stance, tougher with Iguanodon bones (Figs. 12V and 13S), being French material that complements the classic Belgian discoveries.

A partial dinosaur skeleton displayed in a museum, featuring a large skull and elongated body, surrounded by exhibits in a well-lit hall.
Fig. 12. The cast of T. rex skull with the Allosaurus cast behind it.
A dinosaur skeleton displayed in a museum, showcasing its bones and structure, with other fossil displays in the background.
Fig. 13. A cast of one of the Iguanodon skeletons from Belgium.

Displayed is a skeleton of Lapparentosaurus madagascariensis, a mid-Jurassic sauropod from Madagascar, described by Albert-Félix de Lapparent, the great French palaeontologist. Its preservation and articulation make it one of the best Jurassic dinosaurs outside the Americas.

Fossilized vertebrae of a Spinosaurid displayed in a museum.
Fig. 14. A section of spine of the dinosaur, Spinosaurus.

Note also the Carnotaurus cast, which is an unusual South American abelisaurid.

Marine reptiles and early amphibians

Ichthyosaurs and plesiosaurs from the Jurassic are represented by elegant, fully articulated skeletons showing the adaptation to marine life. And there is a Mosasaurus skull, from the Cretaceous chalks of Maastricht, echoing the early discoveries that shaped palaeontology itself.

Fossilized skeleton of a prehistoric marine reptile displayed on a wall, with informative plaques below.
Fig. 15. Thalassiodracon hawkinsii is an extinct genus of plesiosaur that was alive during the Late Triassic-Early Jurassic, and is known exclusively from the Lower Lias of England. This is the type and only species.

Note also the temnospondyl amphibians, which were early Triassic giants showing the transition between amphibians and reptiles.

There are also copious display cabinets and trays of bivalves (Figs. 16 and 17), gastropods (Figs. 18 to 21) corals (Fig. 22) and stromatolites (Fig. 23).

Two fossilized shells displayed in a museum setting. On the left, the shell of Isognomon maxillata from the Pliocene era, and on the right, the shell of Pinna folium from the Jurassic period. Labels provide scientific classifications and information about their origins.
Fig. 16. A couple of bivalves – Isognomon maxillata from the Pliocene of Italy (left) and Pinna folium from the Sinemurian of France (Jurassic).
Fossil display featuring numerous white scallop shells embedded in a stone slab, with a plaque labeled 'CALCAIRE À PECTINIDÉS' from Bardigui, France.
Fig. 17. Limestone with Pectinides.
A display of various fossilized shells and marine specimens arranged on a blue background. Each fossil is labeled with its scientific name and origin.
Fig. 18. A tray of gastropods.
Display of various sea shells arranged on a blue background with descriptive labels underneath each specimen.
Fig. 19. Another tray of gastropods.
Two large seashells displayed on a wooden surface, with an informational plaque nearby. The shells are elongated and spiral-shaped, showcasing a textured surface.
Fig. 20. Giant Eocene gastropods from the Lutetian limestone of the Paris region.
A display of various fossils including shells and rocks, with labels and a document detailing information about the specimens.
Fig. 21. More gastropods.
A display case containing various fossil specimens, including corals and other marine fossils, with labels indicating their classification and geological period.
Fig. 22. Various Jurassic and Cretaceous (anthozoa) corals.
A fossilized stromatolite displaying layered structures, accompanied by an informational plaque in French describing its significance as a witness to early life forms, highlighting its formation by cyanobacteria and their impact on the Earth's atmosphere.
Fig. 23. Early Archean stromatolites (3.9 billion years old).

Mammals

Miocene mammals: these include:

  • Deinotherium giganteum: the strange down-curved-tusked elephant relative. The Paris specimen is a centerpiece – immense and beautifully mounted.
  • Indricotherium (Paraceratherium) cast: the largest land mammal ever known, and an educational reconstruction shows its size.
  • Hipparion and Anchitherium: early horse skeletons from French Miocene deposits, tracing horse evolution. These were crucial in nineteenth-century evolutionary debates.

Other mammals: there a fossils of sabre-tooth cats (Smilodon, Machairodus and Homotherium, Fig. 24), Pleistocene lions, early whales (Basilosaurus and Cynthiacetus) and megacerine deer, all illustrating mammalian diversity after the dinosaurs.

A mounted skeleton of a prehistoric animal on display in a museum, surrounded by other animal skeletons and exhibits.
Fig. 24. Smilodon populator (sabre-tooth cat) from the Upper Pleistocene of Argentina.

There are also other interest mammals including. Arsinoitherium zitteli (Fig. 25), Diaceratherium lemanense (Fig. 26), Megatherium americanum, the giant sloth (Fig. 27) and the ‘Palaeotherium de mormoiron’ (Fig. 28).

Fossilized skull of a dinosaur displayed in a museum, featuring prominent horns and a large jaw. Visitors can be seen in the background.
Fig. 25. Arsinoitherium zitteli, an extinct genus of paenungulate mammal, from the Lower Oligocene of Africa.
Fossilized remains of a large animal with prominent jaw and teeth on display in a museum setting.
Fig. 26. Diaceratherium lemanense. This is an extinct genus of rhinocerotid from the Oligocene and Miocene of Eurasia.
A large dinosaur skeleton displayed in a museum, featuring intricate details of the bones and a tree structure next to it, with visitors in the foreground.
Fig. 27. Megatherium americanum (giant sloth) was a slow-moving herbivore, feeding mainly on leaves and branches found in Argentina.
Fossilized skeleton of a dinosaur mounted on a wall, with a display plaque below it.
Fig. 28. The ‘Palaeotherium de mormoiron’, likely Palaeotherium magnum, found in the Mormoiron Basin in France. Palaeotherium was an extinct genus of horse-like, plant-eating mammals that lived in Europe from the Eocene to the Oligocene.

Ice age mammals: these include: a near-complete skeleton of Mammuthus primigenius (woolly mammoth) with tusks intact tougher with Mammuthus meridionalis, which is an earlier, larger species. There is also a woolly rhinoceros (Coelodonta antiquitatis), displayed alongside the mammoths to illustrate Pleistocene fauna.Note also the Irish elk (Megaloceras giganteus; Fig. 29).

A mounted skeleton of a large prehistoric moose in a natural history museum, displayed against a backdrop of exhibits and artifacts.
Fig. 29. Megaloceras giganteus or Irish elk, but was neither confined to Ireland nor closely related to modern elk. This impressive species is best known for its enormous antlers – spanning up to 3. metres – which were shed and regrown annually.

These specimens are invaluable for understanding Pleistocene megafauna and their adaptations to Ice Age environments.

Other prehistoric elephants: On display is a skeleton of the massive and rarely displayed straight-tusked elephant, Palaeoloxodon antiquus.

Birds and flying reptiles

There are pterosaur remains, including large wingspans of Pteranodon and Rhamphorhynchus. And the early bird fossils include casts of Archaeopteryx and Confuciusornis, used for evolutionary comparison. There are also ostrich and moa skeletons showing gigantism in flightless birds (Figs. 30 and 31).

Fossilized remains of a prehistoric bird in a stone plaque, showcasing detailed wing and skeletal structures.
Fig. 30. A cast of the Berlin Archaeopteryx lithographica.
A fossilized specimen of a prehistoric creature displayed against a neutral background, showing distinct wing structures and skeletal features.
Fig. 31. Another cast of an Archaeopteryx lithographica fossil.

Fossil fish and marine life

There is also ?lagerstätten material from the Monte Bolca Eocene site in Italy (not far from Verona, interestingly). These include exquisite fish fossils with skin and fin detail, together with Devonian lobe-finned fish (relatives of the coelacanth) showing the evolution of limbs, and Cretaceous sharks and rays, often displayed in slabs to show skeletal outlines.

A fossilized fish specimen labeled 'Mene rhombea,' from the Actinopterygii class and Perciformes order, displayed with information on its classification and discovery date, Volta, 1796.
Fig. 32. The Eocene moonfish, Mene rhombea, from Monte Bolca in Italy.
Fossilized skull of an ancient marine creature displayed on a stand, with rough textures and details visible.
Fig. 33. Dunkleosteus marsaisi from the Famenian of the Upper Devonian.

Invertebrate fossils

These are often overlooked, but they’re scientifically rich. There are classic trilobite specimens from Morocco, Bohemia and Brittany. And there are ammonites (Figs. 35 to 47), including enormous Jurassic and Cretaceous examples, often in polished cross-section and belemnites (Fig. 34), a gallery of which is set out below.

A fossil specimen of Belemnite (Cylindroteuthis puzosianus) displayed vertically with a broken black rostrum, showing the white beginning of the conical part below. Accompanied by a descriptive label in French.
Fig. 34. Cylindroteuthis puzosianus from the Oxfordian of England.
A display case featuring various ammonite fossils, showcasing their spiral shapes and textures, along with identification labels.
Fig. 35. A display of beautiful ammonites
Fossil display featuring three ammonite specimens inside a glass case.
Fig. 36. Acrioceras sp (left) and Lewesiceras sp (right), the former from the Lower Cretaceous and latter from the Upper Cretaceous.
A close-up view of a fossilized ammonite, displaying distinctive spiral patterns and colorful markings, displayed among other fossils on a wooden surface.
Fig. 37. Asteroceras stellaris from the Lower Jurassic.
Three fossil ammonites displayed on a black background, with a label describing their species and geological context in French.
Fig. 38. Normannites sp from the Bajocian.
A fossilized ammonite shell displayed in a museum, showcasing its spiral shape and ridged texture.
Fig. 39. One of the extremely large ammonites on display.
A large fossilized ammonite sculpture mounted on a wooden display, with a plaque providing information below it.
Fig. 40. Parapuzia seppenradensis from the Campanian (Upper Cretaceous).
A large ammonite fossil displayed on a wooden surface, featuring intricate spiral patterns and ridges, with a label indicating its scientific classification.
Fig. 41. Perisphinctes cyrilli, from the Middle to Late Jurassic.
A large fossilized ammonite displayed on a wooden surface, accompanied by labeled illustrations of various shell types, including an ammonite and other marine forms.
Fig. 42. Romaniceras deveriodes, from the Upper Cretaceous.
A collection of various ammonite fossils displayed on a wooden surface, featuring distinct spiral shapes and textures, with some labeled signs indicating their names.
Fig. 43. Some fine Albian (Lower Cretaceous) ammonites.
Display of various fossilized ammonites and nautiloids in a museum exhibit.
Fig. 44. Some fine heteromorph ammonites, including Ancyloceras duvalianus (left), Hamulina asteriana (bottom middle) and Toxoceras moutonianum (right), all from the Lower Cretaceous.
Fossilized ammonite shell of the genus Stephanoceras, displayed in a museum with a descriptive label, indicating its Jurassic origin.
Fig. 45. Stephanoceras (Skirroceras) sp from the Middle Jurassic.
A collection of fossilized ammonites displayed on a wooden surface, including a large spiraled ammonite shell and smaller specimens, along with an illustration of various ammonite types.
Fig. 46. The large heteromorph ammonite, Emericiceras emericii, from the Lower Cretaceous.
Two fossil shells of Turrilites costatus displayed on a wooden surface, with a label indicating their origin from Rouen, Seine-Mar.
Fig. 47. Turrilites costatus from the Upper Cretaceous.

And there are crinoids and corals from French limestones, some mounted as full reef sections. Look out also for the brachiopods and molluscs illustrating marine biodiversity through time.

And on land, look out for the insect fossils from Oligocene and Miocene deposits (for example, the Aix-en-Provence shales) and arachnid fossils from the Carboniferous (Figs. 48 and 49).

Two fossilized specimens of Eophrynus prestvicii displayed on a labeled background, showcasing their detailed impressions. The label includes taxonomic information and geological context.
Fig. 48. A cast of Eophrynus prestvicii from the Westphalian (Upper Carboniferous) of Dudley in England.
Fossil of a Eurypterida from the Mycteroptidae family displayed with an information plaque.
Fig. 49. Megarachne servinei from the Upper Carboniferous of Argentina.Given its size, this is an arachnophobe’s worst nightmare.

There are also the arthropods, including a cast of the Silurian eurypterid, Mixopteris kiari (Fig. 50), an extinct genus of decapod crustacean (Fig. 51) and an extinct species of sea scorpions (Fig. 52).

Fossilized remains of a prehistoric creature displayed on a stone slab.
Fig. 50. A cast of the Silurian eurypterid, Mixopteris kiari, from Norway.
Fossil of Cycleryon propinquus, a prehistoric decapod, displayed on a rock slab with a label indicating its classification and origin.
Fig. 51. Cycleryon propinquus. Cycleryon is an extinct genus of decapod crustaceans and this is the type species. These epifaunal carnivores lived during the Late Jurassic (Kimmeridgian-Tithonian) of Germany and France.
Fossilized scorpion embedded in a stone slab, showcasing its preserved body and details.
Fig. 52. Eurypterus lacustris, an extinct species of eurypterid, commonly called ‘sea scorpions’.

Plant fossils

I was particularly impressed by the fossil ferns and cycads from the Carboniferous (Figs. 53 to 55) and Permian (Figs. 56 and 57), including material from the famous Autun and Commentry coal basins.

A fossilized rock displaying numerous intricate patterns resembling flowers or sea life, showcasing the natural imprints of ancient organisms.
Fig. 53. Annularia sp, from the Upper Carboniferous. The name Annularia is applied to fossil foliage belonging to extinct plants of the genus Calamites, which is a relative of the horsetails (order Equisetales).
Fossil of Neuropteris, a prehistoric plant with distinct leaf patterns, displayed on a stone base with a label, from the Upper Carboniferous period, Blanzy, France.
Fig. 54. Neuropteris speciosa, which is a seed fern from the Carboniferous.
Fossilized stone slab showing detailed impressions of fern-like plants, displayed in a museum setting.
Fig. 55. Pectoperis sp is a very common form genus of leaves. Most Pecopteris leaves and fronds are associated with the marattialean tree fern Psaronius (see Fig. 56).
A fossilized cross-section of Psaronius brasiliensis, displaying intricate patterns of growth rings and textures, with labels indicating its geological period and location.
Fig. 56. A cross section of Psaronius brasiliensis from the Permian of Brazil. Psaronius is an extinct genus marattialean tree fern which grew to 10m in height.
A fossilized fern leaf imprinted on a rock surface, displaying intricate details of the leaf structure.
Fig. 57. Walchia schlotheimii from the Permian of Lodève in Southern France. Walchia is a primitive fossil conifer found in Upper Carboniferous and lower Permian rocks of Europe and North America.

And much later in time are the leaf impressions and petrified woods from the Tertiary of southern France (Figs. 58 to 60).

Fossil leaf of Flabellaria lamanonis displayed on a blue background, labeled with its scientific classification and origin details.
Fig. 58. Flabellaria lamanonis from the Miocene for France. It is an extinct fan palm, found in locations like the Isle of Wight and Paris.
A fossilized magnolia leaf displayed next to an informational plaque about magnolias, discussing their characteristics and classification within angiosperms.
Fig. 59. A beautiful Magnolia leaf.
Fossilized leaf of Pinus resurgens, displayed on a stone slab, originating from the Oligocene period, approximately 33 million years old.
Fig. 60. Pinus resurgens. This is a fossil species of pine tree that was first described in 1865 from specimens found in the Oligocene deposits of Armissan, France.

There are also plants from the Cretaceous (Fig. 61 and 62).

A fossilized leaf from the Araliaceae family, specifically Araliopsoides cretacea, displayed on a rock. The fossil is from the Cretaceous period, approximately 95 million years old, found in Kansas, USA.
Fig. 61 Araliopsoides cretacea of the Cenomonian (Upper Cretaceous) of Kansas. Araliopsoides is an extinct genus of flowering plants in the family Araliaceae, known from the Cretaceous of North America, Siberia and Eastern Europe.
Fossilized branch of Glyptostrobus europaeus from the Paleocene era, displayed on a stone slab with a descriptive label.
Fig. 62. Glyptostrobus europaeus is an extinct conifer species of the family Cupressaceae, which is found as fossils throughout the Northern Hemisphere, from the Early Cretaceous (Aptian).

There is even a fragment of the Rynie Chert from the Devonian Lagerstätten of Scotland (Fig. 63) and other Devonian specimens (Fig. 64).

A piece of volcanic rock displayed on a metal stand, showcasing dark minerals embedded in a lighter matrix.
Fig. 63. A fragment of Rhynie chert. The Rhynie chert is a Lower Devonian sedimentary deposit (and Lagerstätte) exhibiting extraordinary fossil detail. It is exposed near the village of Rhynie, in Scotland. It contains exceptionally preserved plant, fungus, lichen and animal material preserved in place by an overlying volcanic deposit.
Fossils of Archaeopteris specimens displayed in a museum exhibit, including labeled fossilized wood and leaf fragments, with an informational text in French.
Fig. 64. Archaeopteris sp is an extinct genus of progymnosperm tree with fern-like leaves. In the nineteenth and early twentieth centuries, palaeobotanists noticed that the same Archaeopteris species (and other Devonian and Carboniferous plants) appeared in regions now separated by oceans. Alfred Wegener (1912) used this as evidence for his theory of continental drift (later plate tectonics).

While not as extensive as the fossil vertebrates, these show the parallel evolution of terrestrial flora alongside vertebrate faunas.

Final thoughts

The Galerie’s fossil collection is a monument to French palaeontology’s golden age – Cuvier, Blainville, Lapparent, Gaudry and others. You’ll see the skeletons that defined the very idea of comparative anatomy, dinosaurs and mammals that shaped early evolutionary theory, and fossils from France’s own rich geological record and its nineteenth-century colonial expeditions.

Unlike some modern museums that hide fossils behind screens or multimedia, this one displays the bones directly – ranks of skeletons under daylight, like a secular cathedral to life’s history. That’s what I like.

Note that while many exhibits have labels in French, some may not have English translations. Using a translation app or guidebook can enhance your experience.

Lighting is natural, so the best viewing time is mid-morning or mid-afternoon when sunlight comes through the clerestory windows. Photography is generally allowed, but be mindful of lighting and reflections when capturing specimens. In fact, the lighting could be improved and is certainly not good for taking photos. To avoid crowds, consider visiting early in the day or on weekdays.

So, in conclusion, this is a museum you must visit if you like palaeontology and have a spare few hours in the French capital.

Location
Jardin des Plantes, 5ᵉ arrondissement of Paris – the botanical gardens that also host the Muséum national d’Histoire naturelle. The gallery forms part of a larger complex that includes other natural history institutions.
Accessibility
The gallery is accessible to visitors with mobility impairments. However, it’s advisable to check in advance for any specific accommodations.
Other articles in this series
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Geology museums of mainland Europe: Museo di Geologia e Paleontologia, Florence, by Jon Trevelyan (UK)
The Geology museums of mainland Eurpe: The Siatista Historical Paleontological Collection, Greece – the first record of a stegodon in Europe and the making of the straight-tusked elephant, by Dick Mol, Evangelia Tsoukala, Evangelos Vlachos, Anna Batsi, Hans Wildschut, Dimitra Labretsa and Wilrie van Logchem
Geology museums of mainland Europe: Highlights from the Museum am Löwentor in Germany, by Jack Wilkin (UK)
Geology museums of mainland Europe: Musée-Parc des Dinosaures (Dinosaur Museum-Park), Mèze, France, by Fred Clouter
Geology museums of mainland Europe: The palaeontological collection at the Teyler’s Museum, Haarlem, The Netherlands, by Mike Howgate FLS
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Geology museums of mainland Europe: The Museum national d’Histoire naturelle’s Galerie de Géologie et de Minéralogie, Paris, by Jon Trevelyan
Geology museums of mainland Europe: The Galerie de Paléontologie et d’Anatomie Comparée, Paris, by Jon Trevelyan
Geology museums of mainland Europe: The Naturmuseum Südtirol Bolzano, Austria, by Jon Trevelyan
Geology museums of mainland Europe: The Museo di Storia Natural, geology and palaeontology, Verona, by Jon Trevelyan
Geology museums of mainland Europe: A new systematic fossil collection in the Möns Klint GeoCenter, Hans-Henrik Meyer