Linked from

The 47 pages that link to Paleobiology, each with the reason it gives.

• FossilNarrower topic: Fossils are the primary evidence for reconstructing extinct organisms and ecosystems.

• Comparative anatomyNarrower topic: It places anatomical comparisons within broader reconstructions of past life.

• BioturbationNarrower topic: Fossilized traces of bioturbation provide evidence about ancient organisms and environments.

• PaleobiogeographyNarrower topic: Paleobiogeographic patterns contribute spatial evidence to broader reconstructions of ancient life.

• BiosignatureNarrower topic: Earth’s deep-time record provides examples of how biological traces survive and become altered.

• Bite forceRelated: Fossil skulls and teeth help researchers infer extinct animals’ bite performance.

• LagerstätteNarrower topic: Exceptional deposits supply anatomical and ecological evidence central to reconstructing ancient life.

• Mesozoic Marine RevolutionNarrower topic: The revolution is reconstructed from incomplete records of ancient organisms and interactions.

• ProtoceratopsNarrower topic: Its skeletons and nests make Protoceratops useful for inferring behavior and life history.

• Cranial ornamentationNarrower topic: Ornament form offers evidence about the lives of extinct animals.

• MicroraptorNarrower topic: Microraptor's anatomy and preserved meals support reconstructions while leaving behavior uncertain.

• AnchiornisNarrower topic: Its preserved plumage lets researchers investigate more than skeletal form alone.

• Yixian FormationNarrower topic: Exceptional preservation enables biological questions beyond skeletal classification.

• SpinosaurusNarrower topic: Its behavior must be inferred from anatomy, sediment, and indirect evidence.

• CamarasaurusNarrower topic: Camarasaurus fossils support research on dinosaur growth, feeding, and life history.

• Sauropod locomotionNarrower topic: Locomotor reconstructions help infer how sauropods functioned as living animals.

• ThylacosmilusNarrower topic: Thylacosmilus’s behavior must be inferred from bones and teeth rather than direct observation.

• ParasaurolophusNarrower topic: It frames inferences about how Parasaurolophus lived beyond what its bones directly show.

• TyrannosauroideaNarrower topic: Tyrannosauroid anatomy and growth fossils provide evidence for reconstructing extinct lives.

• DunkleosteusNarrower topic: Dunkleosteus’s behavior and body form must be inferred from incomplete fossils.

• RepenomamusNarrower topic: Repenomamus fossils allow behavior and ecological role to be inferred from anatomy and preserved prey.

• HeterodontosaurusNarrower topic: Questions about its behavior and life history belong to this broader field.

• ThrinaxodonNarrower topic: Thrinaxodon illustrates how fossil anatomy can support inferences about extinct animals’ lives.

• MacraucheniaNarrower topic: Questions about Macrauchenia’s diet, habitat, and nasal anatomy depend on interpreting incomplete fossils.

• NotoungulataNarrower topic: Notoungulate fossils support reconstructions of their diet, locomotion, and habitats.

• PlaceriasNarrower topic: Placerias fossils support inferences about its diet, anatomy, and ecological setting.

• ToxodonNarrower topic: Paleobiological methods test reconstructions of Toxodon’s diet, habitat, and behavior.

• ArgentavisNarrower topic: Argentavis's behavior must be reconstructed from limited anatomical and geological evidence.

• ChalicotheriidaeNarrower topic: Anatomy and fossil context underpin interpretations of chalicothere feeding and movement.

• CrinoidNarrower topic: Crinoid fossils reveal ancient habitats, feeding modes, and community structure.

• DinofelisNarrower topic: It supplies methods for testing reconstructions of Dinofelis’s body, diet, and habitat.

• DiplocaulusRelated: Competing explanations for the skull’s function depend on reconstructing Diplocaulus’s behavior from fossils.

• KronosaurusNarrower topic: Kronosaurus’s diet and behavior must be inferred from anatomy and fossils.

• MegaceropsNarrower topic: Megacerops's behavior and life history must be inferred from anatomy and fossils.

• PhorusrhacosNarrower topic: Its likely diet and movement are reconstructed from fossil evidence and comparisons.

• SidneyiaNarrower topic: Its anatomy and fossil context support inferences about behavior and ecology.

• SimosuchusNarrower topic: Its lifestyle cannot be observed directly, so anatomy and sediments must be interpreted together.

• ThalattosauriaNarrower topic: Thalattosaur fossils provide limited direct evidence about behavior and daily life.

• CeratogaulusNarrower topic: Reconstructing Ceratogaulus behavior requires interpreting incomplete fossil evidence.

• DromornisNarrower topic: Its anatomy and fossil context are evidence for reconstructing how Dromornis lived.

• HelicoprionNarrower topic: Helicoprion’s feeding and body form are inferred from fossils using paleobiological methods.

• HyneriaNarrower topic: Hyneria’s anatomy and fossil setting inform inferences about its way of life.

• MegalictisNarrower topic: It supplies methods for reconstructing Megalictis from incomplete remains.

• OdobenocetopsNarrower topic: Questions about its behavior and anatomy belong to this broader study of extinct life.

• ScansoriopterygidaeNarrower topic: Scansoriopterygid behavior must be inferred from anatomy preserved in a small fossil sample.

• SharovipteryxNarrower topic: Its locomotion and ecology are reconstructed from anatomy and geological context.

• SthenurusNarrower topic: Sthenurus’s behavior and ecology must be inferred from incomplete fossil evidence.